GitHub
amns_data.a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
amns_data.code.commit

Unique commit reference of software

  • Data Type: STR_0D
amns_data.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
amns_data.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
amns_data.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
amns_data.code.library[:].name

Name of software

  • Data Type: STR_0D
amns_data.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
amns_data.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
amns_data.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
amns_data.code.name

Name of software generating IDS

  • Data Type: STR_0D
amns_data.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["amns_data.time"]
amns_data.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
amns_data.code.repository

URL of software repository

  • Data Type: STR_0D
amns_data.code.version

Unique version (tag) of software

  • Data Type: STR_0D
amns_data.coordinate_system[:].coordinate[:].extrapolation_type

Extrapolation strategy when leaving the domain. The first value of the vector describes the behaviour at lower bound, the second describes the at upper bound. Possible values: 0=none, report error; 1=boundary value; 2=linear extrapolation

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
amns_data.coordinate_system[:].coordinate[:].interpolation_type

Interpolation strategy in this coordinate direction. Integer flag: 0=discrete (no interpolation); 1=linear; ...

  • Data Type: INT_0D
amns_data.coordinate_system[:].coordinate[:].label

Description of coordinate (e.g. "Electron temperature")

  • Data Type: STR_0D
amns_data.coordinate_system[:].coordinate[:].spacing

Flag for specific coordinate spacing (for optimization purposes). Integer flag: 0=undefined; 1=uniform; ...

  • Data Type: INT_0D
amns_data.coordinate_system[:].coordinate[:].transformation

Coordinate transformation applied to coordinate values stored in coord. Integer flag: 0=none; 1=log10; 2=ln

  • Data Type: INT_0D
amns_data.coordinate_system[:].coordinate[:].units

Units of coordinate (e.g. eV)

  • Data Type: STR_0D
amns_data.coordinate_system[:].coordinate[:].value_labels

String description of discrete coordinate values (if interpolation_type=0). E.g., for spectroscopic lines, the spectroscopic description of the transition.

  • Data Type: STR_1D
  • Coordinates: ["amns_data.coordinate_system[:].coordinate[:].values"]
amns_data.coordinate_system[:].coordinate[:].values

Coordinate values

  • Units: units given by coordinate_system(:)/coordinate(:)/units
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
amns_data.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
amns_data.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
amns_data.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
amns_data.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
amns_data.ids_properties.occurrence

N/A

  • Data Type: INT_0D
amns_data.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
amns_data.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
amns_data.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
amns_data.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
amns_data.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
amns_data.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
amns_data.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
amns_data.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
amns_data.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
amns_data.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
amns_data.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
amns_data.process[:].charge_state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
amns_data.process[:].charge_state[:].table_0d

0D table describing the process data

  • Units: units given by process(:)/results_units
  • Data Type: FLT_0D
amns_data.process[:].charge_state[:].table_1d

1D table describing the process data

  • Units: units given by process(i1)/results_units
  • Data Type: FLT_1D
  • Coordinates: ["amns_data.coordinate_system[:].coordinate[:].values"]
amns_data.process[:].charge_state[:].table_2d

2D table describing the process data

  • Units: units given by process(i1)/results_units
  • Data Type: FLT_2D
  • Coordinates: ["amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values"]
amns_data.process[:].charge_state[:].table_3d

3D table describing the process data

  • Units: units given by process(:)/results_units
  • Data Type: FLT_3D
  • Coordinates: ["amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values"]
amns_data.process[:].charge_state[:].table_4d

4D table describing the process data

  • Units: units given by process(i1)/results_units
  • Data Type: FLT_4D
  • Coordinates: ["amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values"]
amns_data.process[:].charge_state[:].table_5d

5D table describing the process data

  • Units: units given by process(i1)/results_units
  • Data Type: FLT_5D
  • Coordinates: ["amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values"]
amns_data.process[:].charge_state[:].table_6d

6D table describing the process data

  • Units: units given by process(i1)/results_units
  • Data Type: FLT_6D
  • Coordinates: ["amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values", "amns_data.coordinate_system[:].coordinate[:].values"]
amns_data.process[:].charge_state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
amns_data.process[:].charge_state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
amns_data.process[:].citation

Reference to publication(s)

  • Data Type: STR_0D
amns_data.process[:].coordinate_index

Index in tables_coord, specifying what coordinate systems to use for this process (valid for all tables)

  • Data Type: INT_0D
amns_data.process[:].label

String identifying the process (e.g. EI, RC, ...)

  • Data Type: STR_0D
amns_data.process[:].products[:].charge

Charge number of the participant

  • Data Type: FLT_0D
amns_data.process[:].products[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
amns_data.process[:].products[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
amns_data.process[:].products[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
amns_data.process[:].products[:].label

String identifying reaction participant (e.g. "D", "e", "W", "CD4", "photon", "n")

  • Data Type: STR_0D
amns_data.process[:].products[:].mass

Mass of the participant

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
amns_data.process[:].products[:].metastable

An array identifying the metastable; if zero-length, then not a metastable; if of length 1, then the value indicates the electronic level for the metastable (mostly used for atoms/ions); if of length 2, then the 1st would indicate the electronic level and the second the vibrational level for the metastable (mostly used for molecules and molecular ions); if of length 3, then the 1st would indicate the electronic level, the second the vibrational level and the third the rotational level for the metastable (mostly used for molecules and molecular ions)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
amns_data.process[:].products[:].metastable_label

Label identifying in text form the metastable

  • Data Type: STR_0D
amns_data.process[:].products[:].multiplicity

Multiplicity in the reaction

  • Data Type: FLT_0D
amns_data.process[:].products[:].relative_charge

This is a flag indicating that charges are absolute (if set to 0), relative (if 1) or irrelevant (-1); relative would be used to categorize the ionization reactions from i to i+1 for all charge states; in the case of bundles, the +1 relative indicates the next bundle

  • Data Type: INT_0D
amns_data.process[:].products[:].role.description

Verbose description

  • Data Type: STR_0D
amns_data.process[:].products[:].role.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
amns_data.process[:].products[:].role.name

Short string identifier

  • Data Type: STR_0D
amns_data.process[:].provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
amns_data.process[:].reactants[:].charge

Charge number of the participant

  • Data Type: FLT_0D
amns_data.process[:].reactants[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
amns_data.process[:].reactants[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
amns_data.process[:].reactants[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
amns_data.process[:].reactants[:].label

String identifying reaction participant (e.g. "D", "e", "W", "CD4", "photon", "n")

  • Data Type: STR_0D
amns_data.process[:].reactants[:].mass

Mass of the participant

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
amns_data.process[:].reactants[:].metastable

An array identifying the metastable; if zero-length, then not a metastable; if of length 1, then the value indicates the electronic level for the metastable (mostly used for atoms/ions); if of length 2, then the 1st would indicate the electronic level and the second the vibrational level for the metastable (mostly used for molecules and molecular ions); if of length 3, then the 1st would indicate the electronic level, the second the vibrational level and the third the rotational level for the metastable (mostly used for molecules and molecular ions)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
amns_data.process[:].reactants[:].metastable_label

Label identifying in text form the metastable

  • Data Type: STR_0D
amns_data.process[:].reactants[:].multiplicity

Multiplicity in the reaction

  • Data Type: FLT_0D
amns_data.process[:].reactants[:].relative_charge

This is a flag indicating that charges are absolute (if set to 0), relative (if 1) or irrelevant (-1); relative would be used to categorize the ionization reactions from i to i+1 for all charge states; in the case of bundles, the +1 relative indicates the next bundle

  • Data Type: INT_0D
amns_data.process[:].reactants[:].role.description

Verbose description

  • Data Type: STR_0D
amns_data.process[:].reactants[:].role.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
amns_data.process[:].reactants[:].role.name

Short string identifier

  • Data Type: STR_0D
amns_data.process[:].result_label

Description of the process result (rate, cross section, sputtering yield, ...)

  • Data Type: STR_0D
amns_data.process[:].result_transformation

Transformation of the process result. Integer flag: 0=no transformation; 1=10^; 2=exp()

  • Data Type: INT_0D
amns_data.process[:].result_units

Units of the process result

  • Data Type: STR_0D
amns_data.process[:].source

Filename or subroutine name used to provide this data

  • Data Type: STR_0D
amns_data.process[:].table_dimension

Table dimensionality of the process (1 to 6), valid for all charge states. Indicates which of the tables is filled (below the charge_state node)

  • Data Type: INT_0D
amns_data.release[:].data_entry[:].description

Description of this data entry

  • Data Type: STR_0D
amns_data.release[:].data_entry[:].run

Which run number is the active run number for this version

  • Data Type: INT_0D
amns_data.release[:].data_entry[:].shot

Shot number = Mass*1000+Nuclear_charge

  • Data Type: INT_0D
amns_data.release[:].date

Date of this release

  • Data Type: STR_0D
amns_data.release[:].description

Description of this release

  • Data Type: STR_0D
amns_data.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
amns_data.z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
b_field_non_axisymmetric.code.commit

Unique commit reference of software

  • Data Type: STR_0D
b_field_non_axisymmetric.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
b_field_non_axisymmetric.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
b_field_non_axisymmetric.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
b_field_non_axisymmetric.code.library[:].name

Name of software

  • Data Type: STR_0D
b_field_non_axisymmetric.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
b_field_non_axisymmetric.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
b_field_non_axisymmetric.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
b_field_non_axisymmetric.code.name

Name of software generating IDS

  • Data Type: STR_0D
b_field_non_axisymmetric.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["b_field_non_axisymmetric.time"]
b_field_non_axisymmetric.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
b_field_non_axisymmetric.code.repository

URL of software repository

  • Data Type: STR_0D
b_field_non_axisymmetric.code.version

Unique version (tag) of software

  • Data Type: STR_0D
b_field_non_axisymmetric.configuration

In case of a constant (single time slice) b_field description, name of the corresponding scenario/configuration

  • Data Type: STR_0D
b_field_non_axisymmetric.control_surface_names

List of control surface names, refers to the ../timeslice/controlsurface index

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
b_field_non_axisymmetric.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.occurrence

N/A

  • Data Type: INT_0D
b_field_non_axisymmetric.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
b_field_non_axisymmetric.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
b_field_non_axisymmetric.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
b_field_non_axisymmetric.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].b_field_normal

Normal component of the vacuum error magnetic field on the various surface points

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.r", "b_field_non_axisymmetric.time_slice[:].control_surface[:].phi"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].b_field_normal_fourier

Fourier coefficients of the normal component of the vacuum error magnetic field on the various surface points

  • Units: T
  • Data Type: CPX_2D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.r", "b_field_non_axisymmetric.time_slice[:].control_surface[:].n_tor"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].b_field_r

R component of the vacuum error magnetic field on the various surface points

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.r", "b_field_non_axisymmetric.time_slice[:].control_surface[:].phi"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].b_field_tor

Toroidal component of the vacuum error magnetic field on the various surface points

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.r", "b_field_non_axisymmetric.time_slice[:].control_surface[:].phi"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].b_field_z

Z component of the vacuum error magnetic field on the various surface points

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.r", "b_field_non_axisymmetric.time_slice[:].control_surface[:].phi"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].n_tor

Toroidal mode number

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].normal_vector.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].normal_vector.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].control_surface[:].normal_vector.r"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].control_surface[:].outline.r"]
b_field_non_axisymmetric.time_slice[:].control_surface[:].phi

Toroidal angle array, on which the Fourier decomposition is carried out

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.time_slice[:].field_map.b_field_r

R component of the vacuum error magnetic field

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].field_map.grid.r", "b_field_non_axisymmetric.time_slice[:].field_map.grid.phi", "b_field_non_axisymmetric.time_slice[:].field_map.grid.z"]
b_field_non_axisymmetric.time_slice[:].field_map.b_field_tor

Toroidal component of the vacuum error magnetic field

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].field_map.grid.r", "b_field_non_axisymmetric.time_slice[:].field_map.grid.phi", "b_field_non_axisymmetric.time_slice[:].field_map.grid.z"]
b_field_non_axisymmetric.time_slice[:].field_map.b_field_z

Z component of the vacuum error magnetic field

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].field_map.grid.r", "b_field_non_axisymmetric.time_slice[:].field_map.grid.phi", "b_field_non_axisymmetric.time_slice[:].field_map.grid.z"]
b_field_non_axisymmetric.time_slice[:].field_map.grid.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].field_map.grid.r"]
b_field_non_axisymmetric.time_slice[:].field_map.grid.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
b_field_non_axisymmetric.time_slice[:].field_map.grid.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].field_map.grid.r"]
b_field_non_axisymmetric.time_slice[:].field_map.ripple_amplitude

Value of (bfieldmax-bfieldmin)/(bfieldmax+bfieldmin), where bfieldmax resp. bfieldmin) is the maximum (resp. minimum) of the magnetic field amplitude over a 2pi rotation in toroidal angle phi at a given R, Z position.

  • Data Type: FLT_2D
  • Coordinates: ["b_field_non_axisymmetric.time_slice[:].field_map.grid.r", "b_field_non_axisymmetric.time_slice[:].field_map.grid.z"]
b_field_non_axisymmetric.time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
balance_of_plant.Q_plant

Electricity gain of the plant (ratio of net electric / plant electricity during operation)

  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_electric_net

Net electric power

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_electric_plant_operation.system[:].index

Index of the system, used to generate functions

  • Data Type: INT_0D
balance_of_plant.power_electric_plant_operation.system[:].name

Name of the system

  • Data Type: STR_0D
balance_of_plant.power_electric_plant_operation.system[:].power

Electrical power used to operate the system

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_electric_plant_operation.system[:].subsystem[:].index

Index of the system, used to generate functions

  • Data Type: INT_0D
balance_of_plant.power_electric_plant_operation.system[:].subsystem[:].name

Name of the system

  • Data Type: STR_0D
balance_of_plant.power_electric_plant_operation.system[:].subsystem[:].power

Electrical power used to operate the system

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_electric_plant_operation.total_power

Total

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.generator_conversion_efficiency

Conversion efficiency of thermal to electric power of the steam cycle

  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.heat_load.breeder

The heat flow towards the breeder.

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.heat_load.divertor

The heat flow towards the divertor

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.heat_load.wall

The heat flow towards the wall.

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.power_cycle_type

Type of primary power cycle, :brayton = gas, :rankine = steam

  • Data Type: STR_0D
balance_of_plant.power_plant.power_electric_generated

The net electric power produced by the thermal plant, equal tot the power produced by turbines LESS the power consumed by pumps and compressors

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.system[:].component[:].index

Index of the system, used to generate functions

  • Data Type: INT_0D
balance_of_plant.power_plant.system[:].component[:].name

Name of the component

  • Data Type: STR_0D
balance_of_plant.power_plant.system[:].component[:].port[:].massflow

Mass Flow Rate of the fluid

  • Units: kg/s
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.system[:].component[:].port[:].mechanicalPower

Shaft power associated with the component, (+) = into the system, (-) = out of the system

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.system[:].component[:].port[:].name

Name of the port

  • Data Type: STR_0D
balance_of_plant.power_plant.system[:].component[:].port[:].pressure

Fluid pressure

  • Units: Bar
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.system[:].component[:].port[:].temperature

Fluid Temperature

  • Units: C
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.system[:].component[:].port[:].thermalPower

Heattransfer rate of the component, (+) = into the system, (-) = out of the system

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.system[:].index

Index of the system, used to generate functions

  • Data Type: INT_0D
balance_of_plant.power_plant.system[:].name

Name of the system

  • Data Type: STR_0D
balance_of_plant.power_plant.total_heat_rejected

The total heat flow being rejected from the thermal plant

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.power_plant.total_heat_supplied

The total heat flow being supplied to the thermal Plant (Fusion thermal power).

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.thermal_efficiency_cycle

The fractional thermal effiency of the power cycle. Calculated as 1-Qout/Qin

  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.thermal_efficiency_plant

The fractional thermal effiency of the entire BOP thermal plant, inlcudes all of the individual cycles. Calculated as 1-Qout/Qin

  • Data Type: FLT_1D
  • Coordinates: ["balance_of_plant.time"]
balance_of_plant.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
barometry.code.commit

Unique commit reference of software

  • Data Type: STR_0D
barometry.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
barometry.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
barometry.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
barometry.code.library[:].name

Name of software

  • Data Type: STR_0D
barometry.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
barometry.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
barometry.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
barometry.code.name

Name of software generating IDS

  • Data Type: STR_0D
barometry.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["barometry.time"]
barometry.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
barometry.code.repository

URL of software repository

  • Data Type: STR_0D
barometry.code.version

Unique version (tag) of software

  • Data Type: STR_0D
barometry.gauge[:].calibration_coefficient

Coefficient used for converting raw signal into absolute pressure

  • Units: Pa
  • Data Type: FLT_0D
barometry.gauge[:].name

Name of the gauge

  • Data Type: STR_0D
barometry.gauge[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
barometry.gauge[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
barometry.gauge[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
barometry.gauge[:].pressure.data

Data

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["barometry.gauge[:].pressure.time"]
barometry.gauge[:].pressure.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
barometry.gauge[:].type.description

Verbose description

  • Data Type: STR_0D
barometry.gauge[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
barometry.gauge[:].type.name

Short string identifier

  • Data Type: STR_0D
barometry.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
barometry.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
barometry.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
barometry.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
barometry.ids_properties.occurrence

N/A

  • Data Type: INT_0D
barometry.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
barometry.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
barometry.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
barometry.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
barometry.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
barometry.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
barometry.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
barometry.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
barometry.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
barometry.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
barometry.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
barometry.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
barometry.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
blanket.module[:].layer[:].material

Material of the layer

  • Data Type: STR_0D
blanket.module[:].layer[:].midplane_thickness

Thickness of layer evaluated at the midplane

  • Units: m
  • Data Type: FLT_0D
blanket.module[:].layer[:].name

Name of the blanket layer

  • Data Type: STR_0D
blanket.module[:].name

Name of the blanket module

  • Data Type: STR_0D
blanket.module[:].time_slice[:].peak_escape_flux

Maximum neutron flux escaping from the back of the blanket module

  • Units: W/m^2
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].peak_wall_flux

Maximum neutron flux at the first wall

  • Units: W/m^2
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].power_incident_neutrons

Total incident neutron power on the blanket module

  • Units: W
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].power_incident_radiated

Total incident radiative power on the blanket module

  • Units: W
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].power_thermal_extracted

Total thermal power that is extracted from the blanket module

  • Units: W
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].power_thermal_neutrons

Total neutron power (deposited + generated) in the blanket module

  • Units: W
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].power_thermal_radiated

Total radiated power (incident - reflected) in the blanket module

  • Units: W
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
blanket.module[:].time_slice[:].tritium_breeding_ratio

Number of tritium atoms for each incident neutron (TBR)

  • Data Type: FLT_0D
blanket.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
blanket.tritium_breeding_ratio

Number of tritium atoms created for each fusion neutron (TBR)

  • Data Type: FLT_1D
  • Coordinates: ["blanket.time"]
bolometer.channel[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
bolometer.channel[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bolometer.channel[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["bolometer.channel[:].aperture[:].outline.x1"]
bolometer.channel[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
bolometer.channel[:].detector.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
bolometer.channel[:].detector.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bolometer.channel[:].detector.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["bolometer.channel[:].detector.outline.x1"]
bolometer.channel[:].detector.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
bolometer.channel[:].detector.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].detector.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].etendue

Etendue (geometric extent) of the channel's optical system

  • Units: m^2.sr
  • Data Type: FLT_0D
bolometer.channel[:].etendue_method.description

Verbose description

  • Data Type: STR_0D
bolometer.channel[:].etendue_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
bolometer.channel[:].etendue_method.name

Short string identifier

  • Data Type: STR_0D
bolometer.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
bolometer.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.third_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.third_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].line_of_sight.third_point.z

Height

  • Units: m
  • Data Type: FLT_0D
bolometer.channel[:].name

Name of the channel

  • Data Type: STR_0D
bolometer.channel[:].power.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["bolometer.channel[:].power.time"]
bolometer.channel[:].power.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bolometer.channel[:].validity

Indicator of the validity of the channel for the whole acquisition period (0 means valid, negative values mean non-valid)

  • Data Type: INT_0D
bolometer.channel[:].validity_timed.data

Data

  • Data Type: INT_1D
  • Coordinates: ["bolometer.channel[:].validity_timed.time"]
bolometer.channel[:].validity_timed.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bolometer.code.commit

Unique commit reference of software

  • Data Type: STR_0D
bolometer.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bolometer.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bolometer.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bolometer.code.library[:].name

Name of software

  • Data Type: STR_0D
bolometer.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bolometer.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
bolometer.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bolometer.code.name

Name of software generating IDS

  • Data Type: STR_0D
bolometer.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["bolometer.time"]
bolometer.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bolometer.code.repository

URL of software repository

  • Data Type: STR_0D
bolometer.code.version

Unique version (tag) of software

  • Data Type: STR_0D
bolometer.grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bolometer.grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bolometer.grid.volume_element

Volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["bolometer.grid.dim1", "bolometer.grid.dim2"]
bolometer.grid_type.description

Verbose description

  • Data Type: STR_0D
bolometer.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
bolometer.grid_type.name

Short string identifier

  • Data Type: STR_0D
bolometer.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
bolometer.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
bolometer.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
bolometer.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
bolometer.ids_properties.occurrence

N/A

  • Data Type: INT_0D
bolometer.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
bolometer.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
bolometer.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
bolometer.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
bolometer.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bolometer.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
bolometer.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
bolometer.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
bolometer.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
bolometer.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
bolometer.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
bolometer.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
bolometer.power_density.data

Data

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["bolometer.grid.dim1", "bolometer.grid.dim2", "bolometer.power_density.time"]
bolometer.power_density.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bolometer.power_radiated_inside_lcfs

Radiated power from the plasma inside the Last Closed Flux Surface, reconstructed from bolometry data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["bolometer.time"]
bolometer.power_radiated_total

Total radiated power reconstructed from bolometry data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["bolometer.time"]
bolometer.power_radiated_validity

Validity flag related to the radiated power reconstructions

  • Data Type: INT_1D
  • Coordinates: ["bolometer.time"]
bolometer.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bremsstrahlung_visible.channel[:].filter.detection_efficiency

Probability of detection of a photon impacting the detector as a function of its wavelength

  • Data Type: FLT_1D
  • Coordinates: ["bremsstrahlung_visible.channel[:].filter.wavelengths"]
bremsstrahlung_visible.channel[:].filter.wavelength_lower

Lower bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].filter.wavelength_upper

Upper bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].filter.wavelengths

Array of wavelength values

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bremsstrahlung_visible.channel[:].intensity.data

Data

  • Units: (counts) s^-1
  • Data Type: FLT_1D
  • Coordinates: ["bremsstrahlung_visible.channel[:].intensity.time"]
bremsstrahlung_visible.channel[:].intensity.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bremsstrahlung_visible.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
bremsstrahlung_visible.channel[:].name

Name of the channel

  • Data Type: STR_0D
bremsstrahlung_visible.channel[:].radiance_spectral.data

Data

  • Units: (photons).m^-2.s^-1.sr^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["bremsstrahlung_visible.channel[:].radiance_spectral.time"]
bremsstrahlung_visible.channel[:].radiance_spectral.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bremsstrahlung_visible.channel[:].zeff_line_average.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["bremsstrahlung_visible.channel[:].zeff_line_average.time"]
bremsstrahlung_visible.channel[:].zeff_line_average.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
bremsstrahlung_visible.channel[:].zeff_line_average.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
bremsstrahlung_visible.channel[:].zeff_line_average.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["bremsstrahlung_visible.channel[:].zeff_line_average.time"]
bremsstrahlung_visible.code.commit

Unique commit reference of software

  • Data Type: STR_0D
bremsstrahlung_visible.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bremsstrahlung_visible.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bremsstrahlung_visible.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bremsstrahlung_visible.code.library[:].name

Name of software

  • Data Type: STR_0D
bremsstrahlung_visible.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bremsstrahlung_visible.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
bremsstrahlung_visible.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bremsstrahlung_visible.code.name

Name of software generating IDS

  • Data Type: STR_0D
bremsstrahlung_visible.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["bremsstrahlung_visible.time"]
bremsstrahlung_visible.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bremsstrahlung_visible.code.repository

URL of software repository

  • Data Type: STR_0D
bremsstrahlung_visible.code.version

Unique version (tag) of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
bremsstrahlung_visible.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.occurrence

N/A

  • Data Type: INT_0D
bremsstrahlung_visible.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
bremsstrahlung_visible.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
bremsstrahlung_visible.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
bremsstrahlung_visible.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
bremsstrahlung_visible.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
bremsstrahlung_visible.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
build.divertors.lower.installed

1 if a lower divertor is installed

  • Data Type: INT_0D
build.divertors.upper.installed

1 if a upper divertor is installed

  • Data Type: INT_0D
build.flux_swing.flattop

Total flux required for the plasma flattop

  • Units: Wb
  • Data Type: FLT_0D
build.flux_swing.pf

Contribution of vertical field from PF coils to flux swing

  • Units: Wb
  • Data Type: FLT_0D
build.flux_swing.rampup

Total flux required for the plasma rampup

  • Units: Wb
  • Data Type: FLT_0D
build.layer[:].area

Cross sectional area of the layer

  • Units: m^2
  • Data Type: FLT_0D
build.layer[:].end_radius

End radius of the layer

  • Units: m
  • Data Type: FLT_0D
build.layer[:].identifier

Integer to identify the same layer on the high-field-side and low-field-side

  • Data Type: INT_0D
build.layer[:].material

Material of the layer

  • Data Type: STR_0D
build.layer[:].name

Name of the layer

  • Data Type: STR_0D
build.layer[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
build.layer[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["build.layer[:].outline.r"]
build.layer[:].shape

Integer to identify the physical shape of the layer

  • Data Type: INT_0D
build.layer[:].shape_parameters

List of the shape specific parameters for given shape type

  • Data Type: FLT_1D
build.layer[:].side

Integer set to -1 if layer is on the low-field-side and 1 if layer is on the high-field-side. 0 for plasma. 2 for inner (eg. OH) and 3 for outer (eg. cryostat)

  • Data Type: INT_0D
build.layer[:].start_radius

Start radius of the layer

  • Units: m
  • Data Type: FLT_0D
build.layer[:].thickness

Radial thickness of layer

  • Units: m
  • Data Type: FLT_0D
build.layer[:].type

Layer type code

  1. vacuum (use this to set mimimum radius for OH)
  2. OH
  3. TF
  4. BL
  5. Shielding
  6. Wall

-1) Vacuum vessel * Data Type: INT_0D

build.layer[:].volume

Volume of the layer

  • Units: m^3
  • Data Type: FLT_0D
build.layer[:].volume_no_structures

Volume of the layer without structures

  • Units: m^3
  • Data Type: FLT_0D
build.oh.critical_b_field

Critical magnetic field density to quench superconducting OH

  • Units: T
  • Data Type: FLT_0D
build.oh.critical_j

Critical current density to quench superconducting OH

  • Units: A/m^2
  • Data Type: FLT_0D
build.oh.flattop_duration

Estimated duration of the flattop

  • Units: s
  • Data Type: FLT_0D
build.oh.max_b_field

Maximum magnetic field in the OH solenoid, as required to satisfy rampup and flattop flux consumption

  • Units: T
  • Data Type: FLT_0D
build.oh.max_j

Maximum current density in the OH solenoid, as required to satisfy rampup and flattop flux consumption

  • Units: A/m^2
  • Data Type: FLT_0D
build.oh.technology.JxB_strain

Fraction of maximum JxB strain over maximum total strain on the OH coils

  • Data Type: FLT_0D
build.oh.technology.fraction_steel

Fraction of stainless steel in the OH coils cross-sectional areas

  • Data Type: FLT_0D
build.oh.technology.fraction_void

Fraction of void in the OH coils cross-sectional area. Void is everything (like coolant) that is not structural nor conductor

  • Data Type: FLT_0D
build.oh.technology.material

Material of the OH coils

  • Data Type: STR_0D
build.oh.technology.ratio_SC_to_copper

Fraction of superconductor to copper cross-sectional areas in OH coils

  • Data Type: FLT_0D
build.oh.technology.temperature

OH coils temperature

  • Units: K
  • Data Type: FLT_0D
build.oh.technology.thermal_strain

Fraction of thermal expansion strain over maximum total strain on the OH coils

  • Data Type: FLT_0D
build.pf_active.rail[:].coils_cleareance

Clereance that coils have from other structures

  • Units: m
  • Data Type: FLT_0D
build.pf_active.rail[:].coils_number

Number of coils on the rail

  • Data Type: INT_0D
build.pf_active.rail[:].name

Name of the coil rail

  • Data Type: STR_0D
build.pf_active.rail[:].outline.distance

Distance along the rail skipping gaps

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["build.pf_active.rail[:].outline.r"]
build.pf_active.rail[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
build.pf_active.rail[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["build.pf_active.rail[:].outline.r"]
build.pf_active.technology.JxB_strain

Fraction of maximum JxB strain over maximum total strain on the PF coils

  • Data Type: FLT_0D
build.pf_active.technology.fraction_steel

Fraction of stainless steel in the PF coils cross-sectional areas

  • Data Type: FLT_0D
build.pf_active.technology.fraction_void

Fraction of void in the PF coils cross-sectional area. Void is everything (like coolant) that is not structural nor conductor

  • Data Type: FLT_0D
build.pf_active.technology.material

Material of the PF coils

  • Data Type: STR_0D
build.pf_active.technology.ratio_SC_to_copper

Fraction of superconductor to copper cross-sectional areas in the PF coils

  • Data Type: FLT_0D
build.pf_active.technology.temperature

PF coils temperature

  • Units: K
  • Data Type: FLT_0D
build.pf_active.technology.thermal_strain

Fraction of thermal expansion strain over maximum total strain on the PF coils

  • Data Type: FLT_0D
build.structure[:].area

Cross sectional area of the structure

  • Units: m^2
  • Data Type: FLT_0D
build.structure[:].identifier

String to identify structure

  • Data Type: STR_0D
build.structure[:].material

Material of the structure

  • Data Type: STR_0D
build.structure[:].name

Name of the structure

  • Data Type: STR_0D
build.structure[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
build.structure[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["build.structure[:].outline.r"]
build.structure[:].toroidal_angles

Toroidal position(s) of the structure

  • Units: rad
  • Data Type: FLT_1D
build.structure[:].toroidal_extent

Toroidal extent of the structure

  • Units: rad
  • Data Type: FLT_0D
build.structure[:].type

Structure type code

  • Data Type: INT_0D
build.structure[:].volume

Volume of the structure

  • Units: m^3
  • Data Type: FLT_0D
build.tf.coils_n

Number of TF coils around the torus

  • Data Type: INT_0D
build.tf.critical_b_field

Critical magnetic field to quench superconducting TF

  • Units: T
  • Data Type: FLT_0D
build.tf.critical_j

Critical current density to quench superconducting TF

  • Units: A/m^2
  • Data Type: FLT_0D
build.tf.max_b_field

Maximum magnetic field evaluated at the TF high-field side

  • Units: T
  • Data Type: FLT_0D
build.tf.max_j

Maximum current density in the TF solenoid

  • Units: A/m^2
  • Data Type: FLT_0D
build.tf.ripple

Fraction of toroidal field ripple evaluated at the outermost radius of the plasma chamber

  • Data Type: FLT_0D
build.tf.technology.JxB_strain

Fraction of maximum JxB strain over maximum total strain on the TF coils

  • Data Type: FLT_0D
build.tf.technology.fraction_steel

Fraction of stainless steel in the TF coils cross-sectional areas

  • Data Type: FLT_0D
build.tf.technology.fraction_void

Fraction of void in the TF coils cross-sectional area. Void is everything (like coolant) that is not structural nor conductor

  • Data Type: FLT_0D
build.tf.technology.material

Material of the TF coils

  • Data Type: STR_0D
build.tf.technology.ratio_SC_to_copper

Fraction of superconductor to copper cross-sectional areas in the TF coils

  • Data Type: FLT_0D
build.tf.technology.temperature

TF coils temperature

  • Units: K
  • Data Type: FLT_0D
build.tf.technology.thermal_strain

Fraction of thermal expansion strain over maximum total strain on the TF coils

  • Data Type: FLT_0D
build.tf.wedge_thickness

Thickness of the TF coils wedge evaluated

  • Units: m
  • Data Type: FLT_0D
build.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.code.commit

Unique commit reference of software

  • Data Type: STR_0D
calorimetry.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
calorimetry.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
calorimetry.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
calorimetry.code.library[:].name

Name of software

  • Data Type: STR_0D
calorimetry.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
calorimetry.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
calorimetry.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
calorimetry.code.name

Name of software generating IDS

  • Data Type: STR_0D
calorimetry.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.time"]
calorimetry.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
calorimetry.code.repository

URL of software repository

  • Data Type: STR_0D
calorimetry.code.version

Unique version (tag) of software

  • Data Type: STR_0D
calorimetry.cooling_loop[:].identifier

ID of the loop

  • Data Type: STR_0D
calorimetry.cooling_loop[:].mass_flow.data

Data

  • Units: kg.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.cooling_loop[:].mass_flow.time"]
calorimetry.cooling_loop[:].mass_flow.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.cooling_loop[:].mass_flow.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.cooling_loop[:].mass_flow.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.cooling_loop[:].mass_flow.time"]
calorimetry.cooling_loop[:].name

Name of the loop

  • Data Type: STR_0D
calorimetry.cooling_loop[:].temperature_in.data

Data

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.cooling_loop[:].temperature_in.time"]
calorimetry.cooling_loop[:].temperature_in.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.cooling_loop[:].temperature_in.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.cooling_loop[:].temperature_in.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.cooling_loop[:].temperature_in.time"]
calorimetry.cooling_loop[:].temperature_out.data

Data

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.cooling_loop[:].temperature_out.time"]
calorimetry.cooling_loop[:].temperature_out.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.cooling_loop[:].temperature_out.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.cooling_loop[:].temperature_out.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.cooling_loop[:].temperature_out.time"]
calorimetry.group[:].component[:].energy_cumulated.data

Data

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.group[:].component[:].energy_cumulated.time"]
calorimetry.group[:].component[:].energy_cumulated.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.group[:].component[:].energy_cumulated.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.group[:].component[:].energy_cumulated.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.group[:].component[:].energy_cumulated.time"]
calorimetry.group[:].component[:].energy_total.data

Data

  • Units: J
  • Data Type: FLT_0D
calorimetry.group[:].component[:].energy_total.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.group[:].component[:].identifier

ID of the component

  • Data Type: STR_0D
calorimetry.group[:].component[:].mass_flow.data

Data

  • Units: kg.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.group[:].component[:].mass_flow.time"]
calorimetry.group[:].component[:].mass_flow.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.group[:].component[:].mass_flow.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.group[:].component[:].mass_flow.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.group[:].component[:].mass_flow.time"]
calorimetry.group[:].component[:].name

Name of the component

  • Data Type: STR_0D
calorimetry.group[:].component[:].power.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.group[:].component[:].power.time"]
calorimetry.group[:].component[:].power.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.group[:].component[:].power.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.group[:].component[:].power.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.group[:].component[:].power.time"]
calorimetry.group[:].component[:].temperature_in.data

Data

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.group[:].component[:].temperature_in.time"]
calorimetry.group[:].component[:].temperature_in.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.group[:].component[:].temperature_in.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.group[:].component[:].temperature_in.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.group[:].component[:].temperature_in.time"]
calorimetry.group[:].component[:].temperature_out.data

Data

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.group[:].component[:].temperature_out.time"]
calorimetry.group[:].component[:].temperature_out.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.group[:].component[:].temperature_out.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.group[:].component[:].temperature_out.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.group[:].component[:].temperature_out.time"]
calorimetry.group[:].component[:].transit_time.data

Data

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["calorimetry.group[:].component[:].transit_time.time"]
calorimetry.group[:].component[:].transit_time.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
calorimetry.group[:].component[:].transit_time.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
calorimetry.group[:].component[:].transit_time.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["calorimetry.group[:].component[:].transit_time.time"]
calorimetry.group[:].identifier

ID of the group

  • Data Type: STR_0D
calorimetry.group[:].name

Name of the group

  • Data Type: STR_0D
calorimetry.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
calorimetry.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
calorimetry.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
calorimetry.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
calorimetry.ids_properties.occurrence

N/A

  • Data Type: INT_0D
calorimetry.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
calorimetry.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
calorimetry.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
calorimetry.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
calorimetry.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
calorimetry.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
calorimetry.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
calorimetry.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
calorimetry.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
calorimetry.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
calorimetry.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
calorimetry.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_ir.calibration.luminance_to_temperature

Luminance to temperature conversion table

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...2"]
camera_ir.calibration.optical_temperature

Temperature of the optical components (digital levels)

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
camera_ir.calibration.transmission_barrel

Transmission of the optical barrel

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
camera_ir.calibration.transmission_mirror

Transmission of the mirror

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
camera_ir.calibration.transmission_window

Transmission of the window

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
camera_ir.code.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_ir.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_ir.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_ir.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_ir.code.library[:].name

Name of software

  • Data Type: STR_0D
camera_ir.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_ir.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
camera_ir.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_ir.code.name

Name of software generating IDS

  • Data Type: STR_0D
camera_ir.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["camera_ir.time"]
camera_ir.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_ir.code.repository

URL of software repository

  • Data Type: STR_0D
camera_ir.code.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_ir.fibre_bundle.fibre_positions.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_ir.fibre_bundle.fibre_positions.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.fibre_bundle.fibre_positions.x1"]
camera_ir.fibre_bundle.fibre_radius

Radius of a single fibre

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
camera_ir.fibre_bundle.geometry.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_ir.fibre_bundle.geometry.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.fibre_bundle.geometry.outline.x1"]
camera_ir.fibre_bundle.geometry.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.fibre_bundle.geometry.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.frame[:].surface_temperature

Surface temperature image. First dimension : line index (horizontal axis). Second dimension: column index (vertical axis). The size of this matrix is assumed to be constant over time

  • Units: K
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_ir.frame[:].time

Time

  • Units: s
  • Data Type: FLT_0D
camera_ir.frame_analysis[:].distance_separatrix_midplane

Distance between the measurement position and the separatrix, mapped along flux surfaces to the outboard midplane, in the major radius direction. Positive value means the measurement is outside of the separatrix.

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_ir.frame_analysis[:].power_flux_parallel

Parallel heat flux received by the element monitored by the camera, along the distanceseparatrixmidplane coordinate

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.frame_analysis[:].distance_separatrix_midplane"]
camera_ir.frame_analysis[:].sol_heat_decay_length

Heat flux decay length in SOL at divertor entrance, mapped to the mid-plane, this is the lambda_q parameter defined in reference T. Eich et al, Nucl. Fusion 53 (2013) 093031

  • Units: m
  • Data Type: FLT_0D
camera_ir.frame_analysis[:].time

Time

  • Units: s
  • Data Type: FLT_0D
camera_ir.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
camera_ir.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
camera_ir.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
camera_ir.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
camera_ir.ids_properties.occurrence

N/A

  • Data Type: INT_0D
camera_ir.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
camera_ir.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_ir.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
camera_ir.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_ir.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
camera_ir.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
camera_ir.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
camera_ir.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
camera_ir.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
camera_ir.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
camera_ir.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
camera_ir.midplane.description

Verbose description

  • Data Type: STR_0D
camera_ir.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_ir.midplane.name

Short string identifier

  • Data Type: STR_0D
camera_ir.name

Name of the camera

  • Data Type: STR_0D
camera_ir.optical_element[:].back_surface.curvature_type.description

Verbose description

  • Data Type: STR_0D
camera_ir.optical_element[:].back_surface.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_ir.optical_element[:].back_surface.curvature_type.name

Short string identifier

  • Data Type: STR_0D
camera_ir.optical_element[:].back_surface.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].back_surface.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].front_surface.curvature_type.description

Verbose description

  • Data Type: STR_0D
camera_ir.optical_element[:].front_surface.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_ir.optical_element[:].front_surface.curvature_type.name

Short string identifier

  • Data Type: STR_0D
camera_ir.optical_element[:].front_surface.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].front_surface.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
camera_ir.optical_element[:].geometry.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_ir.optical_element[:].geometry.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.optical_element[:].geometry.outline.x1"]
camera_ir.optical_element[:].geometry.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].geometry.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].material_properties.extinction_coefficient

Extinction coefficient (for metal)

  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.optical_element[:].material_properties.wavelengths"]
camera_ir.optical_element[:].material_properties.refractive_index

Refractive index (for metal and dielectric)

  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.optical_element[:].material_properties.wavelengths"]
camera_ir.optical_element[:].material_properties.roughness

Roughness parameter of the material. Varies in range [0, 1]. 0 is perfectly specular, 1 is perfectly rough

  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.optical_element[:].material_properties.wavelengths"]
camera_ir.optical_element[:].material_properties.transmission_coefficient

Transmission coefficient (for dielectric)

  • Data Type: FLT_1D
  • Coordinates: ["camera_ir.optical_element[:].material_properties.wavelengths"]
camera_ir.optical_element[:].material_properties.type.description

Verbose description

  • Data Type: STR_0D
camera_ir.optical_element[:].material_properties.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_ir.optical_element[:].material_properties.type.name

Short string identifier

  • Data Type: STR_0D
camera_ir.optical_element[:].material_properties.wavelengths

Wavelengths array for refractiveindex, extinctioncoefficient and transmission_coefficient

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_ir.optical_element[:].thickness

Distance between frontsurface and backsurface along the X3 vector

  • Units: m
  • Data Type: FLT_0D
camera_ir.optical_element[:].type.description

Verbose description

  • Data Type: STR_0D
camera_ir.optical_element[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_ir.optical_element[:].type.name

Short string identifier

  • Data Type: STR_0D
camera_ir.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
camera_visible.channel[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].aperture[:].outline.x1"]
camera_visible.channel[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].detector[:].columns_n

Number of pixel columns in the horizontal direction

  • Data Type: INT_0D
camera_visible.channel[:].detector[:].counts_to_radiance

Counts to radiance factor, for each pixel of the detector. Includes both the transmission losses in the relay optics and the quantum efficiency of the camera itself, integrated over the wavelength range

  • Units: photons.m^-2.s^-1.sr^-1.counts^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_visible.channel[:].detector[:].exposure_time

Exposure time

  • Units: s
  • Data Type: FLT_0D
camera_visible.channel[:].detector[:].frame[:].image_raw

Raw image (unprocessed) (digital levels). First dimension : line index (horizontal axis). Second dimension: column index (vertical axis).

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
camera_visible.channel[:].detector[:].frame[:].radiance

Radiance image. First dimension : line index (horizontal axis). Second dimension: column index (vertical axis).

  • Units: photons.m^-2.s^-1.sr^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_visible.channel[:].detector[:].frame[:].time

Time

  • Units: s
  • Data Type: FLT_0D
camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.dim3

Third dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.grid_type.description

Verbose description

  • Data Type: STR_0D
camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.grid_type.name

Short string identifier

  • Data Type: STR_0D
camera_visible.channel[:].detector[:].geometry_matrix.interpolated.data

Interpolated Ray Transfer Matrix (RTM, or geometry matrix), which provides transformation of the reflected light from each interpolation knot to the receiver (detector pixel). When convolving with an emission profile, the values must be interpolated to the emission grid and multiplied by the volume of the grid cells. The interpolated matrix is given on an array of interpolation knots of coordinates r, z and phi (third dimension of this array). The first two dimension correspond to the detector pixels : first dimension : line index (horizontal axis); second dimension: column index (vertical axis).

  • Units: m^-2
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "camera_visible.channel[:].detector[:].geometry_matrix.interpolated.r"]
camera_visible.channel[:].detector[:].geometry_matrix.interpolated.phi

Toroidal angle (oriented counter-clockwise when viewing from above) of interpolation knots

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].detector[:].geometry_matrix.interpolated.r"]
camera_visible.channel[:].detector[:].geometry_matrix.interpolated.r

Major radius of interpolation knots

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].geometry_matrix.interpolated.z

Height of interpolation knots

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].detector[:].geometry_matrix.interpolated.r"]
camera_visible.channel[:].detector[:].geometry_matrix.voxel_map

Voxel map for geometry matrix. The cells with same number are merged in the computation into a single emission source meta-cell (the voxel). Cells with number -1 are excluded. Voxel count starts from 0.

  • Data Type: INT_3D
  • Coordinates: ["camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.dim1", "camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.dim2", "camera_visible.channel[:].detector[:].geometry_matrix.emission_grid.dim3"]
camera_visible.channel[:].detector[:].geometry_matrix.voxels_n

Number of voxels defined in the voxel_map.

  • Data Type: INT_0D
camera_visible.channel[:].detector[:].geometry_matrix.with_reflections.data

The Ray Transfer Matrix (RTM, or geometry matrix) here provides transformation of the signal from each individual unit light source (voxel) to each pixel of the receiver (detector). The emission profile has [photons.m^-3.s^-1.sr^-1] units and radiance signal has [photons.m^-2.s^-1.sr^-1] units. So the RTM has [m] units. This data is stored in a sparse form, i.e. the array contains only the non-zero element of the Ray transfer matrix. The voxel index corresponding to an element of this array can be found in voxelindices. The pixel indices corresponding to an element of this array can be found in pixelindices

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].geometry_matrix.with_reflections.pixel_indices

List of pixel indices used in the sparse data array. The first dimension refers to the data array index. The second dimension lists the line index (horizontal axis) in first position, then the column index (vertical axis).

  • Data Type: INT_2D
  • Coordinates: ["camera_visible.channel[:].detector[:].geometry_matrix.with_reflections.data", "1...2"]
camera_visible.channel[:].detector[:].geometry_matrix.with_reflections.voxel_indices

List of voxel indices (defined in the voxel map) used in the sparse data array

  • Data Type: INT_1D
  • Coordinates: ["camera_visible.channel[:].detector[:].geometry_matrix.with_reflections.data"]
camera_visible.channel[:].detector[:].geometry_matrix.without_reflections.data

The Ray Transfer Matrix (RTM, or geometry matrix) here provides transformation of the signal from each individual unit light source (voxel) to each pixel of the receiver (detector). The emission profile has [photons.m^-3.s^-1.sr^-1] units and radiance signal has [photons.m^-2.s^-1.sr^-1] units. So the RTM has [m] units. This data is stored in a sparse form, i.e. the array contains only the non-zero element of the Ray transfer matrix. The voxel index corresponding to an element of this array can be found in voxelindices. The pixel indices corresponding to an element of this array can be found in pixelindices

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].geometry_matrix.without_reflections.pixel_indices

List of pixel indices used in the sparse data array. The first dimension refers to the data array index. The second dimension lists the line index (horizontal axis) in first position, then the column index (vertical axis).

  • Data Type: INT_2D
  • Coordinates: ["camera_visible.channel[:].detector[:].geometry_matrix.without_reflections.data", "1...2"]
camera_visible.channel[:].detector[:].geometry_matrix.without_reflections.voxel_indices

List of voxel indices (defined in the voxel map) used in the sparse data array

  • Data Type: INT_1D
  • Coordinates: ["camera_visible.channel[:].detector[:].geometry_matrix.without_reflections.data"]
camera_visible.channel[:].detector[:].lines_n

Number of pixel lines in the vertical direction

  • Data Type: INT_0D
camera_visible.channel[:].detector[:].noise

Detector noise (e.g. read-out noise) (rms counts per second exposure time)

  • Data Type: FLT_0D
camera_visible.channel[:].detector[:].pixel_to_alpha

Alpha angle of each pixel in the horizontal axis

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].pixel_to_beta

Beta angle of each pixel in the vertical axis

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].detector[:].wavelength_lower

Lower bound of the detector wavelength range

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].detector[:].wavelength_upper

Upper bound of the detector wavelength range

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.fibre_positions.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].fibre_bundle.fibre_positions.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].fibre_bundle.fibre_positions.x1"]
camera_visible.channel[:].fibre_bundle.fibre_radius

Radius of a single fibre

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
camera_visible.channel[:].fibre_bundle.geometry.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].fibre_bundle.geometry.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].fibre_bundle.geometry.outline.x1"]
camera_visible.channel[:].fibre_bundle.geometry.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].fibre_bundle.geometry.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].name

Name of the channel

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].back_surface.curvature_type.description

Verbose description

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].back_surface.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_visible.channel[:].optical_element[:].back_surface.curvature_type.name

Short string identifier

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].back_surface.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].back_surface.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].front_surface.curvature_type.description

Verbose description

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].front_surface.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_visible.channel[:].optical_element[:].front_surface.curvature_type.name

Short string identifier

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].front_surface.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].front_surface.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
camera_visible.channel[:].optical_element[:].geometry.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].optical_element[:].geometry.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].optical_element[:].geometry.outline.x1"]
camera_visible.channel[:].optical_element[:].geometry.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].geometry.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].material_properties.extinction_coefficient

Extinction coefficient (for metal)

  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].optical_element[:].material_properties.wavelengths"]
camera_visible.channel[:].optical_element[:].material_properties.refractive_index

Refractive index (for metal and dielectric)

  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].optical_element[:].material_properties.wavelengths"]
camera_visible.channel[:].optical_element[:].material_properties.roughness

Roughness parameter of the material. Varies in range [0, 1]. 0 is perfectly specular, 1 is perfectly rough

  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].optical_element[:].material_properties.wavelengths"]
camera_visible.channel[:].optical_element[:].material_properties.transmission_coefficient

Transmission coefficient (for dielectric)

  • Data Type: FLT_1D
  • Coordinates: ["camera_visible.channel[:].optical_element[:].material_properties.wavelengths"]
camera_visible.channel[:].optical_element[:].material_properties.type.description

Verbose description

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].material_properties.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_visible.channel[:].optical_element[:].material_properties.type.name

Short string identifier

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].material_properties.wavelengths

Wavelengths array for refractiveindex, extinctioncoefficient and transmission_coefficient

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_visible.channel[:].optical_element[:].thickness

Distance between frontsurface and backsurface along the X3 vector

  • Units: m
  • Data Type: FLT_0D
camera_visible.channel[:].optical_element[:].type.description

Verbose description

  • Data Type: STR_0D
camera_visible.channel[:].optical_element[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_visible.channel[:].optical_element[:].type.name

Short string identifier

  • Data Type: STR_0D
camera_visible.channel[:].viewing_angle_alpha_bounds

Minimum and maximum values of alpha angle of the field of view, where alpha is the agle between the axis X3 and projection of the chord of view on the plane X1X3 counted clockwise from the top view of X2 axis. X1, X2, X3 are the ones of the first aperture (i.e. the closest to the plasma).

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
camera_visible.channel[:].viewing_angle_beta_bounds

Minimum and maximum values of beta angle of the field of view, where beta is the angle between the axis X3 and projection of the chord of view on the plane X2X3 counted clockwise from the top view of X1 axis. X1, X2, X3 are the ones of the first aperture (i.e. the closest to the plasma).

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
camera_visible.code.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_visible.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_visible.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_visible.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_visible.code.library[:].name

Name of software

  • Data Type: STR_0D
camera_visible.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_visible.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
camera_visible.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_visible.code.name

Name of software generating IDS

  • Data Type: STR_0D
camera_visible.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["camera_visible.time"]
camera_visible.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_visible.code.repository

URL of software repository

  • Data Type: STR_0D
camera_visible.code.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_visible.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
camera_visible.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
camera_visible.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
camera_visible.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
camera_visible.ids_properties.occurrence

N/A

  • Data Type: INT_0D
camera_visible.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
camera_visible.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_visible.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
camera_visible.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_visible.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
camera_visible.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
camera_visible.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
camera_visible.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
camera_visible.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
camera_visible.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
camera_visible.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
camera_visible.name

Name of the camera

  • Data Type: STR_0D
camera_visible.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_x_rays.aperture.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_x_rays.aperture.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
camera_x_rays.aperture.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_x_rays.aperture.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_x_rays.aperture.outline.x1"]
camera_x_rays.aperture.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
camera_x_rays.aperture.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.aperture.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.camera_dimensions

Total camera dimension in each direction (x1, x2)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
camera_x_rays.camera.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_x_rays.camera.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.identifier

ID of the camera

  • Data Type: STR_0D
camera_x_rays.camera.line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.pixel_dimensions

Pixel dimension in each direction (x1, x2)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
camera_x_rays.camera.pixel_position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.pixel_position.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.pixel_position.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.camera.pixels_n

Number of pixels in each direction (x1, x2)

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
camera_x_rays.camera.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.camera.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.code.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_x_rays.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_x_rays.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_x_rays.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_x_rays.code.library[:].name

Name of software

  • Data Type: STR_0D
camera_x_rays.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_x_rays.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
camera_x_rays.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_x_rays.code.name

Name of software generating IDS

  • Data Type: STR_0D
camera_x_rays.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["camera_x_rays.time"]
camera_x_rays.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_x_rays.code.repository

URL of software repository

  • Data Type: STR_0D
camera_x_rays.code.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_x_rays.detector_humidity.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["camera_x_rays.detector_humidity.time"]
camera_x_rays.detector_humidity.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_x_rays.detector_temperature.data

Data

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["camera_x_rays.detector_temperature.time"]
camera_x_rays.detector_temperature.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_x_rays.energy_configuration_name

Name of the chosen energy configuration (energy detection threshold)

  • Data Type: STR_0D
camera_x_rays.energy_threshold_lower

Lower energy detection threshold on each pixel of the detector (photons are counted only if their energy is above this value)

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.exposure_time

Exposure time

  • Units: s
  • Data Type: FLT_0D
camera_x_rays.filter_window.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
camera_x_rays.filter_window.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.curvature_type.description

Verbose description

  • Data Type: STR_0D
camera_x_rays.filter_window.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_x_rays.filter_window.curvature_type.name

Short string identifier

  • Data Type: STR_0D
camera_x_rays.filter_window.geometry_type.description

Verbose description

  • Data Type: STR_0D
camera_x_rays.filter_window.geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_x_rays.filter_window.geometry_type.name

Short string identifier

  • Data Type: STR_0D
camera_x_rays.filter_window.identifier

ID of the filter

  • Data Type: STR_0D
camera_x_rays.filter_window.material.description

Verbose description

  • Data Type: STR_0D
camera_x_rays.filter_window.material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_x_rays.filter_window.material.name

Short string identifier

  • Data Type: STR_0D
camera_x_rays.filter_window.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_x_rays.filter_window.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["camera_x_rays.filter_window.outline.x1"]
camera_x_rays.filter_window.photon_absorption

Probability of absorbing a photon passing through the filter as a function of its wavelength

  • Data Type: FLT_1D
  • Coordinates: ["camera_x_rays.filter_window.wavelengths"]
camera_x_rays.filter_window.radius

Radius of the circle, used only if geometry_type/index = 2

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.surface

Surface of the filter, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
camera_x_rays.filter_window.thickness

Thickness of the filter window

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.wavelength_lower

Lower bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.wavelength_upper

Upper bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.wavelengths

Array of wavelength values

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_x_rays.filter_window.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x1_width

Full width of the filter in the X1 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x2_width

Full width of the filter in the X2 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.filter_window.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
camera_x_rays.frame[:].counts_n

Number of counts detected on each pixel during one exposure time. First dimension : line index (horizontal axis). Second dimension: column index (vertical axis).

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.frame[:].time

Time

  • Units: s
  • Data Type: FLT_0D
camera_x_rays.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
camera_x_rays.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
camera_x_rays.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
camera_x_rays.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
camera_x_rays.ids_properties.occurrence

N/A

  • Data Type: INT_0D
camera_x_rays.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
camera_x_rays.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
camera_x_rays.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
camera_x_rays.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
camera_x_rays.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
camera_x_rays.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
camera_x_rays.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
camera_x_rays.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
camera_x_rays.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
camera_x_rays.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
camera_x_rays.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
camera_x_rays.name

Name of the camera

  • Data Type: STR_0D
camera_x_rays.photon_energy

List of values of the photon energy (coordinate for quantum_effiency)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
camera_x_rays.pixel_status

Status of each pixel : +1 for valid pixels, -1 for inactive pixels, -2 for mis-calibrated pixels.

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
camera_x_rays.quantum_efficiency

Quantum efficiency of the detector, i.e. conversion factor multiplying the number of counts to obtain the number of photons impacting the detector, tabulated as a function of the photon energy, for each pixel of the detector. If all pixels have the same quantum efficiency, just set the size of the first and second dimensions to 1

  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "camera_x_rays.photon_energy"]
camera_x_rays.readout_time

Time used to read out each frame on the detector

  • Units: s
  • Data Type: FLT_0D
camera_x_rays.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.aperture.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
charge_exchange.aperture.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
charge_exchange.aperture.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.aperture.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.aperture.outline.x1"]
charge_exchange.aperture.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
charge_exchange.aperture.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.aperture.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
charge_exchange.channel[:].bes.a

Mass of atom of the diagnostic neutral beam particle

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].bes.doppler_shift.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].bes.doppler_shift.time"]
charge_exchange.channel[:].bes.doppler_shift.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].bes.label

String identifying the diagnostic neutral beam particle

  • Data Type: STR_0D
charge_exchange.channel[:].bes.lorentz_shift.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].bes.lorentz_shift.time"]
charge_exchange.channel[:].bes.lorentz_shift.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].bes.radiances.data

Data

  • Units: (photons) m^-2.s^-1.sr^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "charge_exchange.channel[:].bes.radiances.time"]
charge_exchange.channel[:].bes.radiances.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].bes.transition_wavelength

Unshifted wavelength of the BES transition

  • Units: m
  • Data Type: FLT_0D
charge_exchange.channel[:].bes.z_ion

Ion charge of the diagnostic neutral beam particle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].bes.z_n

Nuclear charge of the diagnostic neutral beam particle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].a

Mass of atom of the ion

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].ion[:].label

String identifying the ion (e.g. H+, D+, T+, He+2, C+6, ...)

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].n_i_over_n_e.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].ion[:].n_i_over_n_e.time"]
charge_exchange.channel[:].ion[:].n_i_over_n_e.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].ion[:].n_i_over_n_e_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].n_i_over_n_e_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].ion[:].n_i_over_n_e_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].t_i.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].ion[:].t_i.time"]
charge_exchange.channel[:].ion[:].t_i.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].ion[:].t_i_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].t_i_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].ion[:].t_i_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].velocity_pol.data

Data

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].ion[:].velocity_pol.time"]
charge_exchange.channel[:].ion[:].velocity_pol.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].ion[:].velocity_pol_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].velocity_pol_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].ion[:].velocity_pol_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].velocity_tor.data

Data

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].ion[:].velocity_tor.time"]
charge_exchange.channel[:].ion[:].velocity_tor.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].ion[:].velocity_tor_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].velocity_tor_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].ion[:].velocity_tor_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].ion[:].z_ion

Ion charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].ion[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].ion_fast[:].a

Mass of atom of the fast ion

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].ion_fast[:].label

String identifying the fast ion (e.g. H+, D+, T+, He+2, C+6, ...)

  • Data Type: STR_0D
charge_exchange.channel[:].ion_fast[:].radiance.data

Data

  • Units: (photons) m^-2.s^-1.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].ion_fast[:].radiance.time"]
charge_exchange.channel[:].ion_fast[:].radiance.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].ion_fast[:].radiance_spectral_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].ion_fast[:].radiance_spectral_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].ion_fast[:].radiance_spectral_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].ion_fast[:].transition_wavelength

Unshifted wavelength of the fast ion charge exchange transition

  • Units: m
  • Data Type: FLT_0D
charge_exchange.channel[:].ion_fast[:].z_ion

Fast ion charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].ion_fast[:].z_n

Nuclear charge of the fast ion

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
charge_exchange.channel[:].momentum_tor.data

Data

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].momentum_tor.time"]
charge_exchange.channel[:].momentum_tor.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].momentum_tor_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].momentum_tor_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].momentum_tor_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].name

Name of the channel

  • Data Type: STR_0D
charge_exchange.channel[:].position.phi.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].position.phi.time"]
charge_exchange.channel[:].position.phi.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].position.r.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].position.r.time"]
charge_exchange.channel[:].position.r.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].position.z.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].position.z.time"]
charge_exchange.channel[:].position.z.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].exposure_time

Exposure time

  • Units: s
  • Data Type: FLT_0D
charge_exchange.channel[:].spectrum[:].grating

Number of grating lines per unit length

  • Units: m^-1
  • Data Type: FLT_0D
charge_exchange.channel[:].spectrum[:].instrument_function

Array of Gaussian widths and amplitudes which as a sum make up the instrument fuction. IF(lambda) = sum( instrumentfunction(1,i)/sqrt(2 * pi * instrumentfunction(2,i)^2 ) * exp( -lambda^2/(2 * instrumentfunction(2,i)^2) ) ),whereby sum( instrumentfunction(1,i) ) = 1

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "1...N"]
charge_exchange.channel[:].spectrum[:].intensity_spectrum.data

Data

  • Units: (photoelectrons).s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "charge_exchange.channel[:].spectrum[:].intensity_spectrum.time"]
charge_exchange.channel[:].spectrum[:].intensity_spectrum.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].processed_line[:].intensity.data

Data

  • Units: (photonelectrons).s^-1
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].spectrum[:].processed_line[:].intensity.time"]
charge_exchange.channel[:].spectrum[:].processed_line[:].intensity.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].processed_line[:].label

String identifying the processed spectral line: Spectroscopy notation emitting element (e.g. D I, Be IV, W I, C VI), transition - if known - between round brackets (e.g. (3-2) ) and indication type of charge exchange - if applicable - between square brackets (e.g. [ACX] or [PCX]). Example for beryllium active charge exchange line at 468.5 nm: 'Be IV (8-6) [ACX]'. Example for impact excitation tungsten line coming from the plasma edge: 'W I'

  • Data Type: STR_0D
charge_exchange.channel[:].spectrum[:].processed_line[:].radiance.data

Data

  • Units: m^-2.s^-1.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].spectrum[:].processed_line[:].radiance.time"]
charge_exchange.channel[:].spectrum[:].processed_line[:].radiance.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].processed_line[:].shift.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].spectrum[:].processed_line[:].shift.time"]
charge_exchange.channel[:].spectrum[:].processed_line[:].shift.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].processed_line[:].wavelength_central

Unshifted central wavelength of the processed spectral line

  • Units: m
  • Data Type: FLT_0D
charge_exchange.channel[:].spectrum[:].processed_line[:].width.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].spectrum[:].processed_line[:].width.time"]
charge_exchange.channel[:].spectrum[:].processed_line[:].width.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].radiance_calibration

Radiance calibration

  • Units: m^-3.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].spectrum[:].wavelengths"]
charge_exchange.channel[:].spectrum[:].radiance_calibration_date

Date of the radiance calibration (yyyymmdd)

  • Data Type: STR_0D
charge_exchange.channel[:].spectrum[:].radiance_continuum.data

Data

  • Units: m^-2.s^-1.sr^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "charge_exchange.channel[:].spectrum[:].radiance_continuum.time"]
charge_exchange.channel[:].spectrum[:].radiance_continuum.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].radiance_spectral.data

Data

  • Units: (photons) m^-2.s^-1.sr^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "charge_exchange.channel[:].spectrum[:].radiance_spectral.time"]
charge_exchange.channel[:].spectrum[:].radiance_spectral.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].spectrum[:].slit_width

Width of the slit (placed in the object focal plane)

  • Units: m
  • Data Type: FLT_0D
charge_exchange.channel[:].spectrum[:].wavelength_calibration_date

Date of the wavelength calibration (yyyymmdd)

  • Data Type: STR_0D
charge_exchange.channel[:].spectrum[:].wavelengths

Measured wavelengths

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].t_i_average.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].t_i_average.time"]
charge_exchange.channel[:].t_i_average.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].t_i_average_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].t_i_average_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].t_i_average_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].zeff.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].zeff.time"]
charge_exchange.channel[:].zeff.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].zeff_line_average.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["charge_exchange.channel[:].zeff_line_average.time"]
charge_exchange.channel[:].zeff_line_average.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
charge_exchange.channel[:].zeff_line_average_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].zeff_line_average_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].zeff_line_average_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.channel[:].zeff_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.channel[:].zeff_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.channel[:].zeff_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.code.commit

Unique commit reference of software

  • Data Type: STR_0D
charge_exchange.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
charge_exchange.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
charge_exchange.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
charge_exchange.code.library[:].name

Name of software

  • Data Type: STR_0D
charge_exchange.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
charge_exchange.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
charge_exchange.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
charge_exchange.code.name

Name of software generating IDS

  • Data Type: STR_0D
charge_exchange.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["charge_exchange.time"]
charge_exchange.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
charge_exchange.code.repository

URL of software repository

  • Data Type: STR_0D
charge_exchange.code.version

Unique version (tag) of software

  • Data Type: STR_0D
charge_exchange.etendue

Etendue (geometric extent) of the optical system

  • Units: m^2.str
  • Data Type: FLT_0D
charge_exchange.etendue_method.description

Verbose description

  • Data Type: STR_0D
charge_exchange.etendue_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.etendue_method.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
charge_exchange.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
charge_exchange.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
charge_exchange.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
charge_exchange.ids_properties.occurrence

N/A

  • Data Type: INT_0D
charge_exchange.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
charge_exchange.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
charge_exchange.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
charge_exchange.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
charge_exchange.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
charge_exchange.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
charge_exchange.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
charge_exchange.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
charge_exchange.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
charge_exchange.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
charge_exchange.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
charge_exchange.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
coils_non_axisymmetric.code.commit

Unique commit reference of software

  • Data Type: STR_0D
coils_non_axisymmetric.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
coils_non_axisymmetric.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
coils_non_axisymmetric.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
coils_non_axisymmetric.code.library[:].name

Name of software

  • Data Type: STR_0D
coils_non_axisymmetric.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
coils_non_axisymmetric.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
coils_non_axisymmetric.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
coils_non_axisymmetric.code.name

Name of software generating IDS

  • Data Type: STR_0D
coils_non_axisymmetric.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["coils_non_axisymmetric.time"]
coils_non_axisymmetric.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
coils_non_axisymmetric.code.repository

URL of software repository

  • Data Type: STR_0D
coils_non_axisymmetric.code.version

Unique version (tag) of software

  • Data Type: STR_0D
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].area

Area of the conductor cross-section, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].height

Full height of the rectangle in the binormal direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].outline.binormal

Coordinates along the binormal axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].outline.normal"]
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].outline.normal

Coordinate along the normal axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].radius_inner

Inner radius of the annulus, used only if geometry_type/index = 5

  • Units: m
  • Data Type: FLT_0D
coils_non_axisymmetric.coil[:].conductor[:].cross_section[:].width

Full width of the rectangle or square in the normal direction, when geometrytype/index = 3 or 4. Diameter of the circle when geometrytype/index = 2. Outer diameter of the annulus in case geometry_type/index = 5

  • Units: m
  • Data Type: FLT_0D
coils_non_axisymmetric.coil[:].conductor[:].elements.centres.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.centres.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.centres.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.end_points.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.end_points.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.end_points.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.intermediate_points.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.intermediate_points.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.intermediate_points.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.start_points.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.start_points.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.start_points.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].elements.types"]
coils_non_axisymmetric.coil[:].conductor[:].elements.types

Type of every element: 1: line segment, its ends are given by the start and end points; index = 2: arc of a circle; index = 3: full circle

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
coils_non_axisymmetric.coil[:].conductor[:].resistance

conductor resistance

  • Units: Ohm
  • Data Type: FLT_0D
coils_non_axisymmetric.coil[:].conductor[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].conductor[:].voltage.time"]
coils_non_axisymmetric.coil[:].conductor[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
coils_non_axisymmetric.coil[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].current.time"]
coils_non_axisymmetric.coil[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
coils_non_axisymmetric.coil[:].identifier

Alphanumeric identifier of coil

  • Data Type: STR_0D
coils_non_axisymmetric.coil[:].name

Name of the coil

  • Data Type: STR_0D
coils_non_axisymmetric.coil[:].resistance

Coil resistance

  • Units: Ohm
  • Data Type: FLT_0D
coils_non_axisymmetric.coil[:].turns

Number of total turns in the coil. May be a fraction when describing the coil connections.

  • Data Type: FLT_0D
coils_non_axisymmetric.coil[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["coils_non_axisymmetric.coil[:].voltage.time"]
coils_non_axisymmetric.coil[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
coils_non_axisymmetric.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
coils_non_axisymmetric.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.occurrence

N/A

  • Data Type: INT_0D
coils_non_axisymmetric.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
coils_non_axisymmetric.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
coils_non_axisymmetric.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
coils_non_axisymmetric.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
coils_non_axisymmetric.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
coils_non_axisymmetric.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.code.commit

Unique commit reference of software

  • Data Type: STR_0D
controllers.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
controllers.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
controllers.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
controllers.code.library[:].name

Name of software

  • Data Type: STR_0D
controllers.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
controllers.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
controllers.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
controllers.code.name

Name of software generating IDS

  • Data Type: STR_0D
controllers.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["controllers.time"]
controllers.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
controllers.code.repository

URL of software repository

  • Data Type: STR_0D
controllers.code.version

Unique version (tag) of software

  • Data Type: STR_0D
controllers.controllability_metrics[:].data

Array of scalar metrics in time

  • Data Type: FLT_1D
controllers.controllability_metrics[:].identifier.description

Verbose description

  • Data Type: STR_0D
controllers.controllability_metrics[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
controllers.controllability_metrics[:].identifier.name

Short string identifier

  • Data Type: STR_0D
controllers.controllability_metrics[:].time

Controlability metric time

  • Units: s
  • Data Type: FLT_1D
controllers.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
controllers.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
controllers.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
controllers.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
controllers.ids_properties.occurrence

N/A

  • Data Type: INT_0D
controllers.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
controllers.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
controllers.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
controllers.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
controllers.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
controllers.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
controllers.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
controllers.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
controllers.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
controllers.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
controllers.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
controllers.linear_controller[:].controller_class

One of a known class of controllers

  • Data Type: STR_0D
controllers.linear_controller[:].description

Description of this controller

  • Data Type: STR_0D
controllers.linear_controller[:].input_names

Names of the input signals, following the SDN convention

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].inputs.data

Data

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "controllers.linear_controller[:].inputs.time"]
controllers.linear_controller[:].inputs.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].name

Name of this controller

  • Data Type: STR_0D
controllers.linear_controller[:].output_names

Names of the output signals following the SDN convention

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].outputs.data

Data

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "controllers.linear_controller[:].outputs.time"]
controllers.linear_controller[:].outputs.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].pid.d.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["controllers.linear_controller[:].output_names", "controllers.linear_controller[:].input_names", "controllers.linear_controller[:].pid.d.time"]
controllers.linear_controller[:].pid.d.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].pid.i.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["controllers.linear_controller[:].output_names", "controllers.linear_controller[:].input_names", "controllers.linear_controller[:].pid.i.time"]
controllers.linear_controller[:].pid.i.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].pid.p.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["controllers.linear_controller[:].output_names", "controllers.linear_controller[:].input_names", "controllers.linear_controller[:].pid.p.time"]
controllers.linear_controller[:].pid.p.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].pid.tau.data

Data

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["controllers.linear_controller[:].pid.tau.time"]
controllers.linear_controller[:].pid.tau.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].statespace.a.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["controllers.linear_controller[:].statespace.state_names", "controllers.linear_controller[:].statespace.state_names", "controllers.linear_controller[:].statespace.a.time"]
controllers.linear_controller[:].statespace.a.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].statespace.b.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["controllers.linear_controller[:].statespace.state_names", "controllers.linear_controller[:].input_names", "controllers.linear_controller[:].statespace.b.time"]
controllers.linear_controller[:].statespace.b.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].statespace.c.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["controllers.linear_controller[:].statespace.state_names", "controllers.linear_controller[:].output_names", "controllers.linear_controller[:].statespace.c.time"]
controllers.linear_controller[:].statespace.c.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].statespace.d.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["controllers.linear_controller[:].statespace.state_names", "controllers.linear_controller[:].output_names", "controllers.linear_controller[:].statespace.d.time"]
controllers.linear_controller[:].statespace.d.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].statespace.deltat.data

Data

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["controllers.linear_controller[:].statespace.deltat.time"]
controllers.linear_controller[:].statespace.deltat.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.linear_controller[:].statespace.state_names

Names of the states

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
controllers.nonlinear_controller[:].controller_class

One of a known class of controllers

  • Data Type: STR_0D
controllers.nonlinear_controller[:].description

Description of this controller

  • Data Type: STR_0D
controllers.nonlinear_controller[:].function

Method to be defined

  • Data Type: STR_0D
controllers.nonlinear_controller[:].input_names

Names of the input signals, following the SDN convention

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
controllers.nonlinear_controller[:].inputs.data

Data

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "controllers.nonlinear_controller[:].inputs.time"]
controllers.nonlinear_controller[:].inputs.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.nonlinear_controller[:].name

Name of this controller

  • Data Type: STR_0D
controllers.nonlinear_controller[:].output_names

Output signal names following the SDN convention

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
controllers.nonlinear_controller[:].outputs.data

Data

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "controllers.nonlinear_controller[:].outputs.time"]
controllers.nonlinear_controller[:].outputs.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
controllers.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].identifier.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].identifier.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].conductivity_parallel

Parallel conductivity

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].current_parallel_inside

Parallel current driven inside the flux surface. Cumulative surface integral of j_total

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].e_field.diamagnetic

Diamagnetic component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].e_field.parallel

Parallel component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].e_field.poloidal

Poloidal component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].e_field.radial

Radial component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].e_field.toroidal

Toroidal component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.collisionality_norm

Collisionality normalised to the bounce frequency

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.density_validity

Indicator of the validity of the density profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].electrons.pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].electrons.temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].electrons.temperature_validity

Indicator of the validity of the temperature profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].density_validity

Indicator of the validity of the density profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].pressure

Pressure (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken) (average over charge states when multiple charge states are considered)

  • Units: rad.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].ionisation_potential

Cumulative and average ionisation potential to reach a given bundle. Defined as sum (xz* (sum of Epot from z'=0 to z-1)), where Epot is the ionisation potential of ion Xz’+, and xz is the relative concentration of a given charge state in the bundle, i.e. sum(x_z) = 1 over the bundle.

  • Units: eV
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].label

String identifying state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken)

  • Units: rad.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].z_average

Average Z of the charge state bundle, volume averaged over the plasma radius (equal to zmin if no bundle), = sum (Z*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].z_average_1d

Average charge profile of the charge state bundle (equal to zmin if no bundle), = sum (Z*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].z_average_square_1d

Average square charge profile of the charge state bundle (equal to zmin squared if no bundle), = sum (Z^2*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].state[:].z_square_average

Average Z square of the charge state bundle, volume averaged over the plasma radius (equal to zmin squared if no bundle), = sum (Z^2*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].ion[:].temperature_validity

Indicator of the validity of the temperature profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].velocity.diamagnetic

Diamagnetic component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].velocity.parallel

Parallel component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].velocity.poloidal

Poloidal component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].velocity.radial

Radial component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].velocity.toroidal

Toroidal component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed), volume averaged over plasma radius

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].ion[:].z_ion_1d

Average charge of the ion species (sum of states charge weighted by state density and divided by ion density)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].ion[:].z_ion_square_1d

Average square charge of the ion species (sum of states square charge weighted by state density and divided by ion density)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].j_bootstrap

Bootstrap current density = average(JBootstrap.B) / B0, where B0 = CoreProfiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].j_non_inductive

Non-inductive (includes bootstrap) parallel current density = average(jni.B) / B0, where B0 = CoreProfiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].j_ohmic

Ohmic parallel current density = average(JOhmic.B) / B0, where B0 = CoreProfiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].j_tor

Total toroidal current density = average(J_Tor/R) / average(1/R)

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].j_total

Total parallel current density = average(jtot.B) / B0, where B0 = CoreProfiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].magnetic_shear

Magnetic shear, defined as rhotor/q . dq/drhotor

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].momentum_tor

Total plasma toroidal momentum, summed over ion species and electrons weighted by their density and major radius, i.e. sumoverspecies(nRm*Vphi)

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].n_i_thermal_total

Total ion thermal density (sum over species and charge states)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].label

String identifying the species (e.g. H, D, T, He, C, D2, DT, CD4, ...)

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].pressure

Pressure (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].neutral[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].phi_potential

Electrostatic potential, averaged on the magnetic flux surface

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].pressure_ion_total

Total (sum over ion species) thermal ion pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].pressure_parallel

Total parallel pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].pressure_perpendicular

Total perpendicular pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].pressure_thermal

Thermal pressure (electrons+ions)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].q

Safety factor (IMAS uses COCOS=11: only positive when toroidal current and magnetic field are in same direction)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].rotation_frequency_tor_sonic

Derivative of the flux surface averaged electrostatic potential with respect to the poloidal flux, multiplied by -1. This quantity is the toroidal angular rotation frequency due to the ExB drift, introduced in formula (43) of Hinton and Wong, Physics of Fluids 3082 (1985), also referred to as sonic flow in regimes in which the toroidal velocity is dominant over the poloidal velocity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].t_i_average

Ion temperature (averaged on charge states and ion species)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].t_i_average_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
core_instant_changes.change[:].profiles_1d[:].zeff

Effective charge

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].grid.rho_tor_norm"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured

Measured values

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].zeff_fit.reconstructed

Value reconstructed from the fit

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].zeff_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.change[:].profiles_1d[:].zeff_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.change[:].profiles_1d[:].zeff_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.change[:].profiles_1d[:].zeff_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.change[:].profiles_1d[:].zeff_fit.measured"]
core_instant_changes.code.commit

Unique commit reference of software

  • Data Type: STR_0D
core_instant_changes.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_instant_changes.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_instant_changes.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_instant_changes.code.library[:].name

Name of software

  • Data Type: STR_0D
core_instant_changes.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
core_instant_changes.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_instant_changes.code.name

Name of software generating IDS

  • Data Type: STR_0D
core_instant_changes.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["core_instant_changes.time"]
core_instant_changes.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.code.repository

URL of software repository

  • Data Type: STR_0D
core_instant_changes.code.version

Unique version (tag) of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
core_instant_changes.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
core_instant_changes.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
core_instant_changes.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
core_instant_changes.ids_properties.occurrence

N/A

  • Data Type: INT_0D
core_instant_changes.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
core_instant_changes.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_instant_changes.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
core_instant_changes.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_instant_changes.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
core_instant_changes.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
core_instant_changes.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
core_instant_changes.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
core_instant_changes.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
core_instant_changes.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
core_instant_changes.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_instant_changes.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["core_instant_changes.time"]
core_instant_changes.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
core_profiles.code.commit

Unique commit reference of software

  • Data Type: STR_0D
core_profiles.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_profiles.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_profiles.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_profiles.code.library[:].name

Name of software

  • Data Type: STR_0D
core_profiles.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_profiles.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
core_profiles.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_profiles.code.name

Name of software generating IDS

  • Data Type: STR_0D
core_profiles.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_profiles.code.repository

URL of software repository

  • Data Type: STR_0D
core_profiles.code.version

Unique version (tag) of software

  • Data Type: STR_0D
core_profiles.covariance.data

Covariance matrix

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.covariance.rows_uri", "core_profiles.covariance.rows_uri"]
core_profiles.covariance.description

Description of this covariance matrix

  • Data Type: STR_0D
core_profiles.covariance.rows_uri

List of URIs corresponding to the rows (1st dimension) of the covariance matrix. If not all indices of a given node are used, they must be listed explicitly e.g. rowsuri(i) = pfactive:1/coil(i) will refer to a list of indices of the occurrence 1 of the pfactive IDS of this data entry. If the rows correspond to all indices of a given vector it is sufficient to give a single URI where this vector is denoted using the (:) implicit notation, e.g. rowsuri(1) = /gridggd(3)/gridsubset(2)/elements(:).

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
core_profiles.global_quantities.beta_pol

Poloidal beta. Defined as betap = 4 int(p dV) / [R0 * mu0 * Ip^2]

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.beta_tor

Toroidal beta, defined as the volume-averaged total perpendicular pressure divided by (B0^2/(2*mu0)), i.e. beta_toroidal = 2 mu0 int(p dV) / V / B0^2

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.beta_tor_norm

Normalised toroidal beta, defined as 100 * beta_tor * a[m] * B0 [T] / ip [MA]

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.current_bootstrap

Bootstrap current (toroidal component). Positive sign means anti-clockwise when viewed from above.

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.current_non_inductive

Total non-inductive current (toroidal component). Positive sign means anti-clockwise when viewed from above.

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.current_ohmic

Ohmic current (toroidal component). Positive sign means anti-clockwise when viewed from above.

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.ejima

Ejima coefficient : resistive psi losses divided by (mu0RIp). See S. Ejima et al, Nuclear Fusion, Vol.22, No.10 (1982), 1313

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.energy_diamagnetic

Plasma energy content = 3/2 * integral over the plasma volume of the total perpendicular pressure

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.ion[:].n_i_volume_average

Volume averaged density of this ion species (averaged over the plasma volume up to the LCFS)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.ion[:].t_i_volume_average

Volume averaged temperature of this ion species (averaged over the plasma volume up to the LCFS)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.ion_time_slice

Time slice of the profiles1d array used to define the ion composition of the globalquantities/ion array.

  • Units: s
  • Data Type: FLT_0D
core_profiles.global_quantities.ip

Total plasma current (toroidal component). Positive sign means anti-clockwise when viewed from above.

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.li_3

Internal inductance. The li3 definition is used, i.e. li3 = 2/R0/mu0^2/Ip^2 * int(Bp^2 dV).

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.n_e_volume_average

Volume averaged electron density (average over the plasma volume up to the LCFS)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.polarized_fuel_fraction

N/A

  • Data Type: FLT_0D
core_profiles.global_quantities.resistive_psi_losses

Resistive part of the poloidal flux losses, defined as the volume-averaged scalar product of the electric field and the ohmic current density, normalized by the plasma current and integrated in time from the beginning of the plasma discharge: int ( (int(Efieldtor.johmtor) dV) / Ip ) dt)

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.t_e_peaking

Electron temperature peaking factor, defined as the Te value at the magnetic axis divided by the volume averaged Te (average over the plasma volume up to the LCFS)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.t_e_volume_average

Volume averaged electron temperature (average over the plasma volume up to the LCFS)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.t_i_average_peaking

Ion temperature (averaged over ion species and states) peaking factor, defined as the Ti value at the magnetic axis divided by the volume averaged Ti (average over the plasma volume up to the LCFS)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.v_loop

LCFS loop voltage (positive value drives positive ohmic current that flows anti-clockwise when viewed from above)

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.global_quantities.z_eff_resistive

Volume average plasma effective charge, estimated from the flux consumption in the ohmic phase

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
core_profiles.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
core_profiles.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
core_profiles.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
core_profiles.ids_properties.occurrence

N/A

  • Data Type: INT_0D
core_profiles.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
core_profiles.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
core_profiles.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_profiles.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
core_profiles.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
core_profiles.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
core_profiles.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
core_profiles.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
core_profiles.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
core_profiles.profiles_1d[:].conductivity_parallel

Parallel conductivity

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].current_parallel_inside

Parallel current driven inside the flux surface. Cumulative surface integral of j_total

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].e_field.diamagnetic

Diamagnetic component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].e_field.parallel

Parallel component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].e_field.poloidal

Poloidal component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].e_field.radial

Radial component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].e_field.toroidal

Toroidal component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.collisionality_norm

Collisionality normalised to the bounce frequency

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].electrons.density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_profiles.profiles_1d[:].electrons.density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].electrons.density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].electrons.density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].electrons.density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.density_fit.measured"]
core_profiles.profiles_1d[:].electrons.density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.density_validity

Indicator of the validity of the density profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_profiles.profiles_1d[:].electrons.pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].electrons.temperature_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].electrons.temperature_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_profiles.profiles_1d[:].electrons.temperature_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
core_profiles.profiles_1d[:].electrons.temperature_validity

Indicator of the validity of the temperature profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_profiles.profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].grid.psi_norm

Normalized poloidal magnetic flux

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].ion[:].density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].density_validity

Indicator of the validity of the density profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].pressure

Pressure (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken) (average over charge states when multiple charge states are considered)

  • Units: rad.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
core_profiles.profiles_1d[:].ion[:].state[:].density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].state[:].ionisation_potential

Cumulative and average ionisation potential to reach a given bundle. Defined as sum (xz* (sum of Epot from z'=0 to z-1)), where Epot is the ionisation potential of ion Xz’+, and xz is the relative concentration of a given charge state in the bundle, i.e. sum(x_z) = 1 over the bundle.

  • Units: eV
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].state[:].label

String identifying state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].state[:].pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken)

  • Units: rad.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].state[:].z_average

Average Z of the charge state bundle, volume averaged over the plasma radius (equal to zmin if no bundle), = sum (Z*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].state[:].z_average_1d

Average charge profile of the charge state bundle (equal to zmin if no bundle), = sum (Z*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].z_average_square_1d

Average square charge profile of the charge state bundle (equal to zmin squared if no bundle), = sum (Z^2*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].state[:].z_square_average

Average Z square of the charge state bundle, volume averaged over the plasma radius (equal to zmin squared if no bundle), = sum (Z^2*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].temperature_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
core_profiles.profiles_1d[:].ion[:].temperature_validity

Indicator of the validity of the temperature profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
core_profiles.profiles_1d[:].ion[:].velocity.diamagnetic

Diamagnetic component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].velocity.parallel

Parallel component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].velocity.poloidal

Poloidal component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].velocity.radial

Radial component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].velocity.toroidal

Toroidal component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed), volume averaged over plasma radius

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].ion[:].z_ion_1d

Average charge of the ion species (sum of states charge weighted by state density and divided by ion density)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].ion[:].z_ion_square_1d

Average square charge of the ion species (sum of states square charge weighted by state density and divided by ion density)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].j_bootstrap

Bootstrap current density = average(JBootstrap.B) / B0, where B0 = CoreProfiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].j_non_inductive

Non-inductive (includes bootstrap) parallel current density = average(jni.B) / B0, where B0 = CoreProfiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].j_ohmic

Ohmic parallel current density = average(JOhmic.B) / B0, where B0 = CoreProfiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].j_tor

Total toroidal current density = average(J_Tor/R) / average(1/R)

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].j_total

Total parallel current density = average(jtot.B) / B0, where B0 = CoreProfiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].magnetic_shear

Magnetic shear, defined as rhotor/q . dq/drhotor

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].momentum_tor

Total plasma toroidal momentum, summed over ion species and electrons weighted by their density and major radius, i.e. sumoverspecies(nRm*Vphi)

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].n_i_thermal_total

Total ion thermal density (sum over species and charge states)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_profiles.profiles_1d[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
core_profiles.profiles_1d[:].neutral[:].label

String identifying the species (e.g. H, D, T, He, C, D2, DT, CD4, ...)

  • Data Type: STR_0D
core_profiles.profiles_1d[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
core_profiles.profiles_1d[:].neutral[:].pressure

Pressure (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_profiles.profiles_1d[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
core_profiles.profiles_1d[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].neutral[:].state[:].pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_profiles.profiles_1d[:].neutral[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].phi_potential

Electrostatic potential, averaged on the magnetic flux surface

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].pressure

Total pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].pressure_ion_total

Total (sum over ion species) thermal ion pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].pressure_parallel

Total parallel pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].pressure_perpendicular

Total perpendicular pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].pressure_thermal

Thermal pressure (electrons+ions)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].q

Safety factor (IMAS uses COCOS=11: only positive when toroidal current and magnetic field are in same direction)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].rotation_frequency_tor_sonic

Derivative of the flux surface averaged electrostatic potential with respect to the poloidal flux, multiplied by -1. This quantity is the toroidal angular rotation frequency due to the ExB drift, introduced in formula (43) of Hinton and Wong, Physics of Fluids 3082 (1985), also referred to as sonic flow in regimes in which the toroidal velocity is dominant over the poloidal velocity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].t_i_average

Ion temperature (averaged on charge states and ion species)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].t_i_average_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].t_i_average_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].t_i_average_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].t_i_average_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_profiles.profiles_1d[:].t_i_average_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].t_i_average_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].t_i_average_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].t_i_average_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].t_i_average_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].t_i_average_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].t_i_average_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].t_i_average_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].t_i_average_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].t_i_average_fit.measured"]
core_profiles.profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
core_profiles.profiles_1d[:].zeff

Effective charge

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].grid.rho_tor_norm"]
core_profiles.profiles_1d[:].zeff_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_1d[:].zeff_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_1d[:].zeff_fit.measured

Measured values

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_1d[:].zeff_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
core_profiles.profiles_1d[:].zeff_fit.reconstructed

Value reconstructed from the fit

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_1d[:].zeff_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_1d[:].zeff_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_1d[:].zeff_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_1d[:].zeff_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_1d[:].zeff_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_1d[:].zeff_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_1d[:].zeff_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_1d[:].zeff_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.profiles_1d[:].zeff_fit.measured"]
core_profiles.profiles_2d[:].grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_2d[:].grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.profiles_2d[:].grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].grid_type.description

Verbose description

  • Data Type: STR_0D
core_profiles.profiles_2d[:].grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.profiles_2d[:].grid_type.name

Short string identifier

  • Data Type: STR_0D
core_profiles.profiles_2d[:].ion[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_profiles.profiles_2d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].ion_index

Index of the corresponding ion species in the ../../../profiles_1d/ion array

  • Data Type: INT_0D
core_profiles.profiles_2d[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
core_profiles.profiles_2d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
core_profiles.profiles_2d[:].ion[:].pressure

Pressure (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken) (average over charge states when multiple charge states are considered)

  • Units: rad.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_profiles.profiles_2d[:].ion[:].state[:].ionisation_potential

Cumulative and average ionisation potential to reach a given bundle. Defined as sum (xz* (sum of Epot from z'=0 to z-1)), where Epot is the ionisation potential of ion Xz’+, and xz is the relative concentration of a given charge state in the bundle, i.e. sum(x_z) = 1 over the bundle.

  • Units: eV
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].state[:].label

String identifying state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
core_profiles.profiles_2d[:].ion[:].state[:].pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken)

  • Units: rad.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].temperature

Temperature

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_profiles.profiles_2d[:].ion[:].state[:].z_average

Average Z of the charge state bundle, volume averaged over the plasma radius (equal to zmin if no bundle), = sum (Z*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].state[:].z_square_average

Average Z square of the charge state bundle, volume averaged over the plasma radius (equal to zmin squared if no bundle), = sum (Z^2*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].ion[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].velocity.diamagnetic

Diamagnetic component

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].velocity.parallel

Parallel component

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].velocity.poloidal

Poloidal component

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].velocity.radial

Radial component

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].velocity.toroidal

Toroidal component

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed), volume averaged over plasma radius

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].momentum_tor

Total plasma toroidal momentum, summed over ion species and electrons weighted by their density and major radius, i.e. sumoverspecies(nRm*Vphi)

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].n_i_thermal_total

Total ion thermal density (sum over species and charge states)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].pressure_ion_total

Total (sum over ion species) thermal ion pressure

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].pressure_parallel

Total parallel pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].pressure_perpendicular

Total perpendicular pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].pressure_thermal

Thermal pressure (electrons+ions)

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].t_i_average

Ion temperature (averaged on states and ion species)

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.profiles_2d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
core_profiles.profiles_2d[:].zeff

Effective charge

  • Data Type: FLT_2D
  • Coordinates: ["core_profiles.profiles_2d[:].grid.dim1", "core_profiles.profiles_2d[:].grid.dim2"]
core_profiles.statistics[:].quantity_2d[:].distribution.bins

Bins of quantitiy values, defined for each element (first dimension) corresponding to the first dimension of the original 2D quantity

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
core_profiles.statistics[:].quantity_2d[:].distribution.probability

Probability to have a value of the quantity between bins(n) and bins(n+1) (thus the size of its second dimension is the size of the second dimension of the bins array - 1). The first dimension correspond to the first dimension of the original 2D quantity

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
core_profiles.statistics[:].quantity_2d[:].path

Path of the quantity within the IDS, following the syntax given in the link below

  • Data Type: STR_0D
core_profiles.statistics[:].quantity_2d[:].statistics_type[:].grid_index

Only if the statistics value is given on a different GGD grid subset than the original quantity (e.g. if the statistics has worked over a dimension of the GGD), index of the grid used to represent the statistics value

  • Data Type: INT_0D
core_profiles.statistics[:].quantity_2d[:].statistics_type[:].grid_subset_index

Only if the statistics value is given on a different GGD grid subset than the original quantity (e.g. if the statistics has worked over a dimension of the GGD), index of the new grid subset the statistics value is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
core_profiles.statistics[:].quantity_2d[:].statistics_type[:].identifier.description

Verbose description

  • Data Type: STR_0D
core_profiles.statistics[:].quantity_2d[:].statistics_type[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_profiles.statistics[:].quantity_2d[:].statistics_type[:].identifier.name

Short string identifier

  • Data Type: STR_0D
core_profiles.statistics[:].quantity_2d[:].statistics_type[:].uq_input_path

For Sobol index only, path to the related the uqinput quantity, e.g. ../../../uqinput_2d(3)

  • Data Type: INT_0D
core_profiles.statistics[:].quantity_2d[:].statistics_type[:].value

Value of the statistics for that quantity, the array corresponding to the first dimension of the original 2D quantity

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.statistics[:].time

Time

  • Units: s
  • Data Type: FLT_0D
core_profiles.statistics[:].time_width

Width of the time interval over which the statistics have been calculated. By convention, the time interval starts at time-time_width and ends at time.

  • Units: s
  • Data Type: FLT_0D
core_profiles.statistics[:].uq_input_2d[:].distribution.bins

Bins of quantitiy values, defined for each element (first dimension) corresponding to the first dimension of the original 2D quantity

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
core_profiles.statistics[:].uq_input_2d[:].distribution.probability

Probability to have a value of the quantity between bins(n) and bins(n+1) (thus the size of its second dimension is the size of the second dimension of the bins array - 1). The first dimension correspond to the first dimension of the original 2D quantity

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
core_profiles.statistics[:].uq_input_2d[:].path

Path of the quantity within the IDS, following the syntax given in the link below

  • Data Type: STR_0D
core_profiles.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_profiles.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["core_profiles.time"]
core_profiles.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
core_sources.code.commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.code.library[:].name

Name of software

  • Data Type: STR_0D
core_sources.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_sources.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
core_sources.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.code.name

Name of software generating IDS

  • Data Type: STR_0D
core_sources.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["core_sources.time"]
core_sources.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_sources.code.repository

URL of software repository

  • Data Type: STR_0D
core_sources.code.version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
core_sources.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
core_sources.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
core_sources.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
core_sources.ids_properties.occurrence

N/A

  • Data Type: INT_0D
core_sources.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
core_sources.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_sources.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
core_sources.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
core_sources.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
core_sources.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
core_sources.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
core_sources.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
core_sources.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
core_sources.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
core_sources.source[:].code.commit

Unique commit reference of software

  • Data Type: STR_0D
core_sources.source[:].code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_sources.source[:].code.name

Name of software used

  • Data Type: STR_0D
core_sources.source[:].code.output_flag.data

Data

  • Data Type: INT_1D
  • Coordinates: ["core_sources.source[:].code.output_flag.time"]
core_sources.source[:].code.output_flag.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_sources.source[:].code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_sources.source[:].code.repository

URL of software repository

  • Data Type: STR_0D
core_sources.source[:].code.version

Unique version (tag) of software

  • Data Type: STR_0D
core_sources.source[:].global_quantities[:].current_parallel

Parallel current driven

  • Units: A
  • Data Type: FLT_0D
core_sources.source[:].global_quantities[:].electrons.particles

Electron particle source

  • Units: s^-1
  • Data Type: FLT_0D
core_sources.source[:].global_quantities[:].electrons.power

Power coupled to electrons

  • Units: W
  • Data Type: FLT_0D
core_sources.source[:].global_quantities[:].power

Total power coupled to the plasma

  • Units: W
  • Data Type: FLT_0D
core_sources.source[:].global_quantities[:].time

Time

  • Units: s
  • Data Type: FLT_0D
core_sources.source[:].global_quantities[:].torque_tor

Toroidal torque

  • Units: kg.m^2.s^-2
  • Data Type: FLT_0D
core_sources.source[:].global_quantities[:].total_ion_particles

Total ion particle source (summed over ion species)

  • Units: (ions).s^-1
  • Data Type: FLT_0D
core_sources.source[:].global_quantities[:].total_ion_power

Total power coupled to ion species (summed over ion species)

  • Units: W
  • Data Type: FLT_0D
core_sources.source[:].identifier.description

Verbose description

  • Data Type: STR_0D
core_sources.source[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_sources.source[:].identifier.name

Short string identifier

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].conductivity_parallel

Parallel conductivity due to this source

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].current_parallel_inside

Parallel current driven inside the flux surface. Cumulative surface integral of j_parallel

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.energy

Source term for the electron energy equation

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.energy_decomposed.explicit_part

Explicit part of the source term

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.energy_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.particles

Source term for electron density equation

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.particles_decomposed.explicit_part

Explicit part of the source term

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.particles_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.particles_inside

Electron source inside the flux surface. Cumulative volume integral of the source term for the electron density equation.

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].electrons.power_inside

Power coupled to electrons inside the flux surface. Cumulative volume integral of the source term for the electron energy equation

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].grid.psi_norm

Normalized poloidal magnetic flux

  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_sources.source[:].profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_sources.source[:].profiles_1d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].ion[:].energy

Source term for the ion energy transport equation.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].energy_decomposed.explicit_part

Explicit part of the source term

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].energy_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].fast_particles_energy

Incoming energy of the fast ion particles (eg. fusion 3.5MeV alphas or 1MeV nbi)

  • Units: eV
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].ion[:].momentum.diamagnetic

Diamagnetic component

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].momentum.parallel

Parallel component

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].momentum.poloidal

Poloidal component

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].momentum.radial

Radial component

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].momentum.toroidal

Toroidal component

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].momentum.toroidal_decomposed.explicit_part

Explicit part of the source term

  • Units: kg.m^2.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].momentum.toroidal_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
core_sources.source[:].profiles_1d[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
core_sources.source[:].profiles_1d[:].ion[:].particles

Source term for ion density equation

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].particles_decomposed.explicit_part

Explicit part of the source term

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].particles_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].particles_inside

Ion source inside the flux surface. Cumulative volume integral of the source term for the ion density equation.

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].power_inside

Power coupled to the ion species inside the flux surface. Cumulative volume integral of the source term for the electron energy equation

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].ion[:].state[:].energy

Source terms for the charge state energy transport equation

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].energy_decomposed.explicit_part

Explicit part of the source term

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].energy_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].ion[:].state[:].particles

Source term for the charge state density transport equation

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].particles_decomposed.explicit_part

Explicit part of the source term

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].particles_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].particles_inside

State source inside the flux surface. Cumulative volume integral of the source term for the electron density equation.

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].power_inside

Power coupled to the state inside the flux surface. Cumulative volume integral of the source term for the electron energy equation

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].j_parallel

Parallel current density source, average(J.B) / B0, where B0 = coresources/vacuumtoroidal_field/b0

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].momentum_tor

Source term for total toroidal momentum equation

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].momentum_tor_j_cross_b_field

Contribution to the toroidal momentum source term (already included in the momentum_tor node) corresponding to the toroidal torques onto the thermal plasma due to Lorentz force associated with radial currents. These currents appear as return-currents (enforcing quasi-neutrality, div(J)=0) balancing radial currents of non-thermal particles, e.g. radial currents of fast and trapped neutral-beam-ions.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_sources.source[:].profiles_1d[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].neutral[:].energy

Source term for the neutral energy transport equation.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
core_sources.source[:].profiles_1d[:].neutral[:].label

String identifying the neutral species (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
core_sources.source[:].profiles_1d[:].neutral[:].particles

Source term for neutral density equation

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].neutral[:].state[:].energy

Source terms for the state energy transport equation

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_sources.source[:].profiles_1d[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].neutral[:].state[:].particles

Source term for the state density transport equation

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_sources.source[:].profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
core_sources.source[:].profiles_1d[:].torque_tor_inside

Toroidal torque inside the flux surface. Cumulative volume integral of the source term for the total toroidal momentum equation

  • Units: kg.m^2.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].total_ion_energy

Source term for the total (summed over ion species) energy equation

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].total_ion_energy_decomposed.explicit_part

Explicit part of the source term

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].total_ion_energy_decomposed.implicit_part

Implicit part of the source term, i.e. to be multiplied by the equation's primary quantity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].profiles_1d[:].total_ion_power_inside

Total power coupled to ion species (summed over ion species) inside the flux surface. Cumulative volume integral of the source term for the total ion energy equation

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
core_sources.source[:].species.ion.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_sources.source[:].species.ion.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_sources.source[:].species.ion.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].species.ion.label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
core_sources.source[:].species.ion.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_sources.source[:].species.ion.state.label

String identifying ion state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
core_sources.source[:].species.ion.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].species.ion.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_sources.source[:].species.ion.state.z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].species.ion.state.z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].species.ion.z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].species.neutral.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_sources.source[:].species.neutral.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_sources.source[:].species.neutral.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].species.neutral.label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
core_sources.source[:].species.neutral.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_sources.source[:].species.neutral.state.label

String identifying neutral state

  • Data Type: STR_0D
core_sources.source[:].species.neutral.state.neutral_type.description

Verbose description

  • Data Type: STR_0D
core_sources.source[:].species.neutral.state.neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_sources.source[:].species.neutral.state.neutral_type.name

Short string identifier

  • Data Type: STR_0D
core_sources.source[:].species.neutral.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_sources.source[:].species.neutral.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_sources.source[:].species.type.description

Verbose description

  • Data Type: STR_0D
core_sources.source[:].species.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_sources.source[:].species.type.name

Short string identifier

  • Data Type: STR_0D
core_sources.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_sources.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["core_sources.time"]
core_sources.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
core_transport.code.commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.code.library[:].name

Name of software

  • Data Type: STR_0D
core_transport.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_transport.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
core_transport.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.code.name

Name of software generating IDS

  • Data Type: STR_0D
core_transport.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["core_transport.time"]
core_transport.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_transport.code.repository

URL of software repository

  • Data Type: STR_0D
core_transport.code.version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
core_transport.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
core_transport.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
core_transport.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
core_transport.ids_properties.occurrence

N/A

  • Data Type: INT_0D
core_transport.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
core_transport.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_transport.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
core_transport.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
core_transport.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
core_transport.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
core_transport.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
core_transport.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
core_transport.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
core_transport.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
core_transport.model[:].code.commit

Unique commit reference of software

  • Data Type: STR_0D
core_transport.model[:].code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
core_transport.model[:].code.name

Name of software used

  • Data Type: STR_0D
core_transport.model[:].code.output_flag.data

Data

  • Data Type: INT_1D
  • Coordinates: ["core_transport.model[:].code.output_flag.time"]
core_transport.model[:].code.output_flag.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_transport.model[:].code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
core_transport.model[:].code.repository

URL of software repository

  • Data Type: STR_0D
core_transport.model[:].code.version

Unique version (tag) of software

  • Data Type: STR_0D
core_transport.model[:].comment

Any comment describing the model

  • Data Type: STR_0D
core_transport.model[:].flux_multiplier

Multiplier applied to the particule flux when adding its contribution in the expression of the heat flux : can be 0, 3/2 or 5/2

  • Data Type: FLT_0D
core_transport.model[:].identifier.description

Verbose description

  • Data Type: STR_0D
core_transport.model[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
core_transport.model[:].identifier.name

Short string identifier

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].conductivity_parallel

Parallel conductivity

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].e_field_radial

Radial component of the electric field (calculated e.g. by a neoclassical model)

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].electrons.energy.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].electrons.energy.flux

Flux

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].electrons.energy.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].electrons.particles.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].electrons.particles.flux

Flux

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].electrons.particles.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_d.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_d.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_d.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].grid_d.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].grid_d.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_d.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_transport.model[:].profiles_1d[:].grid_d.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_d.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_flux.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_flux.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_flux.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].grid_flux.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].grid_flux.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_flux.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_transport.model[:].profiles_1d[:].grid_flux.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_flux.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_v.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_v.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_v.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].grid_v.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].grid_v.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_v.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_transport.model[:].profiles_1d[:].grid_v.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].grid_v.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_transport.model[:].profiles_1d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].ion[:].energy.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].energy.flux

Flux

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].energy.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].ion[:].momentum.diamagnetic.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.diamagnetic.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.diamagnetic.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.diamagnetic.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.parallel.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.parallel.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.parallel.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.parallel.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.poloidal.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.poloidal.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.poloidal.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.poloidal.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.radial.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.radial.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.radial.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.radial.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.toroidal.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.toroidal.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.toroidal.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].momentum.toroidal.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
core_transport.model[:].profiles_1d[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
core_transport.model[:].profiles_1d[:].ion[:].particles.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].particles.flux

Flux

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].particles.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].ion[:].state[:].energy.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].energy.flux

Flux

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].energy.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.diamagnetic.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.diamagnetic.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.diamagnetic.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.diamagnetic.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.parallel.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.parallel.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.parallel.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.parallel.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.poloidal.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.poloidal.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.poloidal.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.poloidal.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.radial.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.radial.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.radial.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.radial.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.toroidal.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.toroidal.flow_damping_rate

Damping rate for this flow component (e.g. due to collisions, calculated from a neoclassical model)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.toroidal.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].momentum.toroidal.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].particles.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].particles.flux

Flux

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].particles.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].momentum_tor.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].momentum_tor.flux

Flux

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].momentum_tor.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
core_transport.model[:].profiles_1d[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].neutral[:].energy.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].energy.flux

Flux

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].energy.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
core_transport.model[:].profiles_1d[:].neutral[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
core_transport.model[:].profiles_1d[:].neutral[:].particles.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].particles.flux

Flux

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].particles.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].neutral[:].state[:].energy.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].state[:].energy.flux

Flux

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].state[:].energy.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].neutral[:].state[:].particles.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].state[:].particles.flux

Flux

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].state[:].particles.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
core_transport.model[:].profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
core_transport.model[:].profiles_1d[:].total_ion_energy.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_d.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].total_ion_energy.flux

Flux

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_flux.rho_tor_norm"]
core_transport.model[:].profiles_1d[:].total_ion_energy.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.model[:].profiles_1d[:].grid_v.rho_tor_norm"]
core_transport.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
core_transport.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["core_transport.time"]
core_transport.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
costing.availability

Availability fraction of the plant

  • Data Type: FLT_0D
costing.construction_start_year

Year that plant construction begins

  • Units: year
  • Data Type: INT_0D
costing.cost_decommissioning.cost

Cost to decomission the plant

  • Units: $M
  • Data Type: FLT_0D
costing.cost_decommissioning.system[:].cost

Cost to decommission the system

  • Units: $M
  • Data Type: FLT_0D
costing.cost_decommissioning.system[:].name

Name of the system to decommission

  • Data Type: STR_0D
costing.cost_decommissioning.system[:].subsystem[:].cost

Cost to decommission the subsystem

  • Units: $M
  • Data Type: FLT_0D
costing.cost_decommissioning.system[:].subsystem[:].name

Name of the subsystem to decommission

  • Data Type: STR_0D
costing.cost_direct_capital.cost

Total direct capital

  • Units: $M
  • Data Type: FLT_0D
costing.cost_direct_capital.system[:].cost

Cost of the system

  • Units: $M
  • Data Type: FLT_0D
costing.cost_direct_capital.system[:].name

Name of the system

  • Data Type: STR_0D
costing.cost_direct_capital.system[:].subsystem[:].cost

Cost of the subsystem

  • Units: $M
  • Data Type: FLT_0D
costing.cost_direct_capital.system[:].subsystem[:].name

Name of the subsystem

  • Data Type: STR_0D
costing.cost_lifetime

Total cost of fusion power plant

  • Units: $M
  • Data Type: FLT_0D
costing.cost_operations.system[:].name

Name of the system

  • Data Type: STR_0D
costing.cost_operations.system[:].subsystem[:].name

Name of the subsystem

  • Data Type: STR_0D
costing.cost_operations.system[:].subsystem[:].yearly_cost

Cost of the subsystem per year

  • Units: $M/year
  • Data Type: FLT_0D
costing.cost_operations.system[:].yearly_cost

Cost of system per year

  • Units: $M/year
  • Data Type: FLT_0D
costing.cost_operations.yearly_cost

Anual cost to operate the plant

  • Units: $M/year
  • Data Type: FLT_0D
costing.future.inflation_rate

Predicted average rate of future inflation

  • Data Type: FLT_0D
costing.future.learning.hts.learning_rate

Learning rate for ReBCO technology production

  • Data Type: FLT_0D
costing.future.learning.hts.production_increase

Factor by which production of ReBCO multiplies

  • Data Type: FLT_0D
costing.levelized_CoE

Levelized cost of electiricity (total cost / total electricy generated)

  • Units: $/kWh
  • Data Type: FLT_0D
costing.plant_lifetime

Lifetime of the plant

  • Units: year
  • Data Type: INT_0D
costing.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.code.commit

Unique commit reference of software

  • Data Type: STR_0D
cryostat.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
cryostat.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
cryostat.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
cryostat.code.library[:].name

Name of software

  • Data Type: STR_0D
cryostat.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
cryostat.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
cryostat.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
cryostat.code.name

Name of software generating IDS

  • Data Type: STR_0D
cryostat.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["cryostat.time"]
cryostat.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
cryostat.code.repository

URL of software repository

  • Data Type: STR_0D
cryostat.code.version

Unique version (tag) of software

  • Data Type: STR_0D
cryostat.description_2d[:].cryostat.type.description

Verbose description

  • Data Type: STR_0D
cryostat.description_2d[:].cryostat.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
cryostat.description_2d[:].cryostat.type.name

Short string identifier

  • Data Type: STR_0D
cryostat.description_2d[:].cryostat.unit[:].annular.centreline.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].cryostat.unit[:].annular.centreline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].cryostat.unit[:].annular.centreline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].cryostat.unit[:].annular.centreline.r"]
cryostat.description_2d[:].cryostat.unit[:].annular.outline_inner.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].cryostat.unit[:].annular.outline_inner.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].cryostat.unit[:].annular.outline_inner.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].cryostat.unit[:].annular.outline_inner.r"]
cryostat.description_2d[:].cryostat.unit[:].annular.outline_outer.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].cryostat.unit[:].annular.outline_outer.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].cryostat.unit[:].annular.outline_outer.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].cryostat.unit[:].annular.outline_outer.r"]
cryostat.description_2d[:].cryostat.unit[:].annular.resistivity

Resistivity of the vessel unit

  • Units: ohm.m
  • Data Type: FLT_0D
cryostat.description_2d[:].cryostat.unit[:].annular.thickness

Thickness of the vessel layer in the perpendicular direction to the centreline. Thickness(i) is the thickness of the layer between centreline/r(i),z(i) and centreline/r(i+1),z(i+1)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].cryostat.unit[:].annular.centreline.r"]
cryostat.description_2d[:].cryostat.unit[:].element[:].j_tor.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].cryostat.unit[:].element[:].j_tor.time"]
cryostat.description_2d[:].cryostat.unit[:].element[:].j_tor.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].cryostat.unit[:].element[:].name

Name of the block element

  • Data Type: STR_0D
cryostat.description_2d[:].cryostat.unit[:].element[:].outline.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].cryostat.unit[:].element[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].cryostat.unit[:].element[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].cryostat.unit[:].element[:].outline.r"]
cryostat.description_2d[:].cryostat.unit[:].element[:].resistance

Resistance of the block element

  • Units: Ohm
  • Data Type: FLT_0D
cryostat.description_2d[:].cryostat.unit[:].element[:].resistivity

Resistivity of the block element

  • Units: ohm.m
  • Data Type: FLT_0D
cryostat.description_2d[:].cryostat.unit[:].identifier

Identifier of the unit

  • Data Type: STR_0D
cryostat.description_2d[:].cryostat.unit[:].name

Name of the unit

  • Data Type: STR_0D
cryostat.description_2d[:].thermal_shield.type.description

Verbose description

  • Data Type: STR_0D
cryostat.description_2d[:].thermal_shield.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
cryostat.description_2d[:].thermal_shield.type.name

Short string identifier

  • Data Type: STR_0D
cryostat.description_2d[:].thermal_shield.unit[:].annular.centreline.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].thermal_shield.unit[:].annular.centreline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].thermal_shield.unit[:].annular.centreline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].thermal_shield.unit[:].annular.centreline.r"]
cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_inner.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_inner.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_inner.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_inner.r"]
cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_outer.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_outer.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_outer.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].thermal_shield.unit[:].annular.outline_outer.r"]
cryostat.description_2d[:].thermal_shield.unit[:].annular.resistivity

Resistivity of the vessel unit

  • Units: ohm.m
  • Data Type: FLT_0D
cryostat.description_2d[:].thermal_shield.unit[:].annular.thickness

Thickness of the vessel layer in the perpendicular direction to the centreline. Thickness(i) is the thickness of the layer between centreline/r(i),z(i) and centreline/r(i+1),z(i+1)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].thermal_shield.unit[:].annular.centreline.r"]
cryostat.description_2d[:].thermal_shield.unit[:].element[:].j_tor.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].thermal_shield.unit[:].element[:].j_tor.time"]
cryostat.description_2d[:].thermal_shield.unit[:].element[:].j_tor.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].thermal_shield.unit[:].element[:].name

Name of the block element

  • Data Type: STR_0D
cryostat.description_2d[:].thermal_shield.unit[:].element[:].outline.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
cryostat.description_2d[:].thermal_shield.unit[:].element[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
cryostat.description_2d[:].thermal_shield.unit[:].element[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["cryostat.description_2d[:].thermal_shield.unit[:].element[:].outline.r"]
cryostat.description_2d[:].thermal_shield.unit[:].element[:].resistance

Resistance of the block element

  • Units: Ohm
  • Data Type: FLT_0D
cryostat.description_2d[:].thermal_shield.unit[:].element[:].resistivity

Resistivity of the block element

  • Units: ohm.m
  • Data Type: FLT_0D
cryostat.description_2d[:].thermal_shield.unit[:].identifier

Identifier of the unit

  • Data Type: STR_0D
cryostat.description_2d[:].thermal_shield.unit[:].name

Name of the unit

  • Data Type: STR_0D
cryostat.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
cryostat.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
cryostat.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
cryostat.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
cryostat.ids_properties.occurrence

N/A

  • Data Type: INT_0D
cryostat.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
cryostat.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
cryostat.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
cryostat.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
cryostat.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
cryostat.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
cryostat.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
cryostat.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
cryostat.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
cryostat.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
cryostat.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
cryostat.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
dataset_description.data_entry.machine

Name of the experimental device to which this data is related

  • Data Type: STR_0D
dataset_description.data_entry.pulse

Pulse number

  • Data Type: INT_0D
dataset_description.data_entry.pulse_type

Type of the data entry, e.g. "pulse", "simulation", ...

  • Data Type: STR_0D
dataset_description.data_entry.run

Run number

  • Data Type: INT_0D
dataset_description.data_entry.user

Username

  • Data Type: STR_0D
dataset_description.dd_version

Version of the physics data dictionary of this dataset

  • Data Type: STR_0D
dataset_description.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
dataset_description.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
dataset_description.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
dataset_description.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
dataset_description.ids_properties.occurrence

N/A

  • Data Type: INT_0D
dataset_description.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
dataset_description.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
dataset_description.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
dataset_description.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_description.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
dataset_description.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
dataset_description.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
dataset_description.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
dataset_description.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
dataset_description.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
dataset_description.imas_version

Version of the IMAS infrastructure used to produce this data entry. Refers to the global IMAS repository which links to versions of every infrastructure tools

  • Data Type: STR_0D
dataset_description.parent_entry.machine

Name of the experimental device to which this data is related

  • Data Type: STR_0D
dataset_description.parent_entry.pulse

Pulse number

  • Data Type: INT_0D
dataset_description.parent_entry.pulse_type

Type of the data entry, e.g. "pulse", "simulation", ...

  • Data Type: STR_0D
dataset_description.parent_entry.run

Run number

  • Data Type: INT_0D
dataset_description.parent_entry.user

Username

  • Data Type: STR_0D
dataset_description.pulse_time_begin

Date and time (UTC) at which the pulse started on the experiment, expressed in a human readable form (ISO 8601) : the format of the string shall be : YYYY-MM-DDTHH:MM:SSZ. Example : 2020-07-24T14:19:00Z

  • Data Type: STR_0D
dataset_description.pulse_time_begin_epoch.nanoseconds

Elapsed nanoseconds since the time in seconds indicated above

  • Data Type: INT_0D
dataset_description.pulse_time_begin_epoch.seconds

Elapsed seconds since the Unix Epoch time (01/01/1970 00:00:00 UTC)

  • Data Type: INT_0D
dataset_description.pulse_time_end_epoch.nanoseconds

Elapsed nanoseconds since the time in seconds indicated above

  • Data Type: INT_0D
dataset_description.pulse_time_end_epoch.seconds

Elapsed seconds since the Unix Epoch time (01/01/1970 00:00:00 UTC)

  • Data Type: INT_0D
dataset_description.simulation.comment_after

Comment made at the end of a simulation

  • Data Type: STR_0D
dataset_description.simulation.comment_before

Comment made when launching a simulation

  • Data Type: STR_0D
dataset_description.simulation.time_begin

Start time

  • Units: s
  • Data Type: FLT_0D
dataset_description.simulation.time_begun

Actual wall-clock time simulation started

  • Units: UTC
  • Data Type: STR_0D
dataset_description.simulation.time_current

Current time of the simulation

  • Units: s
  • Data Type: FLT_0D
dataset_description.simulation.time_end

Stop time

  • Units: s
  • Data Type: FLT_0D
dataset_description.simulation.time_ended

Actual wall-clock time simulation finished

  • Units: UTC
  • Data Type: STR_0D
dataset_description.simulation.time_restart

Time of the last restart done during the simulation

  • Units: s
  • Data Type: FLT_0D
dataset_description.simulation.time_step

Time interval between main steps, e.g. storage step (if relevant and constant)

  • Units: s
  • Data Type: FLT_0D
dataset_description.simulation.workflow

Description of the workflow which has been used to produce this data entry (e.g. copy of the Kepler MOML if using Kepler)

  • Data Type: STR_0D
dataset_description.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
dataset_fair.identifier

Persistent identifier allowing to cite this data in a public and persistent way, should be provided as HTTP URIs

  • Data Type: STR_0D
dataset_fair.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
dataset_fair.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
dataset_fair.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
dataset_fair.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
dataset_fair.ids_properties.occurrence

N/A

  • Data Type: INT_0D
dataset_fair.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
dataset_fair.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
dataset_fair.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
dataset_fair.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
dataset_fair.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
dataset_fair.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
dataset_fair.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
dataset_fair.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
dataset_fair.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
dataset_fair.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
dataset_fair.is_referenced_by

List of documents (e.g. publications) or datasets making use of this data entry (e.g. PIDs of other datasets using this data entry as input)

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
dataset_fair.is_replaced_by

Persistent identifier referencing the new version of this data (replacing the present version)

  • Data Type: STR_0D
dataset_fair.license

License(s) under which the data is made available (license description or, more convenient, publicly accessible URL pointing to the full license text)

  • Data Type: STR_0D
dataset_fair.replaces

Persistent identifier referencing the previous version of this data

  • Data Type: STR_0D
dataset_fair.rights_holder

The organisation owning or managing rights over this data

  • Data Type: STR_0D
dataset_fair.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
dataset_fair.valid

Date range during which the data is or was valid. Expressed as YYYY-MM-DD/YYYY-MM-DD, where the former (resp. latter) date is the data at which the data started (resp. ceased) to be valid. If the data is still valid, the slash should still be present, i.e. indicate the validity start date with YYYY-MM-DD/. If the data ceased being valid but there is no information on the validity start date, indicate /YYYY-MM-DD.

  • Data Type: STR_0D
disruption.code.commit

Unique commit reference of software

  • Data Type: STR_0D
disruption.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
disruption.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
disruption.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
disruption.code.library[:].name

Name of software

  • Data Type: STR_0D
disruption.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
disruption.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
disruption.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
disruption.code.name

Name of software generating IDS

  • Data Type: STR_0D
disruption.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["disruption.time"]
disruption.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
disruption.code.repository

URL of software repository

  • Data Type: STR_0D
disruption.code.version

Unique version (tag) of software

  • Data Type: STR_0D
disruption.global_quantities.current_halo_pol

Poloidal halo current

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.current_halo_tor

Toroidal halo current

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.energy_ohm

Total ohmic cumulated energy (integral of the power over the disruption duration)

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.energy_ohm_halo

Ohmic cumulated energy (integral of the power over the disruption duration) in the halo region

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.energy_parallel_halo

Cumulated parallel energy (integral of the heat flux parallel power over the disruption duration) in the halo region

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.energy_radiated_electrons_impurities

Total cumulated energy (integral of the power over the disruption duration) radiated by electrons on impurities

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.energy_radiated_electrons_impurities_halo

Cumulated energy (integral of the power over the disruption duration) radiated by electrons on impurities in the halo region

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.power_ohm

Total ohmic power

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.power_ohm_halo

Ohmic power in the halo region

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.power_parallel_halo

Power of the parallel heat flux in the halo region

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.power_radiated_electrons_impurities

Total power radiated by electrons on impurities

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.power_radiated_electrons_impurities_halo

Power radiated by electrons on impurities in the halo region

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.global_quantities.psi_halo_boundary

Poloidal flux at halo region boundary

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.halo_currents[:].active_wall_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
disruption.halo_currents[:].active_wall_point.z

Height

  • Units: m
  • Data Type: FLT_0D
disruption.halo_currents[:].area[:].current_halo_pol

Poloidal halo current crossing through this area

  • Units: A
  • Data Type: FLT_0D
disruption.halo_currents[:].area[:].end_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
disruption.halo_currents[:].area[:].end_point.z

Height

  • Units: m
  • Data Type: FLT_0D
disruption.halo_currents[:].area[:].start_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
disruption.halo_currents[:].area[:].start_point.z

Height

  • Units: m
  • Data Type: FLT_0D
disruption.halo_currents[:].time

Time

  • Units: s
  • Data Type: FLT_0D
disruption.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
disruption.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
disruption.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
disruption.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
disruption.ids_properties.occurrence

N/A

  • Data Type: INT_0D
disruption.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
disruption.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
disruption.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
disruption.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
disruption.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
disruption.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
disruption.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
disruption.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
disruption.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
disruption.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
disruption.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
disruption.profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
disruption.profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
disruption.profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
disruption.profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].j_runaways

Runaways parallel current density = average(j.B) / B0, where B0 = Disruption/VacuumToroidalField/ B0

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].power_density_conductive_losses

Power density of conductive losses to the wall (positive sign for losses)

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].power_density_radiative_losses

Power density of radiative losses (positive sign for losses)

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["disruption.profiles_1d[:].grid.rho_tor_norm"]
disruption.profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
disruption.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
disruption.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["disruption.time"]
disruption.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
distribution_sources.code.commit

Unique commit reference of software

  • Data Type: STR_0D
distribution_sources.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distribution_sources.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distribution_sources.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distribution_sources.code.library[:].name

Name of software

  • Data Type: STR_0D
distribution_sources.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distribution_sources.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
distribution_sources.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distribution_sources.code.name

Name of software generating IDS

  • Data Type: STR_0D
distribution_sources.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["distribution_sources.time"]
distribution_sources.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distribution_sources.code.repository

URL of software repository

  • Data Type: STR_0D
distribution_sources.code.version

Unique version (tag) of software

  • Data Type: STR_0D
distribution_sources.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
distribution_sources.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
distribution_sources.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
distribution_sources.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
distribution_sources.ids_properties.occurrence

N/A

  • Data Type: INT_0D
distribution_sources.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
distribution_sources.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
distribution_sources.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distribution_sources.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
distribution_sources.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
distribution_sources.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
distribution_sources.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
distribution_sources.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
distribution_sources.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
distribution_sources.magnetic_axis.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.time"]
distribution_sources.magnetic_axis.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.time"]
distribution_sources.source[:].ggd[:].discrete

List of indices of grid spaces (refers to ../grid/space) for which the source is discretely distributed. For example consider a source of 3.5 MeV alpha particles provided on a grid with two coordinates (spaces); rho_tor and energy. To specify that the source is given at energies exactly equal to 3.5 MeV, let discret have length 1 and set discrete(1)=2 since energy is dimension number 2. The source is then proportional to delta( 1 - energy / 3.5MeV ), where delta is the direct delta distribution. Discrete dimensions can only be used when the grid is rectangular.

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].ggd[:].grid.grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].ggd[:].grid.grid_subset[:].element"]
distribution_sources.source[:].ggd[:].grid.grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distribution_sources.source[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distribution_sources.source[:].ggd[:].grid.grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distribution_sources.source[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distribution_sources.source[:].ggd[:].grid.grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].ggd[:].grid.grid_subset[:].element"]
distribution_sources.source[:].ggd[:].grid.grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distribution_sources.source[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distribution_sources.source[:].ggd[:].grid.grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distribution_sources.source[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distribution_sources.source[:].ggd[:].grid.identifier.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.identifier.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: 'wall:0/descriptionggd(1)/gridggd', means that the grid is located in the wall IDS, occurrence 0, with ids path 'descriptionggd(1)/gridggd'. See the link below for more details about IDS paths

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].ggd[:].grid.space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.space[:].identifier.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
distribution_sources.source[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].ggd[:].particles[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: (m.s^-1)^-3.m^-3.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["distribution_sources.source[:].ggd[:].particles[:].values", "1...N"]
distribution_sources.source[:].ggd[:].particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].particles[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
distribution_sources.source[:].ggd[:].particles[:].values

One scalar value is provided per element in the grid subset.

  • Units: (m.s^-1)^-3.m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distribution_sources.source[:].global_quantities[:].particles

Particle source rate

  • Units: s^-1
  • Data Type: FLT_0D
distribution_sources.source[:].global_quantities[:].power

Total power of the source

  • Units: W
  • Data Type: FLT_0D
distribution_sources.source[:].global_quantities[:].shinethrough.particles

Particle losses due to shinethrough

  • Units: s^-1
  • Data Type: FLT_0D
distribution_sources.source[:].global_quantities[:].shinethrough.power

Power losses due to shinethrough

  • Units: W
  • Data Type: FLT_0D
distribution_sources.source[:].global_quantities[:].shinethrough.torque_tor

Toroidal torque losses due to shinethrough

  • Units: N.m
  • Data Type: FLT_0D
distribution_sources.source[:].global_quantities[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distribution_sources.source[:].global_quantities[:].torque_tor

Total toroidal torque of the source

  • Units: N.m
  • Data Type: FLT_0D
distribution_sources.source[:].gyro_type

Defines how to interpret the spatial coordinates: 1 = given at the actual particle birth point; 2 =given at the gyro centre of the birth point

  • Data Type: INT_0D
distribution_sources.source[:].markers[:].coordinate_identifier[:].description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].markers[:].coordinate_identifier[:].index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].markers[:].coordinate_identifier[:].name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].markers[:].orbit_integrals.bounce_harmonics

Array of bounce harmonics k

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].markers[:].orbit_integrals.expressions

List of the expressions f(ntor,mpol,k,q,...) used in the orbit integrals

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].markers[:].orbit_integrals.m_pol

Array of poloidal mode numbers, where quantities vary as exp(-i.mpol.theta) and theta is the angle defined by the choice of ../../coordinateidentifier, with its centre at the magnetic axis recalled at the root of this IDS

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].markers[:].orbit_integrals.n_tor

Array of toroidal mode numbers, ntor, where quantities vary as exp(i.ntor.phi) and phi runs anticlockwise when viewed from above

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].markers[:].orbit_integrals.values

Values of the orbit integrals

  • Data Type: CPX_5D
  • Coordinates: ["distribution_sources.source[:].markers[:].orbit_integrals.expressions", "distribution_sources.source[:].markers[:].weights", "distribution_sources.source[:].markers[:].orbit_integrals.n_tor", "distribution_sources.source[:].markers[:].orbit_integrals.m_pol", "distribution_sources.source[:].markers[:].orbit_integrals.bounce_harmonics"]
distribution_sources.source[:].markers[:].orbit_integrals_instant.expressions

List of the expressions f(eq) used in the orbit integrals

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].markers[:].orbit_integrals_instant.time_orbit

Time array along the markers last orbit

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].markers[:].orbit_integrals_instant.values

Values of the orbit integrals

  • Data Type: CPX_3D
  • Coordinates: ["distribution_sources.source[:].markers[:].orbit_integrals_instant.expressions", "distribution_sources.source[:].markers[:].weights", "distribution_sources.source[:].markers[:].orbit_integrals_instant.time_orbit"]
distribution_sources.source[:].markers[:].positions

Position of the markers in the set of coordinates. The first dimension corresponds to the number of markers, the second dimension to the set of coordinates

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["distribution_sources.source[:].markers[:].weights", "distribution_sources.source[:].markers[:].coordinate_identifier"]
distribution_sources.source[:].markers[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distribution_sources.source[:].markers[:].toroidal_mode

In case the orbit integrals are calculated for a given MHD perturbation, index of the toroidal mode considered. Refers to the timeslice/toroidalmode array of the MHD_LINEAR IDS in which this perturbation is described

  • Data Type: INT_0D
distribution_sources.source[:].markers[:].weights

Weight of the markers, i.e. number of real particles represented by each marker. The dimension of the vector correspond to the number of markers

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].process[:].nbi_beamlets_group

Index of the NBI beamlets group considered. Refers to the "unit/beamlets_group" array of the NBI IDS. 0 means sum over all beamlets groups.

  • Data Type: INT_0D
distribution_sources.source[:].process[:].nbi_energy.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].process[:].nbi_energy.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].process[:].nbi_energy.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].process[:].nbi_unit

Index of the NBI unit considered. Refers to the "unit" array of the NBI IDS. 0 means sum over all NBI units.

  • Data Type: INT_0D
distribution_sources.source[:].process[:].reactant_energy.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].process[:].reactant_energy.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].process[:].reactant_energy.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].process[:].type.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].process[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].process[:].type.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].profiles_1d[:].energy

Source term for the energy transport equation

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
distribution_sources.source[:].profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
distribution_sources.source[:].profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distribution_sources.source[:].profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].momentum_tor

Source term for the toroidal momentum equation

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].particles

Source term for the density transport equation

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.source[:].profiles_1d[:].grid.rho_tor_norm"]
distribution_sources.source[:].profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distribution_sources.source[:].species.ion.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.ion.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distribution_sources.source[:].species.ion.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.ion.label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
distribution_sources.source[:].species.ion.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distribution_sources.source[:].species.ion.state.label

String identifying ion state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distribution_sources.source[:].species.ion.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.ion.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distribution_sources.source[:].species.ion.state.z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.ion.state.z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.ion.z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.neutral.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.neutral.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distribution_sources.source[:].species.neutral.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.neutral.label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
distribution_sources.source[:].species.neutral.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distribution_sources.source[:].species.neutral.state.label

String identifying neutral state

  • Data Type: STR_0D
distribution_sources.source[:].species.neutral.state.neutral_type.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].species.neutral.state.neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].species.neutral.state.neutral_type.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.source[:].species.neutral.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distribution_sources.source[:].species.neutral.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distribution_sources.source[:].species.type.description

Verbose description

  • Data Type: STR_0D
distribution_sources.source[:].species.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distribution_sources.source[:].species.type.name

Short string identifier

  • Data Type: STR_0D
distribution_sources.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distribution_sources.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["distribution_sources.time"]
distribution_sources.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
distributions.code.commit

Unique commit reference of software

  • Data Type: STR_0D
distributions.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distributions.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distributions.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distributions.code.library[:].name

Name of software

  • Data Type: STR_0D
distributions.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distributions.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
distributions.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distributions.code.name

Name of software generating IDS

  • Data Type: STR_0D
distributions.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["distributions.time"]
distributions.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distributions.code.repository

URL of software repository

  • Data Type: STR_0D
distributions.code.version

Unique version (tag) of software

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].expansion[:].grid_subset[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].ggd[:].expansion[:].grid_subset[:].values", "1...N"]
distributions.distribution[:].ggd[:].expansion[:].grid_subset[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].expansion[:].grid_subset[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].expansion[:].grid_subset[:].values

One scalar value is provided per element in the grid subset.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].ggd[:].expansion_fd3v[:].grid_subset[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].ggd[:].expansion_fd3v[:].grid_subset[:].values", "1...N"]
distributions.distribution[:].ggd[:].expansion_fd3v[:].grid_subset[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].expansion_fd3v[:].grid_subset[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].expansion_fd3v[:].grid_subset[:].values

One scalar value is provided per element in the grid subset.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].ggd[:].grid.grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].ggd[:].grid.grid_subset[:].element"]
distributions.distribution[:].ggd[:].grid.grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distributions.distribution[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distributions.distribution[:].ggd[:].grid.grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distributions.distribution[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distributions.distribution[:].ggd[:].grid.grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].ggd[:].grid.grid_subset[:].element"]
distributions.distribution[:].ggd[:].grid.grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distributions.distribution[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distributions.distribution[:].ggd[:].grid.grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["distributions.distribution[:].ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
distributions.distribution[:].ggd[:].grid.identifier.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.identifier.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: 'wall:0/descriptionggd(1)/gridggd', means that the grid is located in the wall IDS, occurrence 0, with ids path 'descriptionggd(1)/gridggd'. See the link below for more details about IDS paths

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].ggd[:].grid.space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.space[:].identifier.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
distributions.distribution[:].ggd[:].grid.space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].ggd[:].temperature

Reference temperature profile used to define the local thermal energy and the thermal velocity (for normalisation of the grid coordinates)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.electrons.power_fast

Collisional power to the fast particle population

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.electrons.power_thermal

Collisional power to the thermal particle population

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.electrons.torque_fast_tor

Collisional toroidal torque to the fast particle population

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.electrons.torque_thermal_tor

Collisional toroidal torque to the thermal particle population

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].power_fast

Collisional power to the fast particle population

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].power_thermal

Collisional power to the thermal particle population

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].power_fast

Collisional power to the fast particle population

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].power_thermal

Collisional power to the thermal particle population

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque to the fast particle population

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque to the thermal particle population

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].torque_fast_tor

Collisional toroidal torque to the fast particle population

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].torque_thermal_tor

Collisional toroidal torque to the thermal particle population

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].current_tor

Toroidal current driven by the distribution

  • Units: A
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].energy

Total energy in the distribution

  • Units: J
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].energy_fast

Total energy of the fast particles in the distribution

  • Units: J
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].energy_fast_parallel

Parallel energy of the fast particles in the distribution

  • Units: J
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].particles_fast_n

Number of fast particles in the distribution, i.e. the volume integral of the density (note: this is the number of real particles and not markers)

  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].particles_n

Number of particles in the distribution, i.e. the volume integral of the density (note: this is the number of real particles and not markers)

  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].source[:].identifier.process_index

Index into distribution/process

  • Data Type: INT_0D
distributions.distribution[:].global_quantities[:].source[:].identifier.type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].global_quantities[:].source[:].identifier.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].global_quantities[:].source[:].identifier.type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].global_quantities[:].source[:].identifier.wave_index

Index into distribution/wave

  • Data Type: INT_0D
distributions.distribution[:].global_quantities[:].source[:].particles

Particle source rate

  • Units: s^-1
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].source[:].power

Total power of the source

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].source[:].torque_tor

Total toroidal torque of the source

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].thermalisation.particles

Source rate of thermal particles due to the thermalisation of fast particles

  • Units: s^-1
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].thermalisation.power

Power input to the thermal particle population due to the thermalisation of fast particles

  • Units: W
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].thermalisation.torque

Torque input to the thermal particle population due to the thermalisation of fast particles

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distributions.distribution[:].global_quantities[:].torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m
  • Data Type: FLT_0D
distributions.distribution[:].gyro_type

Defines how to interpret the spatial coordinates: 1 = given at the actual particle birth point; 2 =given at the gyro centre of the birth point

  • Data Type: INT_0D
distributions.distribution[:].is_delta_f

If isdeltaf=1, then the distribution represents the deviation from a Maxwellian; isdeltaf=0, then the distribution represents all particles, i.e. the full-f solution

  • Data Type: INT_0D
distributions.distribution[:].markers[:].coordinate_identifier[:].description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].markers[:].coordinate_identifier[:].index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].markers[:].coordinate_identifier[:].name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].markers[:].orbit_integrals.bounce_harmonics

Array of bounce harmonics k

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].markers[:].orbit_integrals.expressions

List of the expressions f(ntor,mpol,k,q,...) used in the orbit integrals

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].markers[:].orbit_integrals.m_pol

Array of poloidal mode numbers, where quantities vary as exp(-i.mpol.theta) and theta is the angle defined by the choice of ../../coordinateidentifier, with its centre at the magnetic axis recalled at the root of this IDS

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].markers[:].orbit_integrals.n_tor

Array of toroidal mode numbers, ntor, where quantities vary as exp(i.ntor.phi) and phi runs anticlockwise when viewed from above

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].markers[:].orbit_integrals.values

Values of the orbit integrals

  • Data Type: CPX_5D
  • Coordinates: ["distributions.distribution[:].markers[:].orbit_integrals.expressions", "distributions.distribution[:].markers[:].weights", "distributions.distribution[:].markers[:].orbit_integrals.n_tor", "distributions.distribution[:].markers[:].orbit_integrals.m_pol", "distributions.distribution[:].markers[:].orbit_integrals.bounce_harmonics"]
distributions.distribution[:].markers[:].orbit_integrals_instant.expressions

List of the expressions f(eq) used in the orbit integrals

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].markers[:].orbit_integrals_instant.time_orbit

Time array along the markers last orbit

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].markers[:].orbit_integrals_instant.values

Values of the orbit integrals

  • Data Type: CPX_3D
  • Coordinates: ["distributions.distribution[:].markers[:].orbit_integrals_instant.expressions", "distributions.distribution[:].markers[:].weights", "distributions.distribution[:].markers[:].orbit_integrals_instant.time_orbit"]
distributions.distribution[:].markers[:].positions

Position of the markers in the set of coordinates. The first dimension corresponds to the number of markers, the second dimension to the set of coordinates

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].markers[:].weights", "distributions.distribution[:].markers[:].coordinate_identifier"]
distributions.distribution[:].markers[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distributions.distribution[:].markers[:].toroidal_mode

In case the orbit integrals are calculated for a given MHD perturbation, index of the toroidal mode considered. Refers to the timeslice/toroidalmode array of the MHD_LINEAR IDS in which this perturbation is described

  • Data Type: INT_0D
distributions.distribution[:].markers[:].weights

Weight of the markers, i.e. number of real particles represented by each marker. The dimension of the vector correspond to the number of markers

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].process[:].nbi_beamlets_group

Index of the NBI beamlets group considered. Refers to the "unit/beamlets_group" array of the NBI IDS. 0 means sum over all beamlets groups.

  • Data Type: INT_0D
distributions.distribution[:].process[:].nbi_energy.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].process[:].nbi_energy.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].process[:].nbi_energy.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].process[:].nbi_unit

Index of the NBI unit considered. Refers to the "unit" array of the NBI IDS. 0 means sum over all NBI units.

  • Data Type: INT_0D
distributions.distribution[:].process[:].reactant_energy.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].process[:].reactant_energy.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].process[:].reactant_energy.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].process[:].type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].process[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].process[:].type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].co_passing.current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.source[:].energy

Source rate of energy density

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.source[:].identifier.process_index

Index into distribution/process

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].co_passing.source[:].identifier.type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].co_passing.source[:].identifier.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].co_passing.source[:].identifier.type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].co_passing.source[:].identifier.wave_index

Index into distribution/wave

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].co_passing.source[:].momentum_tor

Source rate of toroidal angular momentum density

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.source[:].particles

Source rate of thermal particle density

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].co_passing.torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].energy

Source rate of energy density

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].identifier.process_index

Index into distribution/process

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].identifier.type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].identifier.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].identifier.type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].identifier.wave_index

Index into distribution/wave

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].momentum_tor

Source rate of toroidal angular momentum density

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.source[:].particles

Source rate of thermal particle density

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].counter_passing.torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].fast_filter.energy

Energy at which the fast and thermal particle populations were separated, as a function of radius

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].fast_filter.method.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].fast_filter.method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].fast_filter.method.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].source[:].energy

Source rate of energy density

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].source[:].identifier.process_index

Index into distribution/process

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].source[:].identifier.type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].source[:].identifier.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].source[:].identifier.type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].source[:].identifier.wave_index

Index into distribution/wave

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].source[:].momentum_tor

Source rate of toroidal angular momentum density

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].source[:].particles

Source rate of thermal particle density

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].thermalisation.energy

Source rate of energy density within the thermal particle population due to the thermalisation of fast particles

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].thermalisation.momentum_tor

Source rate of toroidal angular momentum density within the thermal particle population due to the thermalisation of fast particles

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].thermalisation.particles

Source rate of thermal particle density due to the thermalisation of fast particles

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_1d[:].trapped.current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.source[:].energy

Source rate of energy density

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.source[:].identifier.process_index

Index into distribution/process

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].trapped.source[:].identifier.type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].trapped.source[:].identifier.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].trapped.source[:].identifier.type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].profiles_1d[:].trapped.source[:].identifier.wave_index

Index into distribution/wave

  • Data Type: INT_0D
distributions.distribution[:].profiles_1d[:].trapped.source[:].momentum_tor

Source rate of toroidal angular momentum density

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.source[:].particles

Source rate of thermal particle density

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_1d[:].trapped.torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_1d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].co_passing.current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].co_passing.torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].counter_passing.current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].counter_passing.torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_2d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_2d[:].grid.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].profiles_2d[:].grid.rho_tor

Toroidal flux coordinate. The toroidal field used in its definition is indicated under vacuumtoroidalfield/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_2d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].profiles_2d[:].grid.theta_geometric

Geometrical poloidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].profiles_2d[:].grid.theta_straight

Straight field line poloidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].profiles_2d[:].grid.type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].grid.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].grid.type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.rho_tor_norm"]
distributions.distribution[:].profiles_2d[:].grid.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.distribution[:].profiles_2d[:].pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.electrons.power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.electrons.power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.electrons.torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.electrons.torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].power_fast

Collisional power density to the fast particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].power_thermal

Collisional power density to the thermal particle population

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].torque_fast_tor

Collisional toroidal torque density to the fast particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].torque_thermal_tor

Collisional toroidal torque density to the thermal particle population

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.collisions.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].profiles_2d[:].trapped.current_fast_tor

Total toroidal driven current density of fast (non-thermal) particles (excluding electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.current_tor

Total toroidal driven current density (including electron and thermal ion back-current, or drag-current)

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.density_fast

Density of fast particles

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.pressure

Pressure (thermal+non-thermal)

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.pressure_fast

Pressure of fast particles

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.pressure_fast_parallel

Pressure of fast particles in the parallel direction

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].profiles_2d[:].trapped.torque_tor_j_radial

Toroidal torque due to radial currents

  • Units: N.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["distributions.distribution[:].profiles_2d[:].grid.r", "distributions.distribution[:].profiles_2d[:].grid.z"]
distributions.distribution[:].species.ion.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.ion.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].species.ion.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.ion.label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
distributions.distribution[:].species.ion.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].species.ion.state.label

String identifying ion state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
distributions.distribution[:].species.ion.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.ion.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].species.ion.state.z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.ion.state.z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.ion.z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.neutral.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.neutral.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
distributions.distribution[:].species.neutral.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.neutral.label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
distributions.distribution[:].species.neutral.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
distributions.distribution[:].species.neutral.state.label

String identifying neutral state

  • Data Type: STR_0D
distributions.distribution[:].species.neutral.state.neutral_type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].species.neutral.state.neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].species.neutral.state.neutral_type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].species.neutral.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
distributions.distribution[:].species.neutral.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
distributions.distribution[:].species.type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].species.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].species.type.name

Short string identifier

  • Data Type: STR_0D
distributions.distribution[:].wave[:].antenna_name

Name of the antenna that launches this wave. Corresponds to the name specified in antennas/ec(i)/name, or antennas/ic(i)/name or antennas/lh(i)/name (depends of antenna/wave type) in the ANTENNAS IDS.

  • Data Type: STR_0D
distributions.distribution[:].wave[:].index_in_antenna

Index of the wave (starts at 1), separating different waves generated from a single antenna.

  • Data Type: INT_0D
distributions.distribution[:].wave[:].type.description

Verbose description

  • Data Type: STR_0D
distributions.distribution[:].wave[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.distribution[:].wave[:].type.name

Short string identifier

  • Data Type: STR_0D
distributions.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
distributions.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
distributions.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
distributions.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
distributions.ids_properties.occurrence

N/A

  • Data Type: INT_0D
distributions.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
distributions.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
distributions.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
distributions.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
distributions.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
distributions.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
distributions.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
distributions.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
distributions.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
distributions.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
distributions.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
distributions.magnetic_axis.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["distributions.time"]
distributions.magnetic_axis.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["distributions.time"]
distributions.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
distributions.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["distributions.time"]
distributions.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
divertors.code.commit

Unique commit reference of software

  • Data Type: STR_0D
divertors.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
divertors.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
divertors.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
divertors.code.library[:].name

Name of software

  • Data Type: STR_0D
divertors.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
divertors.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
divertors.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
divertors.code.name

Name of software generating IDS

  • Data Type: STR_0D
divertors.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["divertors.time"]
divertors.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
divertors.code.repository

URL of software repository

  • Data Type: STR_0D
divertors.code.version

Unique version (tag) of software

  • Data Type: STR_0D
divertors.divertor[:].current_incident.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].current_incident.time"]
divertors.divertor[:].current_incident.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].identifier

Alphanumeric identifier of divertor

  • Data Type: STR_0D
divertors.divertor[:].name

Name of the divertor

  • Data Type: STR_0D
divertors.divertor[:].particle_flux_recycled_total.data

Data

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].particle_flux_recycled_total.time"]
divertors.divertor[:].particle_flux_recycled_total.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_black_body.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_black_body.time"]
divertors.divertor[:].power_black_body.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_conducted.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_conducted.time"]
divertors.divertor[:].power_conducted.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_convected.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_convected.time"]
divertors.divertor[:].power_convected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_currents.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_currents.time"]
divertors.divertor[:].power_currents.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_incident.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_incident.time"]
divertors.divertor[:].power_incident.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_neutrals.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_neutrals.time"]
divertors.divertor[:].power_neutrals.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_radiated.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_radiated.time"]
divertors.divertor[:].power_radiated.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_recombination_neutrals.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_recombination_neutrals.time"]
divertors.divertor[:].power_recombination_neutrals.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_recombination_plasma.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_recombination_plasma.time"]
divertors.divertor[:].power_recombination_plasma.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].power_thermal_extracted.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].power_thermal_extracted.time"]
divertors.divertor[:].power_thermal_extracted.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].current_incident.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].current_incident.time"]
divertors.divertor[:].target[:].current_incident.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].extension_r

Target length projected on the major radius axis

  • Units: m
  • Data Type: FLT_0D
divertors.divertor[:].target[:].extension_z

Target length projected on the height axis

  • Units: m
  • Data Type: FLT_0D
divertors.divertor[:].target[:].flux_expansion.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].flux_expansion.time"]
divertors.divertor[:].target[:].flux_expansion.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].heat_flux_steady_limit_max

Maximum steady state heat flux allowed on divertor target surface (engineering design limit)

  • Units: W.m^-2
  • Data Type: FLT_0D
divertors.divertor[:].target[:].identifier

Alphanumeric identifier of target

  • Data Type: STR_0D
divertors.divertor[:].target[:].name

Name of the target

  • Data Type: STR_0D
divertors.divertor[:].target[:].power_black_body.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_black_body.time"]
divertors.divertor[:].target[:].power_black_body.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_conducted.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_conducted.time"]
divertors.divertor[:].target[:].power_conducted.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_convected.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_convected.time"]
divertors.divertor[:].target[:].power_convected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_currents.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_currents.time"]
divertors.divertor[:].target[:].power_currents.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_flux_peak.data

Data

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_flux_peak.time"]
divertors.divertor[:].target[:].power_flux_peak.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_incident.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_incident.time"]
divertors.divertor[:].target[:].power_incident.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_incident_fraction.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_incident_fraction.time"]
divertors.divertor[:].target[:].power_incident_fraction.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_neutrals.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_neutrals.time"]
divertors.divertor[:].target[:].power_neutrals.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_radiated.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_radiated.time"]
divertors.divertor[:].target[:].power_radiated.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_recombination_neutrals.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_recombination_neutrals.time"]
divertors.divertor[:].target[:].power_recombination_neutrals.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].power_recombination_plasma.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].power_recombination_plasma.time"]
divertors.divertor[:].target[:].power_recombination_plasma.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].t_e_target_sputtering_limit_max

Maximum plasma temperature allowed on the divertor target to avoid excessive sputtering

  • Units: eV
  • Data Type: FLT_0D
divertors.divertor[:].target[:].temperature_limit_max

Maximum surface target temperature allowed to prevent damage (melting, recrystallization, sublimation, etc...)

  • Units: K
  • Data Type: FLT_0D
divertors.divertor[:].target[:].tile[:].current_incident.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].tile[:].current_incident.time"]
divertors.divertor[:].target[:].tile[:].current_incident.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].tile[:].identifier

Alphanumeric identifier of tile

  • Data Type: STR_0D
divertors.divertor[:].target[:].tile[:].name

Name of the tile

  • Data Type: STR_0D
divertors.divertor[:].target[:].tile[:].shunt_index

If the tile carries a measurement shunt, index of that shunt (in the magnetics IDS shunt array)

  • Data Type: INT_0D
divertors.divertor[:].target[:].tile[:].surface_area

Area of the tile surface facing the plasma

  • Units: m^2
  • Data Type: FLT_0D
divertors.divertor[:].target[:].tile[:].surface_outline.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].tile[:].surface_outline.r"]
divertors.divertor[:].target[:].tile[:].surface_outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].tile[:].surface_outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].tile[:].surface_outline.r"]
divertors.divertor[:].target[:].tilt_angle_pol.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].tilt_angle_pol.time"]
divertors.divertor[:].target[:].tilt_angle_pol.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].tilt_angle_tor.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].tilt_angle_tor.time"]
divertors.divertor[:].target[:].tilt_angle_tor.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].target[:].two_point_model[:].n_e_target

Electron density at divertor target

  • Units: m^-3
  • Data Type: FLT_0D
divertors.divertor[:].target[:].two_point_model[:].sol_heat_decay_length

Heat flux decay length in SOL at divertor entrance, mapped to the mid-plane, this is the lambda_q parameter defined in reference T. Eich et al, Nucl. Fusion 53 (2013) 093031

  • Units: m
  • Data Type: FLT_0D
divertors.divertor[:].target[:].two_point_model[:].sol_heat_spreading_length

Heat flux spreading length in SOL at equatorial mid-plane, this is the S power spreading parameter defined in reference T. Eich et al, Nucl. Fusion 53 (2013) 093031. Relevant only for attached plasmas.

  • Units: m
  • Data Type: FLT_0D
divertors.divertor[:].target[:].two_point_model[:].t_e_target

Electron temperature at divertor target

  • Units: eV
  • Data Type: FLT_0D
divertors.divertor[:].target[:].two_point_model[:].time

Time

  • Units: s
  • Data Type: FLT_0D
divertors.divertor[:].target[:].wetted_area.data

Data

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].target[:].wetted_area.time"]
divertors.divertor[:].target[:].wetted_area.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.divertor[:].wetted_area.data

Data

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["divertors.divertor[:].wetted_area.time"]
divertors.divertor[:].wetted_area.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
divertors.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
divertors.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
divertors.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
divertors.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
divertors.ids_properties.occurrence

N/A

  • Data Type: INT_0D
divertors.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
divertors.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
divertors.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
divertors.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
divertors.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
divertors.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
divertors.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
divertors.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
divertors.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
divertors.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
divertors.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
divertors.midplane.description

Verbose description

  • Data Type: STR_0D
divertors.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
divertors.midplane.name

Short string identifier

  • Data Type: STR_0D
divertors.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ec_launchers.beam[:].available_launch_power

Available launch power

  • Units: W
  • Data Type: FLT_0D
ec_launchers.beam[:].efficiency.conversion

Conversion efficiency of electric power to microwave power

  • Data Type: FLT_0D
ec_launchers.beam[:].efficiency.transmission

Transmission efficiency of microwave power from generator to antenna

  • Data Type: FLT_0D
ec_launchers.beam[:].frequency.data

Data

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].frequency.time"]
ec_launchers.beam[:].frequency.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ec_launchers.beam[:].identifier

Beam identifier

  • Data Type: STR_0D
ec_launchers.beam[:].launching_position.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].launching_position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].launching_position.r_limit_max

Major radius upper limit for the system

  • Units: m
  • Data Type: FLT_0D
ec_launchers.beam[:].launching_position.r_limit_min

Major radius lower limit for the system

  • Units: m
  • Data Type: FLT_0D
ec_launchers.beam[:].launching_position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].mode

Identifier for the main plasma wave mode excited by the EC beam. For the ordinary mode (O-mode), mode=1. For the extraordinary mode (X-mode), mode=-1

  • Data Type: INT_0D
ec_launchers.beam[:].name

Beam name

  • Data Type: STR_0D
ec_launchers.beam[:].o_mode_fraction

Fraction of EC beam power launched in ordinary (O) mode. If all power is launched in ordinary mode (O-mode), omodefraction = 1.0. If all power is launched in extraordinary mode (X-mode), omodefraction = 0.0

  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].phase.angle

Rotation angle for the phase ellipse

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].phase.curvature

Inverse curvature radii for the phase ellipse, positive/negative for divergent/convergent beams, in the horizontal direction (first index of the first coordinate) and in the vertical direction (second index of the first coordinate)

  • Units: m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "ec_launchers.beam[:].time"]
ec_launchers.beam[:].power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].power_launched.time"]
ec_launchers.beam[:].power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ec_launchers.beam[:].spot.angle

Rotation angle for the spot ellipse

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].spot.size

Size of the spot ellipse: distance between the central ray and the peripheral rays in the horizontal (first index of the first coordinate) and vertical direction (second index of the first coordinate)

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "ec_launchers.beam[:].time"]
ec_launchers.beam[:].steering_angle_pol

Steering angle of the EC beam in the R,Z plane (from the -R axis towards the -Z axis), anglepol=atan2(-kZ,-kR), where kZ and k_R are the Z and R components of the mean wave vector in the EC beam

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].steering_angle_tor

Steering angle of the EC beam away from the poloidal plane that is increasing towards the positive phi axis, angletor=arcsin(kphi/k), where k_phi is the component of the wave vector in the phi direction and k is the length of the wave vector. Here the term wave vector refers to the mean wave vector in the EC beam

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ec_launchers.beam[:].time"]
ec_launchers.beam[:].time

Time base used for launchingposition, omode_fraction, angle, spot and phase quantities

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ec_launchers.code.commit

Unique commit reference of software

  • Data Type: STR_0D
ec_launchers.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ec_launchers.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ec_launchers.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ec_launchers.code.library[:].name

Name of software

  • Data Type: STR_0D
ec_launchers.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ec_launchers.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
ec_launchers.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ec_launchers.code.name

Name of software generating IDS

  • Data Type: STR_0D
ec_launchers.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["ec_launchers.time"]
ec_launchers.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ec_launchers.code.repository

URL of software repository

  • Data Type: STR_0D
ec_launchers.code.version

Unique version (tag) of software

  • Data Type: STR_0D
ec_launchers.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
ec_launchers.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
ec_launchers.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
ec_launchers.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
ec_launchers.ids_properties.occurrence

N/A

  • Data Type: INT_0D
ec_launchers.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
ec_launchers.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ec_launchers.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
ec_launchers.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ec_launchers.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
ec_launchers.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
ec_launchers.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
ec_launchers.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
ec_launchers.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
ec_launchers.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
ec_launchers.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
ec_launchers.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.channel[:].beam.phase.angle.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].beam.phase.angle.time"]
ece.channel[:].beam.phase.angle.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.channel[:].beam.phase.curvature.data

Data

  • Units: m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "ece.channel[:].beam.phase.curvature.time"]
ece.channel[:].beam.phase.curvature.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.channel[:].beam.spot.angle.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].beam.spot.angle.time"]
ece.channel[:].beam.spot.angle.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.channel[:].beam.spot.size.data

Data

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "ece.channel[:].beam.spot.size.time"]
ece.channel[:].beam.spot.size.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.channel[:].delta_position_suprathermal.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].delta_position_suprathermal.psi

Poloidal flux

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].delta_position_suprathermal.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].delta_position_suprathermal.rho_tor_norm

Normalised toroidal flux coordinate

  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].delta_position_suprathermal.theta

Poloidal angle (oriented clockwise when viewing the poloidal cross section on the right hand side of the tokamak axis of symmetry, with the origin placed on the plasma magnetic axis)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].delta_position_suprathermal.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].frequency.data

Data

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].frequency.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
ece.channel[:].frequency.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].harmonic.data

Data

  • Data Type: INT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].harmonic.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
ece.channel[:].harmonic.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
ece.channel[:].if_bandwidth

Full-width of the Intermediate Frequency (IF) bandpass filter

  • Units: Hz
  • Data Type: FLT_0D
ece.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ece.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ece.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ece.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ece.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ece.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ece.channel[:].name

Name of the channel

  • Data Type: STR_0D
ece.channel[:].optical_depth.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].optical_depth.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
ece.channel[:].optical_depth.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].position.psi

Poloidal flux

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].position.rho_tor_norm

Normalised toroidal flux coordinate

  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].position.theta

Poloidal angle (oriented clockwise when viewing the poloidal cross section on the right hand side of the tokamak axis of symmetry, with the origin placed on the plasma magnetic axis)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].t_e.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].t_e.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
ece.channel[:].t_e.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["ece.channel[:].time"]
ece.channel[:].t_e_voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["ece.channel[:].t_e_voltage.time"]
ece.channel[:].t_e_voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.channel[:].t_e_voltage.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
ece.channel[:].t_e_voltage.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["ece.channel[:].t_e_voltage.time"]
ece.channel[:].time

Timebase for the processed dynamic data of this channel (outside of the beam structure)

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.code.commit

Unique commit reference of software

  • Data Type: STR_0D
ece.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ece.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ece.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ece.code.library[:].name

Name of software

  • Data Type: STR_0D
ece.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ece.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
ece.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ece.code.name

Name of software generating IDS

  • Data Type: STR_0D
ece.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["ece.time"]
ece.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ece.code.repository

URL of software repository

  • Data Type: STR_0D
ece.code.version

Unique version (tag) of software

  • Data Type: STR_0D
ece.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
ece.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
ece.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
ece.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
ece.ids_properties.occurrence

N/A

  • Data Type: INT_0D
ece.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
ece.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ece.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
ece.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
ece.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ece.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
ece.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
ece.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
ece.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
ece.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
ece.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
ece.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
ece.line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ece.line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ece.line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ece.line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ece.line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ece.line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ece.polarizer[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].polarization_angle

Alignment angle of the polarizer in the (x1,x2) plane. Electric fields parallel to the polarizer angle will be reflected. The angle is defined with respect to the x1 unit vector, positive in the counter-clockwise direction when looking towards the plasma

  • Units: rad
  • Data Type: FLT_0D
ece.polarizer[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
ece.polarizer[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
ece.psi_normalization.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["ece.psi_normalization.time"]
ece.psi_normalization.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["ece.psi_normalization.time"]
ece.psi_normalization.time

Time for the R,Z,phi coordinates

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.t_e_central.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["ece.t_e_central.time"]
ece.t_e_central.rho_tor_norm

Normalised toroidal flux coordinate of the measurement

  • Data Type: FLT_1D
  • Coordinates: ["ece.t_e_central.time"]
ece.t_e_central.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ece.t_e_central.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
ece.t_e_central.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["ece.t_e_central.time"]
ece.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.code.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_profiles.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_profiles.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_profiles.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_profiles.code.library[:].name

Name of software

  • Data Type: STR_0D
edge_profiles.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
edge_profiles.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_profiles.code.name

Name of software generating IDS

  • Data Type: STR_0D
edge_profiles.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.time"]
edge_profiles.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.code.repository

URL of software repository

  • Data Type: STR_0D
edge_profiles.code.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_profiles.ggd[:].a_field_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].a_field_parallel[:].values", "1...N"]
edge_profiles.ggd[:].a_field_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].a_field_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].a_field_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].e_field[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].e_field[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].e_field[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].e_field[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].e_field[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].e_field[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].e_field[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].e_field[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].e_field[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].electrons.density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].electrons.density[:].values", "1...N"]
edge_profiles.ggd[:].electrons.density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.density[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.density_fast[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].electrons.density_fast[:].values", "1...N"]
edge_profiles.ggd[:].electrons.density_fast[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.density_fast[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.density_fast[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.distribution_function[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].electrons.distribution_function[:].values", "1...N"]
edge_profiles.ggd[:].electrons.distribution_function[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.distribution_function[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.distribution_function[:].values

One scalar value is provided per element in the grid subset.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.pressure[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].electrons.pressure[:].values", "1...N"]
edge_profiles.ggd[:].electrons.pressure[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.pressure[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.pressure[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.pressure_fast_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].electrons.pressure_fast_parallel[:].values", "1...N"]
edge_profiles.ggd[:].electrons.pressure_fast_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.pressure_fast_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.pressure_fast_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.pressure_fast_perpendicular[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].electrons.pressure_fast_perpendicular[:].values", "1...N"]
edge_profiles.ggd[:].electrons.pressure_fast_perpendicular[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.pressure_fast_perpendicular[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.pressure_fast_perpendicular[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.temperature[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].electrons.temperature[:].values", "1...N"]
edge_profiles.ggd[:].electrons.temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.temperature[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].electrons.velocity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.velocity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].electrons.velocity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].electrons.velocity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].electrons.velocity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].electrons.velocity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].electrons.velocity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].electrons.velocity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].electrons.velocity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].density[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].density[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].density_fast[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].density_fast[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].density_fast[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].density_fast[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].density_fast[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].ion[:].energy_density_kinetic[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].energy_density_kinetic[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].energy_density_kinetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].energy_density_kinetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].energy_density_kinetic[:].values

One scalar value is provided per element in the grid subset.

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
edge_profiles.ggd[:].ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].pressure[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].pressure[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].pressure[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].pressure[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].pressure[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].pressure_fast_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].pressure_fast_parallel[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].pressure_fast_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].pressure_fast_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].pressure_fast_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].pressure_fast_perpendicular[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].pressure_fast_perpendicular[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].pressure_fast_perpendicular[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].pressure_fast_perpendicular[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].pressure_fast_perpendicular[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].density[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].density[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].density_fast[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].density_fast[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].density_fast[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].density_fast[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].density_fast[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].distribution_function[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].distribution_function[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].distribution_function[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].distribution_function[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].distribution_function[:].values

One scalar value is provided per element in the grid subset.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_profiles.ggd[:].ion[:].state[:].energy_density_kinetic[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].energy_density_kinetic[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].energy_density_kinetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].energy_density_kinetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].energy_density_kinetic[:].values

One scalar value is provided per element in the grid subset.

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].ionisation_potential[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Elementary Charge Unit
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].ionisation_potential[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].ionisation_potential[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].ionisation_potential[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].ionisation_potential[:].values

One scalar value is provided per element in the grid subset.

  • Units: Elementary Charge Unit
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].label

String identifying state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
edge_profiles.ggd[:].ion[:].state[:].pressure[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].pressure[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].pressure[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].pressure[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].pressure[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].pressure_fast_parallel[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_perpendicular[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].pressure_fast_perpendicular[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_perpendicular[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_perpendicular[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].pressure_fast_perpendicular[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].temperature[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].temperature[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].temperature[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].velocity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].velocity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_diamagnetic[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].velocity_exb[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_profiles.ggd[:].ion[:].state[:].z_average[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Elementary Charge Unit
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].z_average[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].z_average[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].z_average[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].z_average[:].values

One scalar value is provided per element in the grid subset.

  • Units: Elementary Charge Unit
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].state[:].z_max

Maximum Z of the state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].ion[:].state[:].z_min

Minimum Z of the state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].ion[:].state[:].z_square_average[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Elementary Charge Unit
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].state[:].z_square_average[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].state[:].z_square_average[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].z_square_average[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].state[:].z_square_average[:].values

One scalar value is provided per element in the grid subset.

  • Units: Elementary Charge Unit
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].temperature[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].ion[:].temperature[:].values", "1...N"]
edge_profiles.ggd[:].ion[:].temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].temperature[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].velocity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].ion[:].velocity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].ion[:].velocity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].j_anomalous[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_anomalous[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_anomalous[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_anomalous[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_anomalous[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_anomalous[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_anomalous[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_anomalous[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_anomalous[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_anomalous[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_anomalous[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_anomalous[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_anomalous[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_anomalous[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_anomalous[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_anomalous[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_diamagnetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_diamagnetic[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_diamagnetic[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_heat_viscosity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_heat_viscosity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_heat_viscosity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_inertial[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_inertial[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_inertial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_inertial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_inertial[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_inertial[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_inertial[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_inertial[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_inertial[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_inertial[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_inertial[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_inertial[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_inertial[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_inertial[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_inertial[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_inertial[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_ion_neutral_friction[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_ion_neutral_friction[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_ion_neutral_friction[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].j_parallel[:].values", "1...N"]
edge_profiles.ggd[:].j_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_parallel_viscosity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_parallel_viscosity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_parallel_viscosity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_perpendicular_viscosity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_perpendicular_viscosity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_perpendicular_viscosity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_pfirsch_schlueter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_pfirsch_schlueter[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_pfirsch_schlueter[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_total[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_total[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_total[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].j_total[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].j_total[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_total[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_total[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_total[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_total[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_total[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_total[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_total[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_total[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_total[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].j_total[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].j_total[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].n_i_total_over_n_e[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].n_i_total_over_n_e[:].values", "1...N"]
edge_profiles.ggd[:].n_i_total_over_n_e[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].n_i_total_over_n_e[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].n_i_total_over_n_e[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].density[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].density[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].density_fast[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].density_fast[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].density_fast[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].density_fast[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].density_fast[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].neutral[:].energy_density_kinetic[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].energy_density_kinetic[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].energy_density_kinetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].energy_density_kinetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].energy_density_kinetic[:].values

One scalar value is provided per element in the grid subset.

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].label

String identifying the species (e.g. H, D, T, He, C, D2, DT, CD4, ...)

  • Data Type: STR_0D
edge_profiles.ggd[:].neutral[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].pressure[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].pressure[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].pressure[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].pressure[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].pressure[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].pressure_fast_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].pressure_fast_parallel[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].pressure_fast_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].pressure_fast_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].pressure_fast_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].pressure_fast_perpendicular[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].pressure_fast_perpendicular[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].pressure_fast_perpendicular[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].pressure_fast_perpendicular[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].pressure_fast_perpendicular[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].density[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].density[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].density_fast[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].density_fast[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].density_fast[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].density_fast[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].density_fast[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].distribution_function[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].distribution_function[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].distribution_function[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].distribution_function[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].distribution_function[:].values

One scalar value is provided per element in the grid subset.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_profiles.ggd[:].neutral[:].state[:].energy_density_kinetic[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].energy_density_kinetic[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].energy_density_kinetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].energy_density_kinetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].energy_density_kinetic[:].values

One scalar value is provided per element in the grid subset.

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
edge_profiles.ggd[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
edge_profiles.ggd[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.ggd[:].neutral[:].state[:].pressure[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].pressure[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].pressure[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].pressure[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].pressure[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_parallel[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_perpendicular[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_perpendicular[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_perpendicular[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_perpendicular[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].pressure_fast_perpendicular[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].temperature[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].state[:].temperature[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].temperature[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_diamagnetic[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].state[:].velocity_exb[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_profiles.ggd[:].neutral[:].temperature[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].neutral[:].temperature[:].values", "1...N"]
edge_profiles.ggd[:].neutral[:].temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].temperature[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].velocity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].neutral[:].velocity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].neutral[:].velocity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.ggd[:].phi_potential[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].phi_potential[:].values", "1...N"]
edge_profiles.ggd[:].phi_potential[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].phi_potential[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].phi_potential[:].values

One scalar value is provided per element in the grid subset.

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].pressure_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].pressure_parallel[:].values", "1...N"]
edge_profiles.ggd[:].pressure_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].pressure_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].pressure_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].pressure_perpendicular[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].pressure_perpendicular[:].values", "1...N"]
edge_profiles.ggd[:].pressure_perpendicular[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].pressure_perpendicular[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].pressure_perpendicular[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].pressure_thermal[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].pressure_thermal[:].values", "1...N"]
edge_profiles.ggd[:].pressure_thermal[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].pressure_thermal[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].pressure_thermal[:].values

One scalar value is provided per element in the grid subset.

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].t_i_average[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].t_i_average[:].values", "1...N"]
edge_profiles.ggd[:].t_i_average[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].t_i_average[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].t_i_average[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_profiles.ggd[:].zeff[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_profiles.ggd[:].zeff[:].values", "1...N"]
edge_profiles.ggd[:].zeff[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd[:].zeff[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd[:].zeff[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.ggd_fast[:].electrons.density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].electrons.density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].electrons.density[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: m^-3
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].electrons.temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].electrons.temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].electrons.temperature[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: eV
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].energy_thermal[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].energy_thermal[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].energy_thermal[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: J
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].ion[:].content[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].content[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].content[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].ion[:].density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].density[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: m^-3
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
edge_profiles.ggd_fast[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.ggd_fast[:].ion[:].temperature[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: eV
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.ggd_fast[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_profiles.grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.grid_ggd[:].grid_subset[:].element"]
edge_profiles.grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_profiles.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_profiles.grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_profiles.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_profiles.grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.grid_ggd[:].grid_subset[:].element"]
edge_profiles.grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_profiles.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_profiles.grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_profiles.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_profiles.grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_profiles.grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
edge_profiles.grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_profiles.grid_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_profiles.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
edge_profiles.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
edge_profiles.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
edge_profiles.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
edge_profiles.ids_properties.occurrence

N/A

  • Data Type: INT_0D
edge_profiles.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
edge_profiles.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
edge_profiles.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_profiles.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
edge_profiles.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
edge_profiles.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
edge_profiles.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
edge_profiles.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
edge_profiles.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
edge_profiles.midplane.description

Verbose description

  • Data Type: STR_0D
edge_profiles.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.midplane.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].conductivity_parallel

Parallel conductivity

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].current_parallel_inside

Parallel current driven inside the flux surface. Cumulative surface integral of j_total

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].e_field.diamagnetic

Diamagnetic component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].e_field.parallel

Parallel component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].e_field.poloidal

Poloidal component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].e_field.radial

Radial component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].e_field.toroidal

Toroidal component

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.collisionality_norm

Collisionality normalised to the bounce frequency

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].electrons.density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].electrons.density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.rho_pol_norm

Normalised poloidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].electrons.density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].electrons.density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].electrons.density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.density_fit.measured"]
edge_profiles.profiles_1d[:].electrons.density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.density_validity

Indicator of the validity of the density profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].electrons.pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].electrons.temperature_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.rho_pol_norm

Normalised poloidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].electrons.temperature_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].electrons.temperature_fit.measured"]
edge_profiles.profiles_1d[:].electrons.temperature_validity

Indicator of the validity of the temperature profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].ion[:].density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.rho_pol_norm

Normalised poloidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].density_validity

Indicator of the validity of the density profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].pressure

Pressure (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken) (average over charge states when multiple charge states are considered)

  • Units: rad.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured

Measured values

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.reconstructed

Value reconstructed from the fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.rho_pol_norm

Normalised poloidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].state[:].density_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].state[:].density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].state[:].ionisation_potential

Cumulative and average ionisation potential to reach a given bundle. Defined as sum (xz* (sum of Epot from z'=0 to z-1)), where Epot is the ionisation potential of ion Xz+, and xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: eV
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].state[:].label

String identifying state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].state[:].pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].rotation_frequency_tor

Toroidal rotation frequency (i.e. toroidal velocity divided by the major radius at which the toroidal velocity is taken)

  • Units: rad.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].state[:].z_average

Average Z of the charge state bundle, volume averaged over the plasma radius (equal to zmin if no bundle), = sum (Z*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].state[:].z_average_1d

Average charge profile of the charge state bundle (equal to zmin if no bundle), = sum (Z*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].z_average_square_1d

Average square charge profile of the charge state bundle (equal to zmin squared if no bundle), = sum (Z^2*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].state[:].z_square_average

Average Z square of the charge state bundle, volume averaged over the plasma radius (equal to zmin squared if no bundle), = sum (Z^2*xz) where xz is the relative concentration of a given charge state in the bundle, i.e. sum(xz) = 1 over the bundle.

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].temperature_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.rho_pol_norm

Normalised poloidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].ion[:].temperature_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].ion[:].temperature_fit.measured"]
edge_profiles.profiles_1d[:].ion[:].temperature_validity

Indicator of the validity of the temperature profile. 0: valid from automated processing, 1: valid and certified by the RO; - 1 means problem identified in the data processing (request verification by the RO), -2: invalid data, should not be used

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].ion[:].velocity.diamagnetic

Diamagnetic component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].velocity.parallel

Parallel component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].velocity.poloidal

Poloidal component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].velocity.radial

Radial component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].velocity.toroidal

Toroidal component

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed), volume averaged over plasma radius

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].ion[:].z_ion_1d

Average charge of the ion species (sum of states charge weighted by state density and divided by ion density)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].ion[:].z_ion_square_1d

Average square charge of the ion species (sum of states square charge weighted by state density and divided by ion density)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].j_bootstrap

Bootstrap current density = average(JBootstrap.B) / B0, where B0 = edgeprofiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].j_non_inductive

Non-inductive (includes bootstrap) parallel current density = average(jni.B) / B0, where B0 = edgeprofiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].j_ohmic

Ohmic parallel current density = average(JOhmic.B) / B0, where B0 = edgeprofiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].j_tor

Total toroidal current density = average(J_Tor/R) / average(1/R)

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].j_total

Total parallel current density = average(jtot.B) / B0, where B0 = edgeprofiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].magnetic_shear

Magnetic shear, defined as rhotor/q . dq/drhotor

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].momentum_tor

Total plasma toroidal momentum, summed over ion species and electrons weighted by their density and major radius, i.e. sumoverspecies(nRm*Vphi)

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].n_i_thermal_total

Total ion thermal density (sum over species and charge states)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].neutral[:].label

String identifying the species (e.g. H, D, T, He, C, D2, DT, CD4, ...)

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].neutral[:].pressure

Pressure (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2) (sum over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].neutral[:].state[:].pressure

Pressure (thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].pressure_thermal

Pressure (thermal) associated with random motion ~average((v-average(v))^2)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].neutral[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].phi_potential

Electrostatic potential, averaged on the magnetic flux surface

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].pressure_ion_total

Total (sum over ion species) thermal ion pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].pressure_parallel

Total parallel pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].pressure_perpendicular

Total perpendicular pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].pressure_thermal

Thermal pressure (electrons+ions)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].q

Safety factor

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].rotation_frequency_tor_sonic

Derivative of the flux surface averaged electrostatic potential with respect to the poloidal flux, multiplied by -1. This quantity is the toroidal angular rotation frequency due to the ExB drift, introduced in formula (43) of Hinton and Wong, Physics of Fluids 3082 (1985), also referred to as sonic flow in regimes in which the toroidal velocity is dominant over the poloidal velocity

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].t_i_average

Ion temperature (averaged on charge states and ion species)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].t_i_average_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.measured

Measured values

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].t_i_average_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].t_i_average_fit.reconstructed

Value reconstructed from the fit

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.rho_pol_norm

Normalised poloidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].t_i_average_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].t_i_average_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].t_i_average_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].t_i_average_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].t_i_average_fit.measured"]
edge_profiles.profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_profiles.profiles_1d[:].zeff

Effective charge

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].grid.rho_pol_norm"]
edge_profiles.profiles_1d[:].zeff_fit.chi_squared

Squared error normalized by the weighted standard deviation considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.local

Integer flag : 1 means local measurement, 0 means line-integrated measurement

  • Data Type: INT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.measured

Measured values

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.profiles_1d[:].zeff_fit.parameters

List of the fit specific parameters in XML format

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].zeff_fit.reconstructed

Value reconstructed from the fit

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.rho_pol_norm

Normalised poloidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.rho_tor_norm

Normalised toroidal flux coordinate of each measurement (local value for a local measurement, minimum value reached by the line of sight for a line measurement)

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.source

Path to the source data for each measurement in the IMAS data dictionary, e.g. ece/channel(i)/t_e for the electron temperature on the i-th channel in the ECE IDS

  • Data Type: STR_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.time_measurement

Exact time slices used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.time_measurement_slice_method.description

Verbose description

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].zeff_fit.time_measurement_slice_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.profiles_1d[:].zeff_fit.time_measurement_slice_method.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.profiles_1d[:].zeff_fit.time_measurement_width

In case the measurements are averaged over a time interval, this node is the full width of this time interval (empty otherwise). In case the slicing/averaging method doesn't use a hard time interval cutoff, this width is the characteristic time span of the slicing/averaging method. By convention, the time interval starts at timemeasurement-timewidth and ends at time_measurement.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.profiles_1d[:].zeff_fit.weight

Weight given to each measured value

  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.profiles_1d[:].zeff_fit.measured"]
edge_profiles.statistics[:].quantity_2d[:].distribution.bins

Bins of quantitiy values, defined for each element (first dimension) corresponding to the first dimension of the original 2D quantity

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.statistics[:].quantity_2d[:].distribution.probability

Probability to have a value of the quantity between bins(n) and bins(n+1) (thus the size of its second dimension is the size of the second dimension of the bins array - 1). The first dimension correspond to the first dimension of the original 2D quantity

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.statistics[:].quantity_2d[:].path

Path of the quantity within the IDS, following the syntax given in the link below

  • Data Type: STR_0D
edge_profiles.statistics[:].quantity_2d[:].statistics_type[:].grid_index

Only if the statistics value is given on a different GGD grid subset than the original quantity (e.g. if the statistics has worked over a dimension of the GGD), index of the grid used to represent the statistics value

  • Data Type: INT_0D
edge_profiles.statistics[:].quantity_2d[:].statistics_type[:].grid_subset_index

Only if the statistics value is given on a different GGD grid subset than the original quantity (e.g. if the statistics has worked over a dimension of the GGD), index of the new grid subset the statistics value is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_profiles.statistics[:].quantity_2d[:].statistics_type[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_profiles.statistics[:].quantity_2d[:].statistics_type[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_profiles.statistics[:].quantity_2d[:].statistics_type[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_profiles.statistics[:].quantity_2d[:].statistics_type[:].uq_input_path

For Sobol index only, path to the related the uqinput quantity, e.g. ../../../uqinput_2d(3)

  • Data Type: INT_0D
edge_profiles.statistics[:].quantity_2d[:].statistics_type[:].value

Value of the statistics for that quantity, the array corresponding to the first dimension of the original 2D quantity

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.statistics[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_profiles.statistics[:].time_width

Width of the time interval over which the statistics have been calculated. By convention, the time interval starts at time-time_width and ends at time.

  • Units: s
  • Data Type: FLT_0D
edge_profiles.statistics[:].uq_input_2d[:].distribution.bins

Bins of quantitiy values, defined for each element (first dimension) corresponding to the first dimension of the original 2D quantity

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.statistics[:].uq_input_2d[:].distribution.probability

Probability to have a value of the quantity between bins(n) and bins(n+1) (thus the size of its second dimension is the size of the second dimension of the bins array - 1). The first dimension correspond to the first dimension of the original 2D quantity

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_profiles.statistics[:].uq_input_2d[:].path

Path of the quantity within the IDS, following the syntax given in the link below

  • Data Type: STR_0D
edge_profiles.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_profiles.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["edge_profiles.time"]
edge_profiles.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
edge_sources.code.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_sources.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_sources.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_sources.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_sources.code.library[:].name

Name of software

  • Data Type: STR_0D
edge_sources.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_sources.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
edge_sources.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_sources.code.name

Name of software generating IDS

  • Data Type: STR_0D
edge_sources.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["edge_sources.time"]
edge_sources.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_sources.code.repository

URL of software repository

  • Data Type: STR_0D
edge_sources.code.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_sources.grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["edge_sources.grid_ggd[:].grid_subset[:].element"]
edge_sources.grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_sources.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_sources.grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_sources.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_sources.grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
edge_sources.grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
edge_sources.grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
edge_sources.grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
edge_sources.grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_sources.grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_sources.grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["edge_sources.grid_ggd[:].grid_subset[:].element"]
edge_sources.grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_sources.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_sources.grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_sources.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_sources.grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_sources.grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_sources.grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
edge_sources.grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_sources.grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
edge_sources.grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
edge_sources.grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_sources.grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
edge_sources.grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_sources.grid_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_sources.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
edge_sources.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
edge_sources.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
edge_sources.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
edge_sources.ids_properties.occurrence

N/A

  • Data Type: INT_0D
edge_sources.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
edge_sources.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
edge_sources.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_sources.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
edge_sources.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
edge_sources.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
edge_sources.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
edge_sources.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
edge_sources.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
edge_sources.midplane.description

Verbose description

  • Data Type: STR_0D
edge_sources.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.midplane.name

Short string identifier

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].current[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].current[:].values", "1...N"]
edge_sources.source[:].ggd[:].current[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].current[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].current[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].electrons.energy[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].electrons.energy[:].values", "1...N"]
edge_sources.source[:].ggd[:].electrons.energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].electrons.energy[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].electrons.energy[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].electrons.particles[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].electrons.particles[:].values", "1...N"]
edge_sources.source[:].ggd[:].electrons.particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].electrons.particles[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].electrons.particles[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].ion[:].energy[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].ion[:].energy[:].values", "1...N"]
edge_sources.source[:].ggd[:].ion[:].energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].energy[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].energy[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].ion[:].momentum[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].momentum[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].momentum[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].momentum[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].particles[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: s^-1.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].ion[:].particles[:].values", "1...N"]
edge_sources.source[:].ggd[:].ion[:].particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].particles[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].particles[:].values

One scalar value is provided per element in the grid subset.

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].ion[:].state[:].energy[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].ion[:].state[:].energy[:].values", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].energy[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].energy[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].label

String identifying state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].momentum[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].particles[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: s^-1.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].ion[:].state[:].particles[:].values", "1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].particles[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].particles[:].values

One scalar value is provided per element in the grid subset.

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].ion[:].state[:].z_max

Maximum Z of the state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].ion[:].state[:].z_min

Minimum Z of the state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].momentum[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].momentum[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].momentum[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].momentum[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].momentum[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].momentum[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].momentum[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].momentum[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].momentum[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].momentum[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].momentum[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].momentum[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].momentum[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].momentum[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].momentum[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].momentum[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].neutral[:].energy[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].neutral[:].energy[:].values", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].energy[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].energy[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].neutral[:].momentum[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].momentum[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].momentum[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].momentum[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].particles[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: s^-1.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].neutral[:].particles[:].values", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].particles[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].particles[:].values

One scalar value is provided per element in the grid subset.

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].energy[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].neutral[:].state[:].energy[:].values", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].energy[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].energy[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].momentum[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].particles[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: s^-1.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].neutral[:].state[:].particles[:].values", "1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].particles[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].particles[:].values

One scalar value is provided per element in the grid subset.

  • Units: s^-1.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_sources.source[:].ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_sources.source[:].ggd[:].total_ion_energy[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["edge_sources.source[:].ggd[:].total_ion_energy[:].values", "1...N"]
edge_sources.source[:].ggd[:].total_ion_energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].total_ion_energy[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd[:].total_ion_energy[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_sources.source[:].ggd_fast[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd_fast[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_sources.source[:].ggd_fast[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd_fast[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
edge_sources.source[:].ggd_fast[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
edge_sources.source[:].ggd_fast[:].ion[:].power[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_sources.source[:].ggd_fast[:].ion[:].power[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_sources.source[:].ggd_fast[:].ion[:].power[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: W
  • Data Type: FLT_0D
edge_sources.source[:].ggd_fast[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].ggd_fast[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_sources.source[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_sources.source[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.source[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_sources.source[:].species.ion.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.ion.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_sources.source[:].species.ion.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.ion.label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
edge_sources.source[:].species.ion.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_sources.source[:].species.ion.state.label

String identifying ion state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
edge_sources.source[:].species.ion.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.ion.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_sources.source[:].species.ion.state.z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.ion.state.z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.ion.z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.neutral.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.neutral.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_sources.source[:].species.neutral.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.neutral.label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
edge_sources.source[:].species.neutral.state.electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_sources.source[:].species.neutral.state.label

String identifying neutral state

  • Data Type: STR_0D
edge_sources.source[:].species.neutral.state.neutral_type.description

Verbose description

  • Data Type: STR_0D
edge_sources.source[:].species.neutral.state.neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.source[:].species.neutral.state.neutral_type.name

Short string identifier

  • Data Type: STR_0D
edge_sources.source[:].species.neutral.state.vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_sources.source[:].species.neutral.state.vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_sources.source[:].species.type.description

Verbose description

  • Data Type: STR_0D
edge_sources.source[:].species.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_sources.source[:].species.type.name

Short string identifier

  • Data Type: STR_0D
edge_sources.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.code.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.code.library[:].name

Name of software

  • Data Type: STR_0D
edge_transport.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_transport.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
edge_transport.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.code.name

Name of software generating IDS

  • Data Type: STR_0D
edge_transport.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["edge_transport.time"]
edge_transport.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_transport.code.repository

URL of software repository

  • Data Type: STR_0D
edge_transport.code.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["edge_transport.grid_ggd[:].grid_subset[:].element"]
edge_transport.grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_transport.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_transport.grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_transport.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_transport.grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
edge_transport.grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
edge_transport.grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
edge_transport.grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
edge_transport.grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_transport.grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_transport.grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["edge_transport.grid_ggd[:].grid_subset[:].element"]
edge_transport.grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_transport.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_transport.grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["edge_transport.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
edge_transport.grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_transport.grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_transport.grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
edge_transport.grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_transport.grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
edge_transport.grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
edge_transport.grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_transport.grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
edge_transport.grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
edge_transport.grid_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_transport.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
edge_transport.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
edge_transport.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
edge_transport.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
edge_transport.ids_properties.occurrence

N/A

  • Data Type: INT_0D
edge_transport.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
edge_transport.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
edge_transport.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
edge_transport.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
edge_transport.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
edge_transport.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
edge_transport.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
edge_transport.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
edge_transport.midplane.description

Verbose description

  • Data Type: STR_0D
edge_transport.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.midplane.name

Short string identifier

  • Data Type: STR_0D
edge_transport.model[:].code.commit

Unique commit reference of software

  • Data Type: STR_0D
edge_transport.model[:].code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
edge_transport.model[:].code.name

Name of software used

  • Data Type: STR_0D
edge_transport.model[:].code.output_flag.data

Data

  • Data Type: INT_1D
  • Coordinates: ["edge_transport.model[:].code.output_flag.time"]
edge_transport.model[:].code.output_flag.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
edge_transport.model[:].code.repository

URL of software repository

  • Data Type: STR_0D
edge_transport.model[:].code.version

Unique version (tag) of software

  • Data Type: STR_0D
edge_transport.model[:].flux_multiplier

Multiplier applied to the particule flux when adding its contribution in the expression of the heat flux : can be 0, 3/2 or 5/2

  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].conductivity[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].conductivity[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: ohm^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].conductivity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].conductivity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].conductivity[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].conductivity[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: ohm^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].conductivity[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].conductivity[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: ohm^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].conductivity[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].conductivity[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: ohm^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].conductivity[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].conductivity[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: ohm^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].conductivity[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].conductivity[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: ohm^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].conductivity[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].conductivity[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: ohm^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.energy.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.energy.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.energy.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.energy.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].electrons.particles.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].electrons.particles.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].electrons.particles.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].electrons.particles.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].ion[:].energy.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].energy.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].energy.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].energy.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].momentum.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].momentum.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_limiter[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].momentum.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].momentum.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].momentum.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].momentum.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].momentum.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].momentum.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].particles.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].particles.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].particles.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].energy.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].label

String identifying state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_limiter[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].momentum.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].particles.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].ion[:].state[:].z_max

Maximum Z of the state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].ion[:].state[:].z_min

Minimum Z of the state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].momentum.d[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.d[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].momentum.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].momentum.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].momentum.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].momentum.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_limiter[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].momentum.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].momentum.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].momentum.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.v[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].momentum.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].momentum.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].momentum.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].momentum.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].momentum.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].momentum.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].momentum.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].energy.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].energy.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].energy.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].momentum.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].momentum.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_limiter[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].momentum.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].momentum.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].momentum.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].momentum.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].momentum.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].momentum.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].particles.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].particles.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].particles.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].energy.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_limiter[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].diamagnetic

Diamagnetic component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].diamagnetic_coefficients

Interpolation coefficients for the diamagnetic component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].parallel

Parallel component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].parallel_coefficients

Interpolation coefficients for the parallel component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].poloidal

Poloidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].poloidal_coefficients

Interpolation coefficients for the poloidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].radial

Radial component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].radial_coefficients

Interpolation coefficients for the radial component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].momentum.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].particles.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
edge_transport.model[:].ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_transport.model[:].ggd[:].total_ion_energy.d[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.d[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.d[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.d[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.d[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.d_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.d_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.d_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.d_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.d_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.d_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.d_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.d_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.d_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.d_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.flux[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux_limiter[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.flux_limiter[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux_limiter[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux_limiter[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux_limiter[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.flux_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.flux_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.flux_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.flux_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.v[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.v[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.v[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.v[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.v[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.v_pol[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.v_pol[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.v_pol[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.v_pol[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.v_pol[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.v_radial[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["edge_transport.model[:].ggd[:].total_ion_energy.v_radial[:].values", "1...N"]
edge_transport.model[:].ggd[:].total_ion_energy.v_radial[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.v_radial[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd[:].total_ion_energy.v_radial[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
edge_transport.model[:].ggd_fast[:].electrons.particle_flux_integrated[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].electrons.particle_flux_integrated[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].electrons.particle_flux_integrated[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: s^-1
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].electrons.power[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].electrons.power[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].electrons.power[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: W
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].energy_flux_max[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].energy_flux_max[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].energy_flux_max[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: W.m^-2
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
edge_transport.model[:].ggd_fast[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].ion[:].particle_flux_integrated[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].ion[:].particle_flux_integrated[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].ion[:].particle_flux_integrated[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: s^-1
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].neutral[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
edge_transport.model[:].ggd_fast[:].neutral[:].particle_flux_integrated[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].neutral[:].particle_flux_integrated[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].neutral[:].particle_flux_integrated[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: s^-1
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].power[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].power[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].power[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: W
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].power_ion_total[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].power_ion_total[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
edge_transport.model[:].ggd_fast[:].power_ion_total[:].value

Scalar value of the quantity on the grid subset (corresponding to a single local position or to an integrated value over the subset)

  • Units: W
  • Data Type: FLT_0D
edge_transport.model[:].ggd_fast[:].time

Time

  • Units: s
  • Data Type: FLT_0D
edge_transport.model[:].identifier.description

Verbose description

  • Data Type: STR_0D
edge_transport.model[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
edge_transport.model[:].identifier.name

Short string identifier

  • Data Type: STR_0D
edge_transport.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
em_coupling.active_coils

List of URIs of the active coils considered in the IDS

  • Data Type: STR_1D
  • Coordinates: ["pf_active.coil"]
em_coupling.b_field_pol_probes

List of URIs of the poloidal field probes considered in the IDS

  • Data Type: STR_1D
  • Coordinates: ["magnetics.b_field_pol_probe"]
em_coupling.b_field_pol_probes_active

Poloidal field coupling from active coils to poloidal field probes

  • Units: T/A
  • Data Type: FLT_2D
  • Coordinates: ["magnetics.b_field_pol_probe", "em_coupling.active_coils"]
em_coupling.b_field_pol_probes_passive

Poloidal field coupling from passive loops to poloidal field probes

  • Units: T/A
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.b_field_pol_probes", "em_coupling.passive_loops"]
em_coupling.b_field_pol_probes_plasma

Poloidal field coupling from plasma elements to poloidal field probes

  • Units: T/A
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.b_field_pol_probes", "em_coupling.plasma_elements"]
em_coupling.code.commit

Unique commit reference of software

  • Data Type: STR_0D
em_coupling.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
em_coupling.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
em_coupling.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
em_coupling.code.library[:].name

Name of software

  • Data Type: STR_0D
em_coupling.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
em_coupling.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
em_coupling.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
em_coupling.code.name

Name of software generating IDS

  • Data Type: STR_0D
em_coupling.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["em_coupling.time"]
em_coupling.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
em_coupling.code.repository

URL of software repository

  • Data Type: STR_0D
em_coupling.code.version

Unique version (tag) of software

  • Data Type: STR_0D
em_coupling.coupling_matrix[:].columns_uri

List of URIs corresponding to the columns (2nd dimension) of the coupling matrix. See examples above (rows_uri)

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
em_coupling.coupling_matrix[:].data

Coupling matrix

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.coupling_matrix[:].rows_uri", "em_coupling.coupling_matrix[:].columns_uri"]
em_coupling.coupling_matrix[:].name

Name of this coupling matrix

  • Data Type: STR_0D
em_coupling.coupling_matrix[:].quantity.description

Verbose description

  • Data Type: STR_0D
em_coupling.coupling_matrix[:].quantity.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
em_coupling.coupling_matrix[:].quantity.name

Short string identifier

  • Data Type: STR_0D
em_coupling.coupling_matrix[:].rows_uri

List of URIs corresponding to the rows (1st dimension) of the coupling matrix. If not all indices of a given node are used, they must be listed explicitly e.g. rowsuri(i) = pfactive:1/coil(i) will refer to a list of indices of the occurrence 1 of the pfactive IDS of this data entry. If the rows correspond to all indices of a given vector, it is sufficient to give a insgle uri, the one of the vector with the impliicit notation (:), e.g. rowsuri(1) = /gridggd(3)/gridsubset(2)/elements(:).

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
em_coupling.flux_loops

List of URIs of the flux loops considered in the IDS

  • Data Type: STR_1D
  • Coordinates: ["magnetics.flux_loop"]
em_coupling.grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["em_coupling.grid_ggd[:].grid_subset[:].element"]
em_coupling.grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["em_coupling.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
em_coupling.grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["em_coupling.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
em_coupling.grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements. This must be equal to the sum of the dimensions of the individual objects forming the element.

  • Data Type: INT_0D
em_coupling.grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object

  • Data Type: INT_0D
em_coupling.grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
em_coupling.grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
em_coupling.grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
em_coupling.grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
em_coupling.grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
em_coupling.grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["em_coupling.grid_ggd[:].grid_subset[:].element"]
em_coupling.grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["em_coupling.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
em_coupling.grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["em_coupling.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
em_coupling.grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
em_coupling.grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
em_coupling.grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
em_coupling.grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
em_coupling.grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
em_coupling.grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
em_coupling.grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
em_coupling.grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
em_coupling.grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
em_coupling.grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
em_coupling.grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object may have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object. Its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
em_coupling.grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
em_coupling.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
em_coupling.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
em_coupling.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
em_coupling.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
em_coupling.ids_properties.occurrence

N/A

  • Data Type: INT_0D
em_coupling.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
em_coupling.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
em_coupling.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
em_coupling.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
em_coupling.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
em_coupling.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
em_coupling.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
em_coupling.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
em_coupling.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
em_coupling.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
em_coupling.mutual_active_active

Mutual inductance coupling from active coils to active coils

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.active_coils", "em_coupling.active_coils"]
em_coupling.mutual_loops_active

Mutual inductance coupling from active coils to flux loops

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.flux_loops", "em_coupling.active_coils"]
em_coupling.mutual_loops_passive

Mutual inductance coupling from passive loops to flux loops

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.flux_loops", "em_coupling.passive_loops"]
em_coupling.mutual_loops_plasma

Mutual inductance from plasma elements to poloidal flux loops

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.flux_loops", "em_coupling.plasma_elements"]
em_coupling.mutual_passive_active

Mutual inductance coupling from active coils to passive loops

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.passive_loops", "em_coupling.active_coils"]
em_coupling.mutual_passive_passive

Mutual inductance coupling from passive loops to passive loops

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.passive_loops", "em_coupling.passive_loops"]
em_coupling.mutual_plasma_active

Mutual inductance coupling from active coils to plasma elements

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.plasma_elements", "em_coupling.active_coils"]
em_coupling.mutual_plasma_passive

Mutual inductance coupling from passive loops to plasma elements

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.plasma_elements", "em_coupling.passive_loops"]
em_coupling.mutual_plasma_plasma

Mutual inductance coupling from plasma elements to plasma elements

  • Units: H
  • Data Type: FLT_2D
  • Coordinates: ["em_coupling.plasma_elements", "em_coupling.plasma_elements"]
em_coupling.passive_loops

List of URIs of the passive loops considered in the IDS

  • Data Type: STR_1D
  • Coordinates: ["pf_passive.loop"]
em_coupling.plasma_elements

List of URIs of the plasma elements considered in the IDS

  • Data Type: STR_1D
  • Coordinates: ["pf_plasma.element"]
em_coupling.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.code.commit

Unique commit reference of software

  • Data Type: STR_0D
equilibrium.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
equilibrium.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
equilibrium.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
equilibrium.code.library[:].name

Name of software

  • Data Type: STR_0D
equilibrium.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
equilibrium.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
equilibrium.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
equilibrium.code.name

Name of software generating IDS

  • Data Type: STR_0D
equilibrium.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["equilibrium.time"]
equilibrium.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
equilibrium.code.repository

URL of software repository

  • Data Type: STR_0D
equilibrium.code.version

Unique version (tag) of software

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.grids_ggd[:].grid[:].grid_subset[:].element"]
equilibrium.grids_ggd[:].grid[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["equilibrium.grids_ggd[:].grid[:].grid_subset[:].element", "1...N", "1...N"]
equilibrium.grids_ggd[:].grid[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["equilibrium.grids_ggd[:].grid[:].grid_subset[:].element", "1...N", "1...N"]
equilibrium.grids_ggd[:].grid[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.grids_ggd[:].grid[:].grid_subset[:].element"]
equilibrium.grids_ggd[:].grid[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["equilibrium.grids_ggd[:].grid[:].grid_subset[:].element", "1...N", "1...N"]
equilibrium.grids_ggd[:].grid[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["equilibrium.grids_ggd[:].grid[:].grid_subset[:].element", "1...N", "1...N"]
equilibrium.grids_ggd[:].grid[:].identifier.description

Verbose description

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].identifier.name

Short string identifier

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: 'wall:0/descriptionggd(1)/gridggd', means that the grid is located in the wall IDS, occurrence 0, with ids path 'descriptionggd(1)/gridggd'. See the link below for more details about IDS paths

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
equilibrium.grids_ggd[:].grid[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
equilibrium.grids_ggd[:].grid[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
equilibrium.grids_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
equilibrium.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
equilibrium.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
equilibrium.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
equilibrium.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
equilibrium.ids_properties.occurrence

N/A

  • Data Type: INT_0D
equilibrium.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
equilibrium.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
equilibrium.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
equilibrium.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
equilibrium.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
equilibrium.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
equilibrium.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
equilibrium.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
equilibrium.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
equilibrium.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].boundary.active_limiter_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.active_limiter_point.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.elongation

Elongation of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.elongation_lower

Elongation (lower half w.r.t. geometric axis) of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.elongation_upper

Elongation (upper half w.r.t. geometric axis) of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.geometric_axis.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.geometric_axis.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.minor_radius

Minor radius of the plasma boundary (defined as (Rmax-Rmin) / 2 of the boundary)

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].boundary.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].boundary.outline.r"]
equilibrium.time_slice[:].boundary.ovality

Ovality of the plasma boundary [MXH c1]

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.psi

Value of the poloidal flux at which the boundary is taken

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.psi_norm

Value of the normalised poloidal flux at which the boundary is taken (typically 99.x %), the flux being normalised to its value at the separatrix

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.squareness

Squareness of the plasma boundary [MXH -s2]

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.squareness_lower_inner

Lower inner squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.squareness_lower_outer

Lower outer squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.squareness_upper_inner

Upper inner squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.squareness_upper_outer

Upper outer squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.strike_point[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.strike_point[:].z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.tilt

Tilt of the plasma boundary [MXH c0]

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.triangularity

Triangularity of the plasma boundary [MXH sin(s1)]

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.triangularity_lower

Lower triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.triangularity_upper

Upper triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.twist

Twist of the plasma boundary [MXH c2]

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.type

0 (limiter) or 1 (diverted)

  • Data Type: INT_0D
equilibrium.time_slice[:].boundary.x_point[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary.x_point[:].z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_secondary_separatrix.distance_inner_outer

Distance between the inner and outer separatrices, in the major radius direction, at the plasma outboard and at the height corresponding to the maximum R for the inner separatrix.

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_secondary_separatrix.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].boundary_secondary_separatrix.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].boundary_secondary_separatrix.outline.r"]
equilibrium.time_slice[:].boundary_secondary_separatrix.psi

Value of the poloidal flux at the separatrix

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_secondary_separatrix.strike_point[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_secondary_separatrix.strike_point[:].z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_secondary_separatrix.x_point[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_secondary_separatrix.x_point[:].z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.active_limiter_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.active_limiter_point.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.closest_wall_point.distance

Distance to the plasma boundary

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.closest_wall_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.closest_wall_point.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.dr_dz_zero_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.dr_dz_zero_point.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.elongation

Elongation of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.elongation_lower

Elongation (lower half w.r.t. geometric axis) of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.elongation_upper

Elongation (upper half w.r.t. geometric axis) of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.gap[:].angle

Angle measured clockwise from radial cylindrical vector (grad R) to gap vector (pointing away from reference point)

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.gap[:].identifier

Identifier of the gap

  • Data Type: STR_0D
equilibrium.time_slice[:].boundary_separatrix.gap[:].name

Name of the gap

  • Data Type: STR_0D
equilibrium.time_slice[:].boundary_separatrix.gap[:].r

Major radius of the reference point

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.gap[:].value

Value of the gap, i.e. distance between the reference point and the separatrix along the gap direction

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.gap[:].z

Height of the reference point

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.geometric_axis.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.geometric_axis.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.minor_radius

Minor radius of the plasma boundary (defined as (Rmax-Rmin) / 2 of the boundary)

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].boundary_separatrix.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].boundary_separatrix.outline.r"]
equilibrium.time_slice[:].boundary_separatrix.psi

Value of the poloidal flux at the separatrix

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.squareness_lower_inner

Lower inner squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.squareness_lower_outer

Lower outer squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.squareness_upper_inner

Upper inner squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.squareness_upper_outer

Upper outer squareness of the plasma boundary (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.strike_point[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.strike_point[:].z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.triangularity

Triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.triangularity_inner

Inner triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.triangularity_lower

Lower triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.triangularity_minor

Minor triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.triangularity_outer

Outer triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.triangularity_upper

Upper triangularity of the plasma boundary

  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.type

0 (limiter) or 1 (diverted)

  • Data Type: INT_0D
equilibrium.time_slice[:].boundary_separatrix.x_point[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].boundary_separatrix.x_point[:].z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.b_field_tor_vacuum_r.chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.b_field_tor_vacuum_r.exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.b_field_tor_vacuum_r.measured

Measured value

  • Units: T.m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.b_field_tor_vacuum_r.reconstructed

Value calculated from the reconstructed equilibrium

  • Units: T.m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.b_field_tor_vacuum_r.source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.b_field_tor_vacuum_r.time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.b_field_tor_vacuum_r.weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.bpol_probe[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.bpol_probe[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.bpol_probe[:].measured

Measured value

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.bpol_probe[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.bpol_probe[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.bpol_probe[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.bpol_probe[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.chi_squared_reduced

Sum of the chi_squared of all constraints used for the equilibrium reconstruction, divided by the number of degrees of freedom of the identification model

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.constraints_n

Number of constraints used (i.e. having a non-zero weight)

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.diamagnetic_flux.chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.diamagnetic_flux.exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.diamagnetic_flux.measured

Measured value

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.diamagnetic_flux.reconstructed

Value calculated from the reconstructed equilibrium

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.diamagnetic_flux.source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.diamagnetic_flux.time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.diamagnetic_flux.weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.faraday_angle[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.faraday_angle[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.faraday_angle[:].measured

Measured value

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.faraday_angle[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.faraday_angle[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.faraday_angle[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.faraday_angle[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.flux_loop[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.flux_loop[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.flux_loop[:].measured

Measured value

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.flux_loop[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.flux_loop[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.flux_loop[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.flux_loop[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.freedom_degrees_n

Number of degrees of freedom of the identification model

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.ip.chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.ip.exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.ip.measured

Measured value

  • Units: A
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.ip.reconstructed

Value calculated from the reconstructed equilibrium

  • Units: A
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.ip.source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.ip.time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.ip.weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_r.chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_r.exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_r.measured

Measured value

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_r.reconstructed

Value calculated from the reconstructed equilibrium

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_r.source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_r.time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_r.weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_z.chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_z.exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_z.measured

Measured value

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_z.reconstructed

Value calculated from the reconstructed equilibrium

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_z.source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_z.time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.iron_core_segment[:].magnetisation_z.weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: A.m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].measured

Measured value

  • Units: A.m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.j_parallel[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_parallel[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: A.m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.j_tor[:].measured

Measured value

  • Units: A.m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.j_tor[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.j_tor[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.mse_polarisation_angle[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.mse_polarisation_angle[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.mse_polarisation_angle[:].measured

Measured value

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.mse_polarisation_angle[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.mse_polarisation_angle[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.mse_polarisation_angle[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.mse_polarisation_angle[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: m^-3
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.n_e[:].measured

Measured value

  • Units: m^-3
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.n_e[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e_line[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e_line[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.n_e_line[:].measured

Measured value

  • Units: m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e_line[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Units: m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e_line[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.n_e_line[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.n_e_line[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_current[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_current[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.pf_current[:].measured

Measured value

  • Units: A
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_current[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Units: A
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_current[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.pf_current[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_current[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_passive_current[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_passive_current[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.pf_passive_current[:].measured

Measured value

  • Units: A
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_passive_current[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Units: A
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_passive_current[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.pf_passive_current[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pf_passive_current[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: Pa
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.pressure[:].measured

Measured value

  • Units: Pa
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.pressure[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: Pa
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].measured

Measured value

  • Units: Pa
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.pressure_rotational[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].chi_squared

Squared error normalized by the variance considered in the minimization process : chi_squared = weight^2 *(reconstructed - measured)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.q[:].measured

Measured value

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].reconstructed

Value calculated from the reconstructed equilibrium

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.q[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.q[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].chi_squared_r

Squared error on the major radius normalized by the variance considered in the minimization process : chisquared = weight^2 *(positionreconstructed/r - position_measured/r)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].chi_squared_z

Squared error on the altitude normalized by the variance considered in the minimization process : chisquared = weight^2 *(positionreconstructed/z - position_measured/z)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.strike_point[:].position_measured.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].position_measured.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].position_reconstructed.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].position_reconstructed.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.strike_point[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.strike_point[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].chi_squared_r

Squared error on the major radius normalized by the variance considered in the minimization process : chisquared = weight^2 *(positionreconstructed/r - position_measured/r)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].chi_squared_z

Squared error on the altitude normalized by the variance considered in the minimization process : chisquared = weight^2 *(positionreconstructed/z - position_measured/z)^2 / sigma^2, where sigma is the standard deviation of the measurement error

  • Units: m^-2
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].exact

Integer flag : 1 means exact data, taken as an exact input without being fitted; 0 means the equilibrium code does a least square fit

  • Data Type: INT_0D
equilibrium.time_slice[:].constraints.x_point[:].position_measured.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].position_measured.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].position_reconstructed.r

Major radius

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].position_reconstructed.z

Height

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].source

Path to the source data for this measurement in the IMAS data dictionary

  • Data Type: STR_0D
equilibrium.time_slice[:].constraints.x_point[:].time_measurement

Exact time slice used from the time array of the measurement source data. If the time slice does not exist in the time array of the source data, it means linear interpolation has been used

  • Units: s
  • Data Type: FLT_0D
equilibrium.time_slice[:].constraints.x_point[:].weight

Weight given to the measurement

  • Data Type: FLT_0D
equilibrium.time_slice[:].convergence.grad_shafranov_deviation_expression.description

Verbose description

  • Data Type: STR_0D
equilibrium.time_slice[:].convergence.grad_shafranov_deviation_expression.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.time_slice[:].convergence.grad_shafranov_deviation_expression.name

Short string identifier

  • Data Type: STR_0D
equilibrium.time_slice[:].convergence.grad_shafranov_deviation_value

Value of the residual deviation between the left and right hand side of the Grad Shafranov equation, evaluated as per gradshafranovdeviation_expression

  • Units: mixed
  • Data Type: FLT_0D
equilibrium.time_slice[:].convergence.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
equilibrium.time_slice[:].convergence.result.description

Verbose description

  • Data Type: STR_0D
equilibrium.time_slice[:].convergence.result.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.time_slice[:].convergence.result.name

Short string identifier

  • Data Type: STR_0D
equilibrium.time_slice[:].coordinate_system.grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].coordinate_system.grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].coordinate_system.grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].coordinate_system.grid.dim1", "equilibrium.time_slice[:].coordinate_system.grid.dim2"]
equilibrium.time_slice[:].coordinate_system.grid_type.description

Verbose description

  • Data Type: STR_0D
equilibrium.time_slice[:].coordinate_system.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.time_slice[:].coordinate_system.grid_type.name

Short string identifier

  • Data Type: STR_0D
equilibrium.time_slice[:].coordinate_system.jacobian

Absolute value of the jacobian of the coordinate system

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].coordinate_system.grid.dim1", "equilibrium.time_slice[:].coordinate_system.grid.dim2"]
equilibrium.time_slice[:].coordinate_system.r

Values of the major radius on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].coordinate_system.grid.dim1", "equilibrium.time_slice[:].coordinate_system.grid.dim2"]
equilibrium.time_slice[:].coordinate_system.tensor_contravariant

Contravariant metric tensor on every point of the grid described by grid_type

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["equilibrium.time_slice[:].coordinate_system.grid.dim1", "equilibrium.time_slice[:].coordinate_system.grid.dim2", "1...3", "1...3"]
equilibrium.time_slice[:].coordinate_system.tensor_covariant

Covariant metric tensor on every point of the grid described by grid_type

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["equilibrium.time_slice[:].coordinate_system.grid.dim1", "equilibrium.time_slice[:].coordinate_system.grid.dim2", "1...3", "1...3"]
equilibrium.time_slice[:].coordinate_system.z

Values of the Height on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].coordinate_system.grid.dim1", "equilibrium.time_slice[:].coordinate_system.grid.dim2"]
equilibrium.time_slice[:].ggd[:].b_field_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].b_field_r[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].b_field_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].b_field_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].b_field_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].b_field_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].b_field_tor[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].b_field_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].b_field_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].b_field_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].b_field_z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].b_field_z[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].b_field_z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].b_field_z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].b_field_z[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].j_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].j_parallel[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].j_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].j_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].j_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].j_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].j_tor[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].j_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].j_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].j_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].phi[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Wb
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].phi[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].phi[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].phi[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].phi[:].values

One scalar value is provided per element in the grid subset.

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].psi[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Wb
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].psi[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].psi[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].psi[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].psi[:].values

One scalar value is provided per element in the grid subset.

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].r[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].r[:].values

One scalar value is provided per element in the grid subset.

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].theta[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].theta[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].theta[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].theta[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].theta[:].values

One scalar value is provided per element in the grid subset.

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].ggd[:].z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].ggd[:].z[:].values", "1...N"]
equilibrium.time_slice[:].ggd[:].z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
equilibrium.time_slice[:].ggd[:].z[:].values

One scalar value is provided per element in the grid subset.

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].global_quantities.area

Area of the LCFS poloidal cross section

  • Units: m^2
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.beta_normal

Normalised toroidal beta, defined as 100 * beta_tor * a[m] * B0 [T] / ip [MA]

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.beta_pol

Poloidal beta. Defined as betap = 4 int(p dV) / [R0 * mu0 * Ip^2]

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.beta_tor

Toroidal beta, defined as the volume-averaged total perpendicular pressure divided by (B0^2/(2*mu0)), i.e. beta_toroidal = 2 mu0 int(p dV) / V / B0^2

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.current_centre.r

Major radius of the current center, defined as integral over the poloidal cross section of (j_torrdS) / Ip

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.current_centre.velocity_z

Vertical velocity of the current center

  • Units: m.s^-1
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.current_centre.z

Height of the current center, defined as integral over the poloidal cross section of (j_torzdS) / Ip

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.energy_mhd

Plasma energy content = 3/2 * int(p,dV) with p being the total pressure (thermal + fast particles) [J]. Time-dependent; Scalar

  • Units: J
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.ip

Plasma current (toroidal component). Positive sign means anti-clockwise when viewed from above.

  • Units: A
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.length_pol

Poloidal length of the magnetic surface

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.li_3

Internal inductance

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.magnetic_axis.b_field_tor

Total toroidal magnetic field at the magnetic axis

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.magnetic_axis.r

Major radius of the magnetic axis

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.magnetic_axis.z

Height of the magnetic axis

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.plasma_inductance

Plasma inductance 2 Emagnetic/Ip^2, where Emagnetic = 1/2 * int(psi.j_tor.dS) (integral over the plasma poloidal cross-section)

  • Units: H
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.plasma_resistance

Plasma resistance = int(e_field.j.dV) / Ip^2

  • Units: ohm
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.psi_axis

Poloidal flux at the magnetic axis

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.psi_boundary

Poloidal flux at the selected plasma boundary

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.psi_external_average

Average (over the plasma poloidal cross section) plasma poloidal magnetic flux produced by all external circuits (CS and PF coils, eddy currents, VS in-vessel coils), given by the following formula : int(psiexternal.jtor.dS) / Ip

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.q_95

q at the 95% poloidal flux surface (IMAS uses COCOS=11: only positive when toroidal current and magnetic field are in same direction)

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.q_axis

q at the magnetic axis

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.q_min.psi

Minimum q position in poloidal flux

  • Units: Wb
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.q_min.psi_norm

Minimum q position in normalised poloidal flux

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.q_min.rho_tor_norm

Minimum q position in normalised toroidal flux coordinate

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.q_min.value

Minimum q value

  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.rho_tor_boundary

Toroidal flux coordinate at the selected plasma boundary

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.v_external

External voltage, i.e. time derivative of psiexternalaverage (with a minus sign : - dpsiexternalaverage/dtime)

  • Units: V
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
equilibrium.time_slice[:].global_quantities.volume

Total plasma volume

  • Units: m^3
  • Data Type: FLT_0D
equilibrium.time_slice[:].profiles_1d.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.b_field_average

Flux surface averaged modulus of B (always positive, irrespective of the sign convention for the B-field direction).

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.b_field_max

Maximum(modulus(B)) on the flux surface (always positive, irrespective of the sign convention for the B-field direction)

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.b_field_min

Minimum(modulus(B)) on the flux surface (always positive, irrespective of the sign convention for the B-field direction)

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.beta_pol

Poloidal beta profile. Defined as betap = 4 int(p dV) / [R0 * mu0 * Ip^2]

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.darea_dpsi

Radial derivative of the cross-sectional area of the flux surface with respect to psi

  • Units: m^2.Wb^-1
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.darea_drho_tor

Radial derivative of the cross-sectional area of the flux surface with respect to rho_tor

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.dpressure_dpsi

Derivative of pressure w.r.t. psi

  • Units: Pa.Wb^-1
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.dpsi_drho_tor

Derivative of Psi with respect to Rho_Tor

  • Units: Wb/m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.dvolume_dpsi

Radial derivative of the volume enclosed in the flux surface with respect to Psi

  • Units: m^3.Wb^-1
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.dvolume_drho_tor

Radial derivative of the volume enclosed in the flux surface with respect to Rho_Tor

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.elongation

Elongation

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.f

Diamagnetic function (F=R B_Phi)

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.f_df_dpsi

Derivative of F w.r.t. Psi, multiplied with F

  • Units: T^2.m^2/Wb
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.fsa_bp

Flux surface averaged Bp

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.geometric_axis.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.geometric_axis.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm1

Flux surface averaged 1/R^2

  • Units: m^-2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm10

Flux surface averaged R^2

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm2

Flux surface averaged |gradrhotor|^2/R^2

  • Units: m^-2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm3

Flux surface averaged |gradrhotor|^2

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm4

Flux surface averaged 1/B^2

  • Units: T^-2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm5

Flux surface averaged B^2

  • Units: T^2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm6

Flux surface averaged |gradrhotor|^2/B^2

  • Units: T^-2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm7

Flux surface averaged |gradrhotor|

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm8

Flux surface averaged R

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.gm9

Flux surface averaged 1/R

  • Units: m^-1
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.j_parallel

Flux surface averaged approximation to parallel current density = average(j.B) / B0, where B0 = /vacuumtoroidalfield/b0

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.j_tor

Flux surface averaged toroidal current density = average(j_tor/R) / average(1/R)

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.magnetic_shear

Magnetic shear, defined as rhotor/q . dq/drhotor

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.mass_density

Mass density

  • Units: kg.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.phi

Toroidal flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.pressure

Pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.psi

Poloidal flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].profiles_1d.psi_norm

Normalised poloidal flux coordinate

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.q

Safety factor (IMAS uses COCOS=11: only positive when toroidal current and magnetic field are in same direction)

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.r_inboard

Radial coordinate (major radius) on the inboard side of the magnetic axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.r_outboard

Radial coordinate (major radius) on the outboard side of the magnetic axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.rho_tor

Toroidal flux coordinate = sqrt(phi/(pi*b0)), where the toroidal flux, phi, corresponds to timeslice/profiles1d/phi, the toroidal magnetic field, b0, corresponds to vacuumtoroidalfield/b0 and pi can be found in the IMAS constants

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation)

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.rho_volume_norm

Normalised square root of enclosed volume (radial coordinate). The normalizing value is the enclosed volume at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation)

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.squareness_lower_inner

Lower inner squareness (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.squareness_lower_outer

Lower outer squareness (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.squareness_upper_inner

Upper inner squareness (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.squareness_upper_outer

Upper outer squareness (definition from T. Luce, Plasma Phys. Control. Fusion 55 (2013) 095009)

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.trapped_fraction

Trapped particle fraction

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.triangularity_lower

Lower triangularity w.r.t. magnetic axis

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.triangularity_upper

Upper triangularity w.r.t. magnetic axis

  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_1d.volume

Volume enclosed in the flux surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time_slice[:].profiles_1d.psi"]
equilibrium.time_slice[:].profiles_2d[:].b_field_r

R component of the poloidal magnetic field

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].b_field_tor

Toroidal component of the magnetic field

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].b_field_z

Z component of the poloidal magnetic field

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].profiles_2d[:].grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
equilibrium.time_slice[:].profiles_2d[:].grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].grid_type.description

Verbose description

  • Data Type: STR_0D
equilibrium.time_slice[:].profiles_2d[:].grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.time_slice[:].profiles_2d[:].grid_type.name

Short string identifier

  • Data Type: STR_0D
equilibrium.time_slice[:].profiles_2d[:].j_parallel

Defined as (j.B)/B0 where j and B are the current density and magnetic field vectors and B0 is the (signed) vacuum toroidal magnetic field strength at the geometric reference point (R0,Z0). It is formally not the component of the plasma current density parallel to the magnetic field

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].j_tor

Toroidal plasma current density

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].phi

Toroidal flux

  • Units: Wb
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].psi

Values of the poloidal flux at the grid in the poloidal plane

  • Units: Wb
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].r

Values of the major radius on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].theta

Values of the poloidal angle on the grid

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].profiles_2d[:].type.description

Verbose description

  • Data Type: STR_0D
equilibrium.time_slice[:].profiles_2d[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
equilibrium.time_slice[:].profiles_2d[:].type.name

Short string identifier

  • Data Type: STR_0D
equilibrium.time_slice[:].profiles_2d[:].z

Values of the Height on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["equilibrium.time_slice[:].profiles_2d[:].grid.dim1", "equilibrium.time_slice[:].profiles_2d[:].grid.dim2"]
equilibrium.time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
equilibrium.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["equilibrium.time"]
equilibrium.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
ferritic.code.commit

Unique commit reference of software

  • Data Type: STR_0D
ferritic.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ferritic.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ferritic.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ferritic.code.library[:].name

Name of software

  • Data Type: STR_0D
ferritic.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ferritic.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
ferritic.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ferritic.code.name

Name of software generating IDS

  • Data Type: STR_0D
ferritic.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["ferritic.time"]
ferritic.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ferritic.code.repository

URL of software repository

  • Data Type: STR_0D
ferritic.code.version

Unique version (tag) of software

  • Data Type: STR_0D
ferritic.grid_ggd.grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.grid_ggd.grid_subset[:].element"]
ferritic.grid_ggd.grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["ferritic.grid_ggd.grid_subset[:].element", "1...N", "1...N"]
ferritic.grid_ggd.grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["ferritic.grid_ggd.grid_subset[:].element", "1...N", "1...N"]
ferritic.grid_ggd.grid_subset[:].dimension

Space dimension of the grid subset elements. This must be equal to the sum of the dimensions of the individual objects forming the element.

  • Data Type: INT_0D
ferritic.grid_ggd.grid_subset[:].element[:].object[:].dimension

Dimension of the object

  • Data Type: INT_0D
ferritic.grid_ggd.grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
ferritic.grid_ggd.grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
ferritic.grid_ggd.grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
ferritic.grid_ggd.grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ferritic.grid_ggd.grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
ferritic.grid_ggd.grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.grid_ggd.grid_subset[:].element"]
ferritic.grid_ggd.grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["ferritic.grid_ggd.grid_subset[:].element", "1...N", "1...N"]
ferritic.grid_ggd.grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["ferritic.grid_ggd.grid_subset[:].element", "1...N", "1...N"]
ferritic.grid_ggd.identifier.description

Verbose description

  • Data Type: STR_0D
ferritic.grid_ggd.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ferritic.grid_ggd.identifier.name

Short string identifier

  • Data Type: STR_0D
ferritic.grid_ggd.path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
ferritic.grid_ggd.space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
ferritic.grid_ggd.space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
ferritic.grid_ggd.space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ferritic.grid_ggd.space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
ferritic.grid_ggd.space[:].identifier.description

Verbose description

  • Data Type: STR_0D
ferritic.grid_ggd.space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ferritic.grid_ggd.space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
ferritic.grid_ggd.space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
ferritic.grid_ggd.space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ferritic.grid_ggd.space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
ferritic.grid_ggd.space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
ferritic.grid_ggd.space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object may have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
ferritic.grid_ggd.space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object. Its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ferritic.grid_ggd.space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
ferritic.grid_ggd.space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
ferritic.grid_ggd.space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
ferritic.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
ferritic.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
ferritic.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
ferritic.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
ferritic.ids_properties.occurrence

N/A

  • Data Type: INT_0D
ferritic.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
ferritic.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ferritic.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
ferritic.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
ferritic.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ferritic.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
ferritic.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
ferritic.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
ferritic.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
ferritic.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
ferritic.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
ferritic.object[:].axisymmetric[:].annulus.r

Centre major radius

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].annulus.radius_inner

Inner radius

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].annulus.radius_outer

Outer radius

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].annulus.z

Centre height

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].arcs_of_circle.curvature_radii

Curvature radius of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].axisymmetric[:].arcs_of_circle.r"]
ferritic.object[:].axisymmetric[:].arcs_of_circle.r

Major radii of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ferritic.object[:].axisymmetric[:].arcs_of_circle.z

Height of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].axisymmetric[:].arcs_of_circle.r"]
ferritic.object[:].axisymmetric[:].geometry_type

Type used to describe the element shape (1:'outline', 2:'rectangle', 3:'oblique', 4:'arcs of circle, 5: 'annulus', 6 : 'thick line')

  • Data Type: INT_0D
ferritic.object[:].axisymmetric[:].oblique.alpha

Inclination of first angle measured counter-clockwise from horizontal outwardly directed radial vector (grad R).

  • Units: rad
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].oblique.beta

Inclination of second angle measured counter-clockwise from vertically upwards directed vector (grad Z). If both alpha and beta are zero (rectangle) then the simpler rectangular elements description should be used.

  • Units: rad
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].oblique.length_alpha

Length of the parallelogram side inclined with angle alpha with respect to the major radius axis

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].oblique.length_beta

Length of the parallelogram side inclined with angle beta with respect to the height axis

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].oblique.r

Major radius of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].oblique.z

Height of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ferritic.object[:].axisymmetric[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].axisymmetric[:].outline.r"]
ferritic.object[:].axisymmetric[:].rectangle.height

Vertical full height

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].rectangle.r

Geometric centre R

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].rectangle.width

Horizontal full width

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].rectangle.z

Geometric centre Z

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].thick_line.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].thick_line.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].thick_line.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].thick_line.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].axisymmetric[:].thick_line.thickness

Thickness

  • Units: m
  • Data Type: FLT_0D
ferritic.object[:].centroid.x

List of X coordinates

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ferritic.object[:].centroid.y

List of Y coordinates

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].centroid.z

List of Z coordinates

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].ggd_object_index

Index of GGD volumic object corresponding to each element. Refers to the array /gridggd/space(1)/objectsper_dimension(4)/object

  • Data Type: INT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].permeability_table_index

Index of permeability table to be used for each element. If not allocated or if an element is equal to EMPTYINT, use the sibling saturated relative permeability instead ../relativepermeability, for that element

  • Data Type: INT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].saturated_relative_permeability

Saturated relative magnetic permeability of each element

  • Units: H.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].time_slice[:].b_field_r

R component of the magnetic field at each centroid

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].time_slice[:].b_field_tor

Toroidal component of the magnetic field at each centroid

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].time_slice[:].b_field_z

Z component of the magnetic field at each centroid

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].time_slice[:].magnetic_moment_r

R component of the magnetic moment of each element

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].time_slice[:].magnetic_moment_tor

Toroidal component of the magnetic moment of each element

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].time_slice[:].magnetic_moment_z

Z component of the magnetic moment of each element

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.object[:].time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
ferritic.object[:].volume

Volume of each element of this object

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["ferritic.object[:].centroid.x"]
ferritic.permeability_table[:].b_field

Array of magnetic field values, for each of which the relative permeability is given

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ferritic.permeability_table[:].description

Description of this table

  • Data Type: STR_0D
ferritic.permeability_table[:].name

Name of this table

  • Data Type: STR_0D
ferritic.permeability_table[:].relative_permeability

Relative permeability as a function of the magnetic field

  • Data Type: FLT_1D
  • Coordinates: ["ferritic.permeability_table[:].b_field"]
ferritic.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
focs.b_field_z.data

Data

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "focs.b_field_z.time"]
focs.b_field_z.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
focs.b_field_z.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
focs.b_field_z.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["focs.b_field_z.time"]
focs.code.commit

Unique commit reference of software

  • Data Type: STR_0D
focs.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
focs.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
focs.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
focs.code.library[:].name

Name of software

  • Data Type: STR_0D
focs.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
focs.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
focs.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
focs.code.name

Name of software generating IDS

  • Data Type: STR_0D
focs.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["focs.time"]
focs.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
focs.code.repository

URL of software repository

  • Data Type: STR_0D
focs.code.version

Unique version (tag) of software

  • Data Type: STR_0D
focs.current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["focs.current.time"]
focs.current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
focs.current.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
focs.current.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["focs.current.time"]
focs.fibre_length

Spun fibre length on the vacuum vessel

  • Units: m
  • Data Type: FLT_0D
focs.fibre_properties.beat_length

Linear beat length

  • Units: m
  • Data Type: FLT_0D
focs.fibre_properties.id

ID of the fibre, e.g. commercial reference

  • Data Type: STR_0D
focs.fibre_properties.spun

Spun period

  • Units: m
  • Data Type: FLT_0D
focs.fibre_properties.spun_initial_azimuth

Spun fibre initial azimuth

  • Units: rad
  • Data Type: FLT_0D
focs.fibre_properties.twist

Twist period

  • Units: m
  • Data Type: FLT_0D
focs.fibre_properties.verdet_constant

Verdet constant

  • Units: rad.T^-1.m^-1
  • Data Type: FLT_0D
focs.id

ID of the FOCS

  • Data Type: STR_0D
focs.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
focs.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
focs.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
focs.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
focs.ids_properties.occurrence

N/A

  • Data Type: INT_0D
focs.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
focs.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
focs.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
focs.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
focs.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
focs.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
focs.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
focs.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
focs.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
focs.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
focs.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
focs.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
focs.name

Name of the FOCS

  • Data Type: STR_0D
focs.outline.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["focs.outline.r"]
focs.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
focs.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["focs.outline.r"]
focs.stokes_initial.s0

S0 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_initial.s1

S1 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_initial.s2

S2 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_initial.s3

S3 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_output[:].s0

S0 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_output[:].s1

S1 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_output[:].s2

S2 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_output[:].s3

S3 component of the unit Stokes vector

  • Data Type: FLT_0D
focs.stokes_output[:].time

Time

  • Units: s
  • Data Type: FLT_0D
focs.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_injection.code.commit

Unique commit reference of software

  • Data Type: STR_0D
gas_injection.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_injection.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_injection.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_injection.code.library[:].name

Name of software

  • Data Type: STR_0D
gas_injection.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_injection.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
gas_injection.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_injection.code.name

Name of software generating IDS

  • Data Type: STR_0D
gas_injection.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["gas_injection.time"]
gas_injection.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_injection.code.repository

URL of software repository

  • Data Type: STR_0D
gas_injection.code.version

Unique version (tag) of software

  • Data Type: STR_0D
gas_injection.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
gas_injection.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
gas_injection.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
gas_injection.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
gas_injection.ids_properties.occurrence

N/A

  • Data Type: INT_0D
gas_injection.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
gas_injection.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
gas_injection.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
gas_injection.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_injection.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
gas_injection.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
gas_injection.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
gas_injection.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
gas_injection.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
gas_injection.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
gas_injection.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
gas_injection.pipe[:].exit_position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
gas_injection.pipe[:].exit_position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
gas_injection.pipe[:].exit_position.z

Height

  • Units: m
  • Data Type: FLT_0D
gas_injection.pipe[:].flow_rate.data

Data

  • Units: Pa.m^3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["gas_injection.pipe[:].flow_rate.time"]
gas_injection.pipe[:].flow_rate.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_injection.pipe[:].identifier

ID of the injection pipe

  • Data Type: STR_0D
gas_injection.pipe[:].length

Pipe length

  • Units: m
  • Data Type: FLT_0D
gas_injection.pipe[:].name

Name of the injection pipe

  • Data Type: STR_0D
gas_injection.pipe[:].second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
gas_injection.pipe[:].second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
gas_injection.pipe[:].second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
gas_injection.pipe[:].species[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
gas_injection.pipe[:].species[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
gas_injection.pipe[:].species[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
gas_injection.pipe[:].species[:].fraction

Relative fraction of this species (in molecules) in the gas mixture

  • Data Type: FLT_0D
gas_injection.pipe[:].species[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
gas_injection.pipe[:].valve_indices

Indices (from the ../../valve array of structure) of the valve(s) that are feeding this pipe

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
gas_injection.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_injection.valve[:].electron_rate.data

Data

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["gas_injection.valve[:].electron_rate.time"]
gas_injection.valve[:].electron_rate.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_injection.valve[:].flow_rate.data

Data

  • Units: Pa.m^3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["gas_injection.valve[:].flow_rate.time"]
gas_injection.valve[:].flow_rate.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_injection.valve[:].flow_rate_max

Maximum flow rate of the valve

  • Units: Pa.m^3.s^-1
  • Data Type: FLT_0D
gas_injection.valve[:].flow_rate_min

Minimum flow rate of the valve

  • Units: Pa.m^3.s^-1
  • Data Type: FLT_0D
gas_injection.valve[:].identifier

ID of the valve

  • Data Type: STR_0D
gas_injection.valve[:].name

Name of the valve

  • Data Type: STR_0D
gas_injection.valve[:].pipe_indices

Indices (from the ../../pipe array of structure) of the pipe(s) that are fed by this valve

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
gas_injection.valve[:].response_curve.flow_rate

Flow rate at the exit of the valve

  • Units: Pa.m^3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["gas_injection.valve[:].response_curve.voltage"]
gas_injection.valve[:].response_curve.voltage

Voltage applied to open the valve

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_injection.valve[:].species[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
gas_injection.valve[:].species[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
gas_injection.valve[:].species[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
gas_injection.valve[:].species[:].fraction

Relative fraction of this species (in molecules) in the gas mixture

  • Data Type: FLT_0D
gas_injection.valve[:].species[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
gas_injection.valve[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["gas_injection.valve[:].voltage.time"]
gas_injection.valve[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_pumping.code.commit

Unique commit reference of software

  • Data Type: STR_0D
gas_pumping.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_pumping.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_pumping.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_pumping.code.library[:].name

Name of software

  • Data Type: STR_0D
gas_pumping.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_pumping.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
gas_pumping.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_pumping.code.name

Name of software generating IDS

  • Data Type: STR_0D
gas_pumping.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["gas_pumping.time"]
gas_pumping.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_pumping.code.repository

URL of software repository

  • Data Type: STR_0D
gas_pumping.code.version

Unique version (tag) of software

  • Data Type: STR_0D
gas_pumping.duct[:].flow_rate.data

Data

  • Units: Pa.m^3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["gas_pumping.duct[:].flow_rate.time"]
gas_pumping.duct[:].flow_rate.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_pumping.duct[:].identifier

ID of the pumping duct

  • Data Type: STR_0D
gas_pumping.duct[:].name

Name of the pumping duct

  • Data Type: STR_0D
gas_pumping.duct[:].species[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
gas_pumping.duct[:].species[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
gas_pumping.duct[:].species[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
gas_pumping.duct[:].species[:].flow_rate.data

Data

  • Units: Pa.m^3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["gas_pumping.duct[:].species[:].flow_rate.time"]
gas_pumping.duct[:].species[:].flow_rate.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gas_pumping.duct[:].species[:].label

String identifying the neutral molecule (e.g. H2, D2, T2, N2, ...)

  • Data Type: STR_0D
gas_pumping.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
gas_pumping.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
gas_pumping.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
gas_pumping.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
gas_pumping.ids_properties.occurrence

N/A

  • Data Type: INT_0D
gas_pumping.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
gas_pumping.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
gas_pumping.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
gas_pumping.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gas_pumping.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
gas_pumping.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
gas_pumping.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
gas_pumping.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
gas_pumping.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
gas_pumping.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
gas_pumping.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.code.commit

Unique commit reference of software

  • Data Type: STR_0D
gyrokinetics_local.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gyrokinetics_local.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gyrokinetics_local.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gyrokinetics_local.code.library[:].name

Name of software

  • Data Type: STR_0D
gyrokinetics_local.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gyrokinetics_local.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
gyrokinetics_local.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gyrokinetics_local.code.name

Name of software generating IDS

  • Data Type: STR_0D
gyrokinetics_local.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["gyrokinetics_local.time"]
gyrokinetics_local.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gyrokinetics_local.code.repository

URL of software repository

  • Data Type: STR_0D
gyrokinetics_local.code.version

Unique version (tag) of software

  • Data Type: STR_0D
gyrokinetics_local.collisions.collisionality_norm

Normalised collisionality between two species

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.species"]
gyrokinetics_local.flux_surface.b_field_tor_sign

Sign of the toroidal magnetic field

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.dc_dr_minor_norm

Derivative of the 'c' shape coefficients with respect to rminornorm

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.flux_surface.shape_coefficients_c"]
gyrokinetics_local.flux_surface.delongation_dr_minor_norm

Derivative of the elongation with respect to rminornorm

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.dgeometric_axis_r_dr_minor

Derivative of the major radius of the surface geometric axis with respect to r_minor

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.dgeometric_axis_z_dr_minor

Derivative of the height of the surface geometric axis with respect to r_minor

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.ds_dr_minor_norm

Derivative of the 's' shape coefficients with respect to rminornorm

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.flux_surface.shape_coefficients_s"]
gyrokinetics_local.flux_surface.elongation

Elongation

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.ip_sign

Sign of the plasma current

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.magnetic_shear_r_minor

Magnetic shear, defined as rminornorm/q . dq/drminornorm (different definition from the equilibrium IDS)

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.pressure_gradient_norm

Normalised pressure gradient (derivative with respect to rminornorm)

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.q

Safety factor

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.r_minor_norm

Normalised minor radius of the flux surface of interest = 1/2 * (max(R) - min(R))/L_ref

  • Data Type: FLT_0D
gyrokinetics_local.flux_surface.shape_coefficients_c

'c' coefficients in the formula defining the shape of the flux surface

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.flux_surface.shape_coefficients_s

's' coefficients in the formula defining the shape of the flux surface

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
gyrokinetics_local.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.occurrence

N/A

  • Data Type: INT_0D
gyrokinetics_local.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
gyrokinetics_local.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
gyrokinetics_local.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
gyrokinetics_local.linear.wavevector[:].binormal_wavevector_norm

Normalised binormal component of the wavevector

  • Data Type: FLT_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol

Poloidal angle grid. The angle is defined with respect to (R0,Z0) with R0=(Rmax-Rmin)/2 and Z0=(Zmax-Zmin)/2. It is increasing clockwise. So (r,theta,phi) is right-handed. theta=0 for Z=Z0 and R>R0 (LFS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.a_field_parallel_perturbed_norm

Normalised perturbed parallel vector potential

  • Data Type: CPX_2D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.a_field_parallel_perturbed_parity

Parity of the perturbed parallel vector potential with respect to theta = 0 (poloidal angle)

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.a_field_parallel_perturbed_weight

Amplitude of the perturbed parallel vector potential normalised to the sum of amplitudes of all perturbed fields

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.b_field_parallel_perturbed_norm

Normalised perturbed parallel magnetic field

  • Data Type: CPX_2D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.b_field_parallel_perturbed_parity

Parity of the perturbed parallel magnetic field with respect to theta = 0 (poloidal angle)

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.b_field_parallel_perturbed_weight

Amplitude of the perturbed parallel magnetic field normalised to the sum of amplitudes of all perturbed fields

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.phi_potential_perturbed_norm

Normalised perturbed electrostatic potential

  • Data Type: CPX_2D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.phi_potential_perturbed_parity

Parity of the perturbed electrostatic potential with respect to theta = 0 (poloidal angle)

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].fields.phi_potential_perturbed_weight

Amplitude of the perturbed electrostatic potential normalised to the sum of amplitudes of all perturbed fields

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].frequency_norm

Frequency

  • Data Type: FLT_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].growth_rate_norm

Growth rate

  • Data Type: FLT_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].growth_rate_tolerance

Relative tolerance on the growth rate (convergence of the simulation)

  • Data Type: FLT_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].initial_value_run

Flag = 1 if this is an initial value run, 0 for an eigenvalue run

  • Data Type: INT_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].linear_weights_rotating_frame.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter.density

Normalised density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter.heat_flux_parallel

Normalised parallel heat flux (integral of 0.5 * m * v_par * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter.j_parallel

Normalised parallel current density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter.pressure_parallel

Normalised parallel temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter.pressure_perpendicular

Normalised perpendicular temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter.v_parallel_energy_perpendicular

Normalised moment (integral over 0.5 * m * vpar * vperp^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter.v_perpendicular_square_energy

Normalised moment (integral over 0.5 * m * v_perp^2 * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_0.density

Normalised density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_0.heat_flux_parallel

Normalised parallel heat flux (integral of 0.5 * m * v_par * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_0.j_parallel

Normalised parallel current density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_0.pressure_parallel

Normalised parallel temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_0.pressure_perpendicular

Normalised perpendicular temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_0.v_parallel_energy_perpendicular

Normalised moment (integral over 0.5 * m * vpar * vperp^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_0.v_perpendicular_square_energy

Normalised moment (integral over 0.5 * m * v_perp^2 * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_1.density

Normalised density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_1.heat_flux_parallel

Normalised parallel heat flux (integral of 0.5 * m * v_par * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_1.j_parallel

Normalised parallel current density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_1.pressure_parallel

Normalised parallel temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_1.pressure_perpendicular

Normalised perpendicular temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_1.v_parallel_energy_perpendicular

Normalised moment (integral over 0.5 * m * vpar * vperp^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_gyrocenter_bessel_1.v_perpendicular_square_energy

Normalised moment (integral over 0.5 * m * v_perp^2 * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_particle.density

Normalised density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_particle.heat_flux_parallel

Normalised parallel heat flux (integral of 0.5 * m * v_par * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_particle.j_parallel

Normalised parallel current density

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_particle.pressure_parallel

Normalised parallel temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_particle.pressure_perpendicular

Normalised perpendicular temperature

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_particle.v_parallel_energy_perpendicular

Normalised moment (integral over 0.5 * m * vpar * vperp^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].moments_norm_particle.v_perpendicular_square_energy

Normalised moment (integral over 0.5 * m * v_perp^2 * v^2)

  • Data Type: CPX_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].angle_pol", "gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm"]
gyrokinetics_local.linear.wavevector[:].eigenmode[:].poloidal_turns

Number of poloidal turns considered in the flux-tube simulation

  • Data Type: INT_0D
gyrokinetics_local.linear.wavevector[:].eigenmode[:].time_norm

Normalised time of the gyrokinetic simulation

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.linear.wavevector[:].radial_wavevector_norm

Normalised radial component of the wavevector

  • Data Type: FLT_0D
gyrokinetics_local.model.adiabatic_electrons

Flag = 1 if electrons are adiabatic, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.collisions_energy_conservation

Flag = 1 if the collision operator conserves energy, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.collisions_finite_larmor_radius

Flag = 1 if finite larmor radius effects are retained in the collision operator, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.collisions_momentum_conservation

Flag = 1 if the collision operator conserves momentum, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.collisions_pitch_only

Flag = 1 if only pitch-angle scattering is retained, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.include_a_field_parallel

Flag = 1 if fluctuations of the parallel vector potential are retained, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.include_b_field_parallel

Flag = 1 if fluctuations of the parallel magnetic field are retained, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.include_centrifugal_effects

Flag = 1 if centrifugal effects are retained, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.include_coriolis_drift

Flag = 1 if Coriolis drift is included, 0 otherwise

  • Data Type: INT_0D
gyrokinetics_local.model.include_full_curvature_drift

Flag = 1 if all contributions to the curvature drift are included (including betaprime), 0 otherwise. Neglecting the betaprime contribution (Flag=0) is only recommended together with the neglect of parallel magnetic field fluctuations

  • Data Type: INT_0D
gyrokinetics_local.non_linear.angle_pol

Poloidal angle grid. The angle is defined with respect to (R0,Z0) with R0=(Rmax-Rmin)/2 and Z0=(Zmax-Zmin)/2. It is increasing clockwise. So (r,theta,phi) is right-handed. theta=0 for Z=Z0 and R>R0 (LFS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.non_linear.binormal_wavevector_norm

Array of normalised binormal wavevectors

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.non_linear.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_0D
gyrokinetics_local.non_linear.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
gyrokinetics_local.non_linear.fields_4d.a_field_parallel_perturbed_norm

Normalised perturbed parallel vector potential

  • Data Type: CPX_4D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fields_4d.b_field_parallel_perturbed_norm

Normalised perturbed parallel magnetic field

  • Data Type: CPX_4D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fields_4d.phi_potential_perturbed_norm

Normalised perturbed electrostatic potential

  • Data Type: CPX_4D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fields_intensity_1d.a_field_parallel_perturbed_norm

Normalised perturbed parallel vector potential

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fields_intensity_1d.b_field_parallel_perturbed_norm

Normalised perturbed parallel magnetic field

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fields_intensity_1d.phi_potential_perturbed_norm

Normalised perturbed electrostatic potential

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fields_intensity_2d_surface_average.a_field_parallel_perturbed_norm

Normalised perturbed parallel vector potential

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fields_intensity_2d_surface_average.b_field_parallel_perturbed_norm

Normalised perturbed parallel magnetic field

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fields_intensity_2d_surface_average.phi_potential_perturbed_norm

Normalised perturbed electrostatic potential

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fields_intensity_3d.a_field_parallel_perturbed_norm

Normalised perturbed parallel vector potential

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fields_intensity_3d.b_field_parallel_perturbed_norm

Normalised perturbed parallel magnetic field

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fields_intensity_3d.phi_potential_perturbed_norm

Normalised perturbed electrostatic potential

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fields_zonal_2d.a_field_parallel_perturbed_norm

Normalised perturbed parallel vector potential

  • Data Type: CPX_2D
  • Coordinates: ["gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fields_zonal_2d.b_field_parallel_perturbed_norm

Normalised perturbed parallel magnetic field

  • Data Type: CPX_2D
  • Coordinates: ["gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fields_zonal_2d.phi_potential_perturbed_norm

Normalised perturbed electrostatic potential

  • Data Type: CPX_2D
  • Coordinates: ["gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_1d.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_1d_rotating_frame.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_k_y_sum_rotating_frame.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_2d_k_x_sum_rotating_frame.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_2D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_3d_rotating_frame.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_3D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm"]
gyrokinetics_local.non_linear.fluxes_4d.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_4d_rotating_frame.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_4D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol"]
gyrokinetics_local.non_linear.fluxes_5d.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.energy_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised energy flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.energy_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised energy flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.energy_phi_potential

Contribution of the perturbed electrostatic potential to the normalised energy flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.momentum_tor_parallel_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.momentum_tor_parallel_b_field_parallel

Contribution of the perturbed parallel magnetic field to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.momentum_tor_parallel_phi_potential

Contribution of the perturbed electrostatic potential to the parallel component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.momentum_tor_perpendicular_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.momentum_tor_perpendicular_b_field_parallel

Contribution of the perturbed parallel magnetic field to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.momentum_tor_perpendicular_phi_potential

Contribution of the perturbed electrostatic potential to the perpendicular component of the normalised toroidal momentum flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.particles_a_field_parallel

Contribution of the perturbed parallel electromagnetic potential to the normalised particle flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.particles_b_field_parallel

Contribution of the perturbed parallel magnetic field to the normalised particle flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.fluxes_5d_rotating_frame.particles_phi_potential

Contribution of the perturbed electrostatic potential to the normalised particle flux

  • Data Type: FLT_5D
  • Coordinates: ["gyrokinetics_local.species", "gyrokinetics_local.non_linear.binormal_wavevector_norm", "gyrokinetics_local.non_linear.radial_wavevector_norm", "gyrokinetics_local.non_linear.angle_pol", "gyrokinetics_local.non_linear.time_norm"]
gyrokinetics_local.non_linear.quasi_linear

Flag = 1 if the non-linear fluxes are in fact calculated by a quasi-linear model, 0 if non-linear

  • Data Type: INT_0D
gyrokinetics_local.non_linear.radial_wavevector_norm

Array of normalised radial wavevectors

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.non_linear.time_interval_norm

Normalised time interval used to average fluxes in non-linear runs

  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
gyrokinetics_local.non_linear.time_norm

Normalised time of the gyrokinetic simulation

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.normalizing_quantities.b_field_tor

Toroidal magnetic field at major radius r

  • Units: T
  • Data Type: FLT_0D
gyrokinetics_local.normalizing_quantities.n_e

Electron density at outboard equatorial midplane of the flux surface (angle_pol = 0)

  • Units: m^-3
  • Data Type: FLT_0D
gyrokinetics_local.normalizing_quantities.r

Major radius of the flux surface of interest, defined as (min(R)+max(R))/2

  • Units: m
  • Data Type: FLT_0D
gyrokinetics_local.normalizing_quantities.t_e

Electron temperature at outboard equatorial midplane of the flux surface (angle_pol = 0)

  • Units: eV
  • Data Type: FLT_0D
gyrokinetics_local.species[:].charge_norm

Normalised charge

  • Data Type: FLT_0D
gyrokinetics_local.species[:].density_log_gradient_norm

Normalised logarithmic gradient (with respect to rminornorm) of the density

  • Data Type: FLT_0D
gyrokinetics_local.species[:].density_norm

Normalised density

  • Data Type: FLT_0D
gyrokinetics_local.species[:].mass_norm

Normalised mass

  • Data Type: FLT_0D
gyrokinetics_local.species[:].potential_energy_gradient_norm

Effective potential energy determining the poloidal variation of the species background density

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species_all.angle_pol"]
gyrokinetics_local.species[:].potential_energy_norm

Normalised gradient (with respect to rminornorm) of the effective potential energy

  • Data Type: FLT_1D
  • Coordinates: ["gyrokinetics_local.species_all.angle_pol"]
gyrokinetics_local.species[:].temperature_log_gradient_norm

Normalised logarithmic gradient (with respect to rminornorm) of the temperature

  • Data Type: FLT_0D
gyrokinetics_local.species[:].temperature_norm

Normalised temperature

  • Data Type: FLT_0D
gyrokinetics_local.species[:].velocity_tor_gradient_norm

Normalised gradient (with respect to rminornorm) of the toroidal velocity

  • Data Type: FLT_0D
gyrokinetics_local.species_all.angle_pol

Poloidal angle grid, from -pi to pi, on which the species dependent effective potential energy (which determines the poloidal variation of the density) is expressed. The angle is defined with respect to (R0,Z0) with R0=(Rmax-Rmin)/2 and Z0=(Zmax-Zmin)/2. It is increasing clockwise. So (r,theta,phi) is right-handed. theta=0 for Z=Z0 and R>R0 (LFS)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
gyrokinetics_local.species_all.beta_reference

Reference plasma beta (see detailed documentation at the root of the IDS)

  • Data Type: FLT_0D
gyrokinetics_local.species_all.debye_length_norm

Debye length computed from the reference quantities (see detailed documentation at the root of the IDS)

  • Data Type: FLT_0D
gyrokinetics_local.species_all.shearing_rate_norm

Normalised ExB shearing rate (for non-linear runs only)

  • Data Type: FLT_0D
gyrokinetics_local.species_all.velocity_tor_norm

Normalised toroidal velocity of species (all species are assumed to have a purely toroidal velocity with a common toroidal angular frequency)

  • Data Type: FLT_0D
gyrokinetics_local.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.channel[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
hard_x_rays.channel[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.channel[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.channel[:].aperture[:].outline.x1"]
hard_x_rays.channel[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
hard_x_rays.channel[:].detector.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.channel[:].detector.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.channel[:].detector.outline.x1"]
hard_x_rays.channel[:].detector.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].detector.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].energy_band[:].detection_efficiency

Probability of detection of a photon impacting the detector as a function of its energy

  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.channel[:].energy_band[:].energies"]
hard_x_rays.channel[:].energy_band[:].energies

Array of discrete energy values inside the band

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.channel[:].energy_band[:].lower_bound

Lower bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
hard_x_rays.channel[:].energy_band[:].upper_bound

Upper bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
hard_x_rays.channel[:].etendue

Etendue (geometric extent) of the channel's optical system

  • Units: m^2.str
  • Data Type: FLT_0D
hard_x_rays.channel[:].etendue_method.description

Verbose description

  • Data Type: STR_0D
hard_x_rays.channel[:].etendue_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
hard_x_rays.channel[:].etendue_method.name

Short string identifier

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].curvature_type.description

Verbose description

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
hard_x_rays.channel[:].filter_window[:].curvature_type.name

Short string identifier

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
hard_x_rays.channel[:].filter_window[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].identifier

ID of the filter

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].material.description

Verbose description

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
hard_x_rays.channel[:].filter_window[:].material.name

Short string identifier

  • Data Type: STR_0D
hard_x_rays.channel[:].filter_window[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.channel[:].filter_window[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.channel[:].filter_window[:].outline.x1"]
hard_x_rays.channel[:].filter_window[:].photon_absorption

Probability of absorbing a photon passing through the filter as a function of its wavelength

  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.channel[:].filter_window[:].wavelengths"]
hard_x_rays.channel[:].filter_window[:].radius

Radius of the circle, used only if geometry_type/index = 2

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].surface

Surface of the filter, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].thickness

Thickness of the filter window

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].wavelength_lower

Lower bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].wavelength_upper

Upper bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].wavelengths

Array of wavelength values

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.channel[:].filter_window[:].x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x1_width

Full width of the filter in the X1 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x2_width

Full width of the filter in the X2 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].filter_window[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
hard_x_rays.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
hard_x_rays.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
hard_x_rays.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
hard_x_rays.channel[:].name

Name of the channel

  • Data Type: STR_0D
hard_x_rays.channel[:].radiance.data

Data

  • Units: (photons).s^-1.m^-2.sr^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "hard_x_rays.channel[:].radiance.time"]
hard_x_rays.channel[:].radiance.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.channel[:].radiance.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
hard_x_rays.channel[:].radiance.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["hard_x_rays.channel[:].radiance.time"]
hard_x_rays.code.commit

Unique commit reference of software

  • Data Type: STR_0D
hard_x_rays.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
hard_x_rays.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
hard_x_rays.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
hard_x_rays.code.library[:].name

Name of software

  • Data Type: STR_0D
hard_x_rays.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
hard_x_rays.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
hard_x_rays.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
hard_x_rays.code.name

Name of software generating IDS

  • Data Type: STR_0D
hard_x_rays.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["hard_x_rays.time"]
hard_x_rays.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
hard_x_rays.code.repository

URL of software repository

  • Data Type: STR_0D
hard_x_rays.code.version

Unique version (tag) of software

  • Data Type: STR_0D
hard_x_rays.emissivity_profile_1d[:].emissivity

Radial profile of the plasma emissivity in this energy band

  • Units: (photons).m^-3.str^-1.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["hard_x_rays.emissivity_profile_1d[:].rho_tor_norm", "hard_x_rays.emissivity_profile_1d[:].time"]
hard_x_rays.emissivity_profile_1d[:].half_width_external

External (towards separatrix) half width of the emissivity peak (in normalised toroidal flux)

  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.emissivity_profile_1d[:].time"]
hard_x_rays.emissivity_profile_1d[:].half_width_internal

Internal (towards magnetic axis) half width of the emissivity peak (in normalised toroidal flux)

  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.emissivity_profile_1d[:].time"]
hard_x_rays.emissivity_profile_1d[:].lower_bound

Lower bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
hard_x_rays.emissivity_profile_1d[:].peak_position

Normalised toroidal flux coordinate position at which the emissivity peaks

  • Data Type: FLT_1D
  • Coordinates: ["hard_x_rays.emissivity_profile_1d[:].time"]
hard_x_rays.emissivity_profile_1d[:].rho_tor_norm

Normalised toroidal flux coordinate grid

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.emissivity_profile_1d[:].time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
hard_x_rays.emissivity_profile_1d[:].upper_bound

Upper bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
hard_x_rays.emissivity_profile_1d[:].validity_timed

Indicator of the validity of the emissivity profile data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["hard_x_rays.emissivity_profile_1d[:].time"]
hard_x_rays.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
hard_x_rays.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
hard_x_rays.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
hard_x_rays.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
hard_x_rays.ids_properties.occurrence

N/A

  • Data Type: INT_0D
hard_x_rays.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
hard_x_rays.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
hard_x_rays.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
hard_x_rays.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
hard_x_rays.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
hard_x_rays.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
hard_x_rays.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
hard_x_rays.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
hard_x_rays.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
hard_x_rays.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
hard_x_rays.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
hard_x_rays.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].available_launch_power

Available launch power

  • Units: W
  • Data Type: FLT_0D
ic_antennas.antenna[:].efficiency.conversion

Conversion efficiency of electric power to microwave power

  • Data Type: FLT_0D
ic_antennas.antenna[:].efficiency.coupling

Coupling efficiency of launched microwave power to the plasma

  • Data Type: FLT_0D
ic_antennas.antenna[:].efficiency.transmission

Transmission efficiency of microwave power from generator to antenna

  • Data Type: FLT_0D
ic_antennas.antenna[:].frequency.data

Data

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].frequency.time"]
ic_antennas.antenna[:].frequency.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].identifier

Identifier of the antenna (unique within the set of all antennas of the experiment)

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].coupling_resistance.data

Data

  • Units: ohm
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].coupling_resistance.time"]
ic_antennas.antenna[:].module[:].coupling_resistance.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].current[:].amplitude.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].current[:].amplitude.time"]
ic_antennas.antenna[:].module[:].current[:].amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].current[:].identifier

Identifier

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].current[:].name

Name

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].current[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].current[:].phase.time"]
ic_antennas.antenna[:].module[:].current[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].current[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].current[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].current[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].frequency.data

Data

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].frequency.time"]
ic_antennas.antenna[:].module[:].frequency.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].identifier

Identifier of the module

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].matching_element[:].capacitance.data

Data

  • Units: F
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].matching_element[:].capacitance.time"]
ic_antennas.antenna[:].module[:].matching_element[:].capacitance.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].matching_element[:].name

Name

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].matching_element[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].matching_element[:].phase.time"]
ic_antennas.antenna[:].module[:].matching_element[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].matching_element[:].type.description

Verbose description

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].matching_element[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ic_antennas.antenna[:].module[:].matching_element[:].type.name

Short string identifier

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].name

Name of the module

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].phase_forward.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].phase_forward.time"]
ic_antennas.antenna[:].module[:].phase_forward.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].phase_reflected.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].phase_reflected.time"]
ic_antennas.antenna[:].module[:].phase_reflected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].power_forward.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].power_forward.time"]
ic_antennas.antenna[:].module[:].power_forward.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].power_launched.time"]
ic_antennas.antenna[:].module[:].power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].power_reflected.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].power_reflected.time"]
ic_antennas.antenna[:].module[:].power_reflected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].pressure[:].amplitude.data

Data

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].pressure[:].amplitude.time"]
ic_antennas.antenna[:].module[:].pressure[:].amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].pressure[:].identifier

Identifier

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].pressure[:].name

Name

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].pressure[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].pressure[:].phase.time"]
ic_antennas.antenna[:].module[:].pressure[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].pressure[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].pressure[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].pressure[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].strap[:].current.time"]
ic_antennas.antenna[:].module[:].strap[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].strap[:].distance_to_conductor

Distance to conducting wall or other conductor behind the antenna strap

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.annulus.r

Centre major radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.annulus.radius_inner

Inner radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.annulus.radius_outer

Outer radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.annulus.z

Centre height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.arcs_of_circle.curvature_radii

Curvature radius of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].strap[:].geometry.arcs_of_circle.r"]
ic_antennas.antenna[:].module[:].strap[:].geometry.arcs_of_circle.r

Major radii of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].strap[:].geometry.arcs_of_circle.z

Height of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].strap[:].geometry.arcs_of_circle.r"]
ic_antennas.antenna[:].module[:].strap[:].geometry.geometry_type

Type used to describe the element shape (1:'outline', 2:'rectangle', 3:'oblique', 4:'arcs of circle, 5: 'annulus', 6 : 'thick line')

  • Data Type: INT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.oblique.alpha

Inclination of first angle measured counter-clockwise from horizontal outwardly directed radial vector (grad R).

  • Units: rad
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.oblique.beta

Inclination of second angle measured counter-clockwise from vertically upwards directed vector (grad Z). If both alpha and beta are zero (rectangle) then the simpler rectangular elements description should be used.

  • Units: rad
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.oblique.length_alpha

Length of the parallelogram side inclined with angle alpha with respect to the major radius axis

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.oblique.length_beta

Length of the parallelogram side inclined with angle beta with respect to the height axis

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.oblique.r

Major radius of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.oblique.z

Height of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].strap[:].geometry.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].strap[:].geometry.outline.r"]
ic_antennas.antenna[:].module[:].strap[:].geometry.rectangle.height

Vertical full height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.rectangle.r

Geometric centre R

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.rectangle.width

Horizontal full width

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.rectangle.z

Geometric centre Z

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.thick_line.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.thick_line.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.thick_line.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.thick_line.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].geometry.thick_line.thickness

Thickness

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].strap[:].outline.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].strap[:].outline.r"]
ic_antennas.antenna[:].module[:].strap[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].strap[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].strap[:].outline.r"]
ic_antennas.antenna[:].module[:].strap[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].strap[:].phase.time"]
ic_antennas.antenna[:].module[:].strap[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].strap[:].width_tor

Width of strap in the toroidal direction

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].voltage[:].amplitude.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].voltage[:].amplitude.time"]
ic_antennas.antenna[:].module[:].voltage[:].amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].voltage[:].identifier

Identifier

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].voltage[:].name

Name

  • Data Type: STR_0D
ic_antennas.antenna[:].module[:].voltage[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].module[:].voltage[:].phase.time"]
ic_antennas.antenna[:].module[:].voltage[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].module[:].voltage[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].voltage[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].module[:].voltage[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.antenna[:].name

Name of the antenna (unique within the set of all antennas of the experiment)

  • Data Type: STR_0D
ic_antennas.antenna[:].power_forward.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].power_forward.time"]
ic_antennas.antenna[:].power_forward.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].power_launched.time"]
ic_antennas.antenna[:].power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].power_reflected.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.antenna[:].power_reflected.time"]
ic_antennas.antenna[:].power_reflected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].surface_current[:].m_pol

Poloidal mode numbers, used to describe the spectrum of the antenna current. The poloidal angle is defined from the reference point; the angle at a point (R,Z) is given by atan((Z-Zref)/(R-Rref)), where Rref=referencepoint/r and Zref=referencepoint/z

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].surface_current[:].n_tor

Toroidal mode numbers, used to describe the spectrum of the antenna current. The wave vector toroidal component is defined as ktor = ntor grad phi where phi is the toroidal angle so that a positive n_tor means a wave propagating in the positive phi direction

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
ic_antennas.antenna[:].surface_current[:].spectrum

Spectrum of the total surface current on the antenna strap and passive components expressed in poloidal and toroidal modes

  • Units: A
  • Data Type: FLT_2D
  • Coordinates: ["ic_antennas.antenna[:].surface_current[:].m_pol", "ic_antennas.antenna[:].surface_current[:].n_tor"]
ic_antennas.antenna[:].surface_current[:].time

Time

  • Units: s
  • Data Type: FLT_0D
ic_antennas.code.commit

Unique commit reference of software

  • Data Type: STR_0D
ic_antennas.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ic_antennas.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ic_antennas.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ic_antennas.code.library[:].name

Name of software

  • Data Type: STR_0D
ic_antennas.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ic_antennas.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
ic_antennas.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ic_antennas.code.name

Name of software generating IDS

  • Data Type: STR_0D
ic_antennas.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["ic_antennas.time"]
ic_antennas.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ic_antennas.code.repository

URL of software repository

  • Data Type: STR_0D
ic_antennas.code.version

Unique version (tag) of software

  • Data Type: STR_0D
ic_antennas.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
ic_antennas.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
ic_antennas.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
ic_antennas.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
ic_antennas.ids_properties.occurrence

N/A

  • Data Type: INT_0D
ic_antennas.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
ic_antennas.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ic_antennas.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
ic_antennas.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ic_antennas.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
ic_antennas.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
ic_antennas.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
ic_antennas.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
ic_antennas.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
ic_antennas.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
ic_antennas.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
ic_antennas.power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["ic_antennas.power_launched.time"]
ic_antennas.power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ic_antennas.reference_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
ic_antennas.reference_point.z

Height

  • Units: m
  • Data Type: FLT_0D
ic_antennas.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
interferometer.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.third_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.third_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
interferometer.channel[:].line_of_sight.third_point.z

Height

  • Units: m
  • Data Type: FLT_0D
interferometer.channel[:].n_e.data

Data

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["interferometer.channel[:].n_e.positions.r", "interferometer.channel[:].n_e.time"]
interferometer.channel[:].n_e.positions.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["interferometer.channel[:].n_e.positions.r"]
interferometer.channel[:].n_e.positions.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].n_e.positions.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["interferometer.channel[:].n_e.positions.r"]
interferometer.channel[:].n_e.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].n_e_line.data

Data

  • Units: m^-2
  • Data Type: FLT_1D
  • Coordinates: ["interferometer.channel[:].n_e_line.time"]
interferometer.channel[:].n_e_line.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].n_e_line.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
interferometer.channel[:].n_e_line.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["interferometer.channel[:].n_e_line.time"]
interferometer.channel[:].n_e_line_average.data

Data

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["interferometer.channel[:].n_e_line_average.time"]
interferometer.channel[:].n_e_line_average.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].n_e_line_average.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
interferometer.channel[:].n_e_line_average.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["interferometer.channel[:].n_e_line_average.time"]
interferometer.channel[:].name

Name of the channel

  • Data Type: STR_0D
interferometer.channel[:].path_length_variation.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["interferometer.channel[:].path_length_variation.time"]
interferometer.channel[:].path_length_variation.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].wavelength[:].fringe_jump_correction

Signed number of 2pi phase corrections applied to remove a fringe jump, for each time slice on which a correction has been made

  • Data Type: INT_1D
  • Coordinates: ["interferometer.channel[:].wavelength[:].fringe_jump_correction_times"]
interferometer.channel[:].wavelength[:].fringe_jump_correction_times

List of time slices of the pulse on which a fringe jump correction has been made

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].wavelength[:].phase_corrected.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["interferometer.channel[:].wavelength[:].phase_corrected.time"]
interferometer.channel[:].wavelength[:].phase_corrected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.channel[:].wavelength[:].phase_to_n_e_line

Conversion factor to be used to convert phase into line density for this wavelength

  • Units: m^-2.rad^-1
  • Data Type: FLT_0D
interferometer.channel[:].wavelength[:].value

Wavelength value

  • Units: m
  • Data Type: FLT_0D
interferometer.code.commit

Unique commit reference of software

  • Data Type: STR_0D
interferometer.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
interferometer.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
interferometer.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
interferometer.code.library[:].name

Name of software

  • Data Type: STR_0D
interferometer.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
interferometer.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
interferometer.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
interferometer.code.name

Name of software generating IDS

  • Data Type: STR_0D
interferometer.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["interferometer.time"]
interferometer.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
interferometer.code.repository

URL of software repository

  • Data Type: STR_0D
interferometer.code.version

Unique version (tag) of software

  • Data Type: STR_0D
interferometer.electrons_n.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["interferometer.electrons_n.time"]
interferometer.electrons_n.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.electrons_n.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
interferometer.electrons_n.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["interferometer.electrons_n.time"]
interferometer.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
interferometer.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
interferometer.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
interferometer.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
interferometer.ids_properties.occurrence

N/A

  • Data Type: INT_0D
interferometer.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
interferometer.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
interferometer.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
interferometer.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
interferometer.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
interferometer.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
interferometer.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
interferometer.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
interferometer.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
interferometer.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
interferometer.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
interferometer.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
interferometer.n_e_volume_average.data

Data

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["interferometer.n_e_volume_average.time"]
interferometer.n_e_volume_average.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
interferometer.n_e_volume_average.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
interferometer.n_e_volume_average.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["interferometer.n_e_volume_average.time"]
interferometer.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
iron_core.code.commit

Unique commit reference of software

  • Data Type: STR_0D
iron_core.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
iron_core.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
iron_core.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
iron_core.code.library[:].name

Name of software

  • Data Type: STR_0D
iron_core.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
iron_core.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
iron_core.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
iron_core.code.name

Name of software generating IDS

  • Data Type: STR_0D
iron_core.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["iron_core.time"]
iron_core.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
iron_core.code.repository

URL of software repository

  • Data Type: STR_0D
iron_core.code.version

Unique version (tag) of software

  • Data Type: STR_0D
iron_core.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
iron_core.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
iron_core.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
iron_core.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
iron_core.ids_properties.occurrence

N/A

  • Data Type: INT_0D
iron_core.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
iron_core.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
iron_core.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
iron_core.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
iron_core.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
iron_core.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
iron_core.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
iron_core.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
iron_core.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
iron_core.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
iron_core.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
iron_core.segment[:].b_field

Array of magnetic field values, for each of which the relative permeability is given

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
iron_core.segment[:].geometry.annulus.r

Centre major radius

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.annulus.radius_inner

Inner radius

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.annulus.radius_outer

Outer radius

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.annulus.z

Centre height

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.arcs_of_circle.curvature_radii

Curvature radius of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["iron_core.segment[:].geometry.arcs_of_circle.r"]
iron_core.segment[:].geometry.arcs_of_circle.r

Major radii of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
iron_core.segment[:].geometry.arcs_of_circle.z

Height of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["iron_core.segment[:].geometry.arcs_of_circle.r"]
iron_core.segment[:].geometry.geometry_type

Type used to describe the element shape (1:'outline', 2:'rectangle', 3:'oblique', 4:'arcs of circle, 5: 'annulus', 6 : 'thick line')

  • Data Type: INT_0D
iron_core.segment[:].geometry.oblique.alpha

Inclination of first angle measured counter-clockwise from horizontal outwardly directed radial vector (grad R).

  • Units: rad
  • Data Type: FLT_0D
iron_core.segment[:].geometry.oblique.beta

Inclination of second angle measured counter-clockwise from vertically upwards directed vector (grad Z). If both alpha and beta are zero (rectangle) then the simpler rectangular elements description should be used.

  • Units: rad
  • Data Type: FLT_0D
iron_core.segment[:].geometry.oblique.length_alpha

Length of the parallelogram side inclined with angle alpha with respect to the major radius axis

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.oblique.length_beta

Length of the parallelogram side inclined with angle beta with respect to the height axis

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.oblique.r

Major radius of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.oblique.z

Height of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
iron_core.segment[:].geometry.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["iron_core.segment[:].geometry.outline.r"]
iron_core.segment[:].geometry.rectangle.height

Vertical full height

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.rectangle.r

Geometric centre R

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.rectangle.width

Horizontal full width

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.rectangle.z

Geometric centre Z

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.thick_line.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.thick_line.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.thick_line.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.thick_line.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].geometry.thick_line.thickness

Thickness

  • Units: m
  • Data Type: FLT_0D
iron_core.segment[:].identifier

ID of the segment

  • Data Type: STR_0D
iron_core.segment[:].magnetisation_r.data

Data

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["iron_core.segment[:].magnetisation_r.time"]
iron_core.segment[:].magnetisation_r.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
iron_core.segment[:].magnetisation_z.data

Data

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["iron_core.segment[:].magnetisation_z.time"]
iron_core.segment[:].magnetisation_z.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
iron_core.segment[:].name

Name of the segment

  • Data Type: STR_0D
iron_core.segment[:].permeability_relative

Relative permeability of the iron segment

  • Data Type: FLT_1D
  • Coordinates: ["iron_core.segment[:].b_field"]
iron_core.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
langmuir_probes.code.commit

Unique commit reference of software

  • Data Type: STR_0D
langmuir_probes.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
langmuir_probes.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
langmuir_probes.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
langmuir_probes.code.library[:].name

Name of software

  • Data Type: STR_0D
langmuir_probes.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
langmuir_probes.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
langmuir_probes.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
langmuir_probes.code.name

Name of software generating IDS

  • Data Type: STR_0D
langmuir_probes.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.time"]
langmuir_probes.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
langmuir_probes.code.repository

URL of software repository

  • Data Type: STR_0D
langmuir_probes.code.version

Unique version (tag) of software

  • Data Type: STR_0D
langmuir_probes.embedded[:].b_field_angle.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].b_field_angle.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].b_field_angle.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].distance_separatrix_midplane.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].distance_separatrix_midplane.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].distance_separatrix_midplane.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].fluence.data

Data

  • Units: m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].fluence.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].fluence.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].heat_flux_parallel.data

Data

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].heat_flux_parallel.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].heat_flux_parallel.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].identifier

ID of the probe

  • Data Type: STR_0D
langmuir_probes.embedded[:].ion_saturation_current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].ion_saturation_current.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].ion_saturation_current.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_parallel.data

Data

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_parallel.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].j_i_parallel.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_parallel_sigma.data

Data

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_parallel_sigma.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].j_i_parallel_sigma.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation.data

Data

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].j_i_saturation.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation_kurtosis.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation_kurtosis.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].j_i_saturation_kurtosis.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation_sigma.data

Data

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation_sigma.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].j_i_saturation_sigma.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation_skew.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].j_i_saturation_skew.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].j_i_saturation_skew.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].multi_temperature_fits[:].t_e.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].multi_temperature_fits[:].time"]
langmuir_probes.embedded[:].multi_temperature_fits[:].t_e.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].multi_temperature_fits[:].t_e.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].multi_temperature_fits[:].time"]
langmuir_probes.embedded[:].multi_temperature_fits[:].t_i.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].multi_temperature_fits[:].time"]
langmuir_probes.embedded[:].multi_temperature_fits[:].t_i.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].multi_temperature_fits[:].t_i.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].multi_temperature_fits[:].time"]
langmuir_probes.embedded[:].multi_temperature_fits[:].time

Timebase for the dynamic nodes of this probe located at this level of the IDS structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
langmuir_probes.embedded[:].n_e.data

Data

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].n_e.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].n_e.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].name

Name of the probe

  • Data Type: STR_0D
langmuir_probes.embedded[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
langmuir_probes.embedded[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
langmuir_probes.embedded[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
langmuir_probes.embedded[:].surface_area

Area of the probe surface exposed to the plasma (use when assuming constant effective collection area)

  • Units: m^2
  • Data Type: FLT_0D
langmuir_probes.embedded[:].surface_area_effective.data

Data

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].surface_area_effective.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].surface_area_effective.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].t_e.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].t_e.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].t_e.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].t_i.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].t_i.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].t_i.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].time

Timebase for the dynamic nodes of this probe located at this level of the IDS structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
langmuir_probes.embedded[:].v_floating.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].v_floating.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].v_floating.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].v_floating_sigma.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].v_floating_sigma.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].v_floating_sigma.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].v_plasma.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.embedded[:].v_plasma.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.embedded[:].v_plasma.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.embedded[:].time"]
langmuir_probes.equilibrium_id.data_entry.machine

Name of the experimental device to which this data is related

  • Data Type: STR_0D
langmuir_probes.equilibrium_id.data_entry.pulse

Pulse number

  • Data Type: INT_0D
langmuir_probes.equilibrium_id.data_entry.pulse_type

Type of the data entry, e.g. "pulse", "simulation", ...

  • Data Type: STR_0D
langmuir_probes.equilibrium_id.data_entry.run

Run number

  • Data Type: INT_0D
langmuir_probes.equilibrium_id.data_entry.user

Username

  • Data Type: STR_0D
langmuir_probes.equilibrium_id.name

IDS name

  • Data Type: STR_0D
langmuir_probes.equilibrium_id.occurrence

IDS occurrence

  • Data Type: INT_0D
langmuir_probes.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
langmuir_probes.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
langmuir_probes.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
langmuir_probes.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
langmuir_probes.ids_properties.occurrence

N/A

  • Data Type: INT_0D
langmuir_probes.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
langmuir_probes.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
langmuir_probes.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
langmuir_probes.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
langmuir_probes.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
langmuir_probes.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
langmuir_probes.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
langmuir_probes.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
langmuir_probes.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
langmuir_probes.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
langmuir_probes.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
langmuir_probes.midplane.description

Verbose description

  • Data Type: STR_0D
langmuir_probes.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
langmuir_probes.midplane.name

Short string identifier

  • Data Type: STR_0D
langmuir_probes.reciprocating[:].identifier

ID of the probe

  • Data Type: STR_0D
langmuir_probes.reciprocating[:].name

Name of the probe

  • Data Type: STR_0D
langmuir_probes.reciprocating[:].plunge[:].b_field_angle.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].b_field_angle.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].b_field_angle.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].heat_flux_parallel.data

Data

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].heat_flux_parallel.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].heat_flux_parallel.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].ion_saturation_current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].ion_saturation_current.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].ion_saturation_current.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_kurtosis.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_kurtosis.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_kurtosis.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_parallel.data

Data

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_parallel.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_parallel.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_saturation.data

Data

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_saturation.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_saturation.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_sigma.data

Data

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_sigma.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_sigma.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_skew.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_skew.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].j_i_skew.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].position.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].position.validity

Indicator of the validity of the position data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].position.validity_timed

Indicator of the validity of the position data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].t_e.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].t_e.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].t_e.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].t_i.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].t_i.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].t_i.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].v_floating.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].v_floating.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].v_floating.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].v_floating_sigma.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].collector[:].v_floating_sigma.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].collector[:].v_floating_sigma.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].distance_separatrix_midplane.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].distance_separatrix_midplane.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].distance_separatrix_midplane.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].distance_x_point_z.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].distance_x_point_z.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].distance_x_point_z.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].mach_number_parallel.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].mach_number_parallel.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].mach_number_parallel.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].n_e.data

Data

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].n_e.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].n_e.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].position_average.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].position_average.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].position_average.validity

Indicator of the validity of the position data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].position_average.validity_timed

Indicator of the validity of the position data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].position_average.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].t_e_average.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].t_e_average.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].t_e_average.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].t_i_average.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].t_i_average.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].t_i_average.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].time

Time of maximum penetration of the probe during a given plunge

  • Units: s
  • Data Type: FLT_0D
langmuir_probes.reciprocating[:].plunge[:].time_within_plunge

Time vector for describing the dynamics within the plunge

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
langmuir_probes.reciprocating[:].plunge[:].v_plasma.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].plunge[:].v_plasma.validity

Indicator of the validity of the data for the whole plunge. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
langmuir_probes.reciprocating[:].plunge[:].v_plasma.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].time_within_plunge"]
langmuir_probes.reciprocating[:].surface_area

Area of the surface exposed to the plasma of each collector (constant assuming negligible dependence on e.g. the magnetic field line angle)

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["langmuir_probes.reciprocating[:].plunge[:].collector"]
langmuir_probes.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].available_launch_power

Available launch power

  • Units: W
  • Data Type: FLT_0D
lh_antennas.antenna[:].distance_to_antenna

Radial distance to the antenna mouth (grid for the electron density profile). 0 at antenna mouth, increasing towards the plasma

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].efficiency.conversion

Conversion efficiency of electric power to microwave power

  • Data Type: FLT_0D
lh_antennas.antenna[:].efficiency.coupling

Coupling efficiency of launched microwave power to the plasma

  • Data Type: FLT_0D
lh_antennas.antenna[:].efficiency.transmission

Transmission efficiency of microwave power from generator to antenna

  • Data Type: FLT_0D
lh_antennas.antenna[:].frequency

Frequency

  • Units: Hz
  • Data Type: FLT_0D
lh_antennas.antenna[:].identifier

Identifier of the antenna (unique within the set of all antennas of the experiment)

  • Data Type: STR_0D
lh_antennas.antenna[:].model_name

Name of the antenna model used for antenna spectrum computation

  • Data Type: STR_0D
lh_antennas.antenna[:].module[:].identifier

Identifier of the module

  • Data Type: STR_0D
lh_antennas.antenna[:].module[:].name

Name of the module

  • Data Type: STR_0D
lh_antennas.antenna[:].module[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].module[:].phase.time"]
lh_antennas.antenna[:].module[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].module[:].power_forward.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].module[:].power_forward.time"]
lh_antennas.antenna[:].module[:].power_forward.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].module[:].power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].module[:].power_launched.time"]
lh_antennas.antenna[:].module[:].power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].module[:].power_reflected.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].module[:].power_reflected.time"]
lh_antennas.antenna[:].module[:].power_reflected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].module[:].reflection_coefficient.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].module[:].reflection_coefficient.time"]
lh_antennas.antenna[:].module[:].reflection_coefficient.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].n_e.data

Data

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "lh_antennas.antenna[:].n_e.time"]
lh_antennas.antenna[:].n_e.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].n_parallel_peak.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].n_parallel_peak.time"]
lh_antennas.antenna[:].n_parallel_peak.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].name

Name of the antenna (unique within the set of all antennas of the experiment)

  • Data Type: STR_0D
lh_antennas.antenna[:].phase_average.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].phase_average.time"]
lh_antennas.antenna[:].phase_average.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].position.definition

Definition of the reference point

  • Data Type: STR_0D
lh_antennas.antenna[:].position.phi.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].position.phi.time"]
lh_antennas.antenna[:].position.phi.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].position.r.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].position.r.time"]
lh_antennas.antenna[:].position.r.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].position.z.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].position.z.time"]
lh_antennas.antenna[:].position.z.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].power_forward.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].power_forward.time"]
lh_antennas.antenna[:].power_forward.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].power_launched.time"]
lh_antennas.antenna[:].power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].power_reflected.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].power_reflected.time"]
lh_antennas.antenna[:].power_reflected.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].pressure_tank.data

Data

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].pressure_tank.time"]
lh_antennas.antenna[:].pressure_tank.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].reflection_coefficient.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].reflection_coefficient.time"]
lh_antennas.antenna[:].reflection_coefficient.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].row[:].n_pol

Refraction index in the poloidal direction. The poloidal angle is defined from the reference point; the angle at a point (R,Z) is given by atan((Z-Zref)/(R-Rref)), where Rref=referencepoint/r and Zref=referencepoint/z

  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].row[:].time"]
lh_antennas.antenna[:].row[:].n_tor

Refraction index in the toroidal direction

  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].row[:].time"]
lh_antennas.antenna[:].row[:].name

Name of the row

  • Data Type: STR_0D
lh_antennas.antenna[:].row[:].position.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].row[:].position.time"]
lh_antennas.antenna[:].row[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].row[:].position.time"]
lh_antennas.antenna[:].row[:].position.time

Time for the R,Z,phi coordinates

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.antenna[:].row[:].position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.antenna[:].row[:].position.time"]
lh_antennas.antenna[:].row[:].power_density_spectrum_1d

1D power density spectrum dP/dn_tor, as a function of time

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["lh_antennas.antenna[:].row[:].n_tor", "lh_antennas.antenna[:].row[:].time"]
lh_antennas.antenna[:].row[:].power_density_spectrum_2d

2D power density spectrum d2P/(dntor.dnpol), as a function of time

  • Units: W
  • Data Type: FLT_3D
  • Coordinates: ["lh_antennas.antenna[:].row[:].n_tor", "lh_antennas.antenna[:].row[:].n_pol", "lh_antennas.antenna[:].row[:].time"]
lh_antennas.antenna[:].row[:].time

Timebase for the dynamic nodes of this probe located at this level of the IDS structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.code.commit

Unique commit reference of software

  • Data Type: STR_0D
lh_antennas.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
lh_antennas.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
lh_antennas.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
lh_antennas.code.library[:].name

Name of software

  • Data Type: STR_0D
lh_antennas.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
lh_antennas.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
lh_antennas.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
lh_antennas.code.name

Name of software generating IDS

  • Data Type: STR_0D
lh_antennas.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["lh_antennas.time"]
lh_antennas.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
lh_antennas.code.repository

URL of software repository

  • Data Type: STR_0D
lh_antennas.code.version

Unique version (tag) of software

  • Data Type: STR_0D
lh_antennas.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
lh_antennas.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
lh_antennas.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
lh_antennas.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
lh_antennas.ids_properties.occurrence

N/A

  • Data Type: INT_0D
lh_antennas.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
lh_antennas.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
lh_antennas.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
lh_antennas.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
lh_antennas.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
lh_antennas.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
lh_antennas.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
lh_antennas.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
lh_antennas.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
lh_antennas.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
lh_antennas.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
lh_antennas.power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["lh_antennas.power_launched.time"]
lh_antennas.power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
lh_antennas.reference_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
lh_antennas.reference_point.z

Height

  • Units: m
  • Data Type: FLT_0D
lh_antennas.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.b_field_pol_probe[:].area

Area of each turn of the sensor; becomes effective area when multiplied by the turns

  • Units: m^2
  • Data Type: FLT_0D
magnetics.b_field_pol_probe[:].bandwidth_3db

3dB bandwith (first index : lower frequency bound, second index : upper frequency bound)

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
magnetics.b_field_pol_probe[:].field.data

Data

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.b_field_pol_probe[:].field.time"]
magnetics.b_field_pol_probe[:].field.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.b_field_pol_probe[:].field.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.b_field_pol_probe[:].field.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.b_field_pol_probe[:].field.time"]
magnetics.b_field_pol_probe[:].identifier

ID of the probe

  • Data Type: STR_0D
magnetics.b_field_pol_probe[:].indices_differential

Indices (from the bpol_probe array of structure) of the two probes used to build the field difference field(second index) - field(first index). Use only if ../type/index = 6, leave empty otherwise

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
magnetics.b_field_pol_probe[:].length

Length of the sensor along it's normal vector (n)

  • Units: m
  • Data Type: FLT_0D
magnetics.b_field_pol_probe[:].name

Name of the probe

  • Data Type: STR_0D
magnetics.b_field_pol_probe[:].non_linear_response.b_field_linear

Array of magnetic field values (corresponding to the assumption of a linear relation between magnetic field and probe coil current), for each of which the probe non-linear response is given in ../bfieldnon_linear

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.b_field_pol_probe[:].non_linear_response.b_field_non_linear

Magnetic field value taking into account the non-linear response of the probe

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.b_field_pol_probe[:].non_linear_response.b_field_linear"]
magnetics.b_field_pol_probe[:].poloidal_angle

Angle of the sensor normal vector (vector parallel to the the axis of the coil, n on the diagram) with respect to horizontal plane (clockwise theta-like angle). Zero if sensor normal vector fully in the horizontal plane and oriented towards increasing major radius. Values in [0 , 2Pi]

  • Units: rad
  • Data Type: FLT_0D
magnetics.b_field_pol_probe[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
magnetics.b_field_pol_probe[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
magnetics.b_field_pol_probe[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
magnetics.b_field_pol_probe[:].toroidal_angle

Angle of the projection of the sensor normal vector (n) in the horizontal plane with the increasing R direction (i.e. grad(R)) (angle is counter-clockwise from above as in cocos=11 phi-like angle). Values should be taken modulo pi with values within (-pi/2,pi/2]. Zero if projected sensor normal is parallel to grad(R), pi/2 if it is parallel to grad(phi).

  • Units: rad
  • Data Type: FLT_0D
magnetics.b_field_pol_probe[:].turns

Turns in the coil, including sign

  • Data Type: INT_0D
magnetics.b_field_pol_probe[:].type.description

Verbose description

  • Data Type: STR_0D
magnetics.b_field_pol_probe[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
magnetics.b_field_pol_probe[:].type.name

Short string identifier

  • Data Type: STR_0D
magnetics.b_field_pol_probe[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.b_field_pol_probe[:].voltage.time"]
magnetics.b_field_pol_probe[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.b_field_pol_probe[:].voltage.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.b_field_pol_probe[:].voltage.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.b_field_pol_probe[:].voltage.time"]
magnetics.b_field_tor_probe[:].area

Area of each turn of the sensor; becomes effective area when multiplied by the turns

  • Units: m^2
  • Data Type: FLT_0D
magnetics.b_field_tor_probe[:].bandwidth_3db

3dB bandwith (first index : lower frequency bound, second index : upper frequency bound)

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
magnetics.b_field_tor_probe[:].field.data

Data

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.b_field_tor_probe[:].field.time"]
magnetics.b_field_tor_probe[:].field.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.b_field_tor_probe[:].field.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.b_field_tor_probe[:].field.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.b_field_tor_probe[:].field.time"]
magnetics.b_field_tor_probe[:].identifier

ID of the probe

  • Data Type: STR_0D
magnetics.b_field_tor_probe[:].indices_differential

Indices (from the bpol_probe array of structure) of the two probes used to build the field difference field(second index) - field(first index). Use only if ../type/index = 6, leave empty otherwise

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
magnetics.b_field_tor_probe[:].length

Length of the sensor along it's normal vector (n)

  • Units: m
  • Data Type: FLT_0D
magnetics.b_field_tor_probe[:].name

Name of the probe

  • Data Type: STR_0D
magnetics.b_field_tor_probe[:].non_linear_response.b_field_linear

Array of magnetic field values (corresponding to the assumption of a linear relation between magnetic field and probe coil current), for each of which the probe non-linear response is given in ../bfieldnon_linear

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.b_field_tor_probe[:].non_linear_response.b_field_non_linear

Magnetic field value taking into account the non-linear response of the probe

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.b_field_tor_probe[:].non_linear_response.b_field_linear"]
magnetics.b_field_tor_probe[:].poloidal_angle

Angle of the sensor normal vector (vector parallel to the the axis of the coil, n on the diagram) with respect to horizontal plane (clockwise theta-like angle). Zero if sensor normal vector fully in the horizontal plane and oriented towards increasing major radius. Values in [0 , 2Pi]

  • Units: rad
  • Data Type: FLT_0D
magnetics.b_field_tor_probe[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
magnetics.b_field_tor_probe[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
magnetics.b_field_tor_probe[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
magnetics.b_field_tor_probe[:].toroidal_angle

Angle of the projection of the sensor normal vector (n) in the horizontal plane with the increasing R direction (i.e. grad(R)) (angle is counter-clockwise from above as in cocos=11 phi-like angle). Values should be taken modulo pi with values within (-pi/2,pi/2]. Zero if projected sensor normal is parallel to grad(R), pi/2 if it is parallel to grad(phi).

  • Units: rad
  • Data Type: FLT_0D
magnetics.b_field_tor_probe[:].turns

Turns in the coil, including sign

  • Data Type: INT_0D
magnetics.b_field_tor_probe[:].type.description

Verbose description

  • Data Type: STR_0D
magnetics.b_field_tor_probe[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
magnetics.b_field_tor_probe[:].type.name

Short string identifier

  • Data Type: STR_0D
magnetics.b_field_tor_probe[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.b_field_tor_probe[:].voltage.time"]
magnetics.b_field_tor_probe[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.b_field_tor_probe[:].voltage.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.b_field_tor_probe[:].voltage.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.b_field_tor_probe[:].voltage.time"]
magnetics.code.commit

Unique commit reference of software

  • Data Type: STR_0D
magnetics.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
magnetics.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
magnetics.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
magnetics.code.library[:].name

Name of software

  • Data Type: STR_0D
magnetics.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
magnetics.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
magnetics.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
magnetics.code.name

Name of software generating IDS

  • Data Type: STR_0D
magnetics.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["magnetics.time"]
magnetics.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
magnetics.code.repository

URL of software repository

  • Data Type: STR_0D
magnetics.code.version

Unique version (tag) of software

  • Data Type: STR_0D
magnetics.diamagnetic_flux[:].data

Data

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.diamagnetic_flux[:].time"]
magnetics.diamagnetic_flux[:].method_name

Name of the calculation method

  • Data Type: STR_0D
magnetics.diamagnetic_flux[:].time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.flux_loop[:].area

Effective area (ratio between flux and average magnetic field over the loop)

  • Units: m^2
  • Data Type: FLT_0D
magnetics.flux_loop[:].flux.data

Data

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.flux_loop[:].flux.time"]
magnetics.flux_loop[:].flux.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.flux_loop[:].flux.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.flux_loop[:].flux.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.flux_loop[:].flux.time"]
magnetics.flux_loop[:].gm9

Integral of 1/R over the loop area (ratio between flux and magnetic rigidity R0.B0). Use only if ../type/index = 3 to 6, leave empty otherwise.

  • Units: m
  • Data Type: FLT_0D
magnetics.flux_loop[:].identifier

ID of the flux loop

  • Data Type: STR_0D
magnetics.flux_loop[:].indices_differential

Indices (from the flux_loop array of structure) of the two flux loops used to build the flux difference flux(second index) - flux(first index). Use only if ../type/index = 6, leave empty otherwise

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
magnetics.flux_loop[:].name

Name of the flux loop

  • Data Type: STR_0D
magnetics.flux_loop[:].position[:].phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
magnetics.flux_loop[:].position[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
magnetics.flux_loop[:].position[:].z

Height

  • Units: m
  • Data Type: FLT_0D
magnetics.flux_loop[:].type.description

Verbose description

  • Data Type: STR_0D
magnetics.flux_loop[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
magnetics.flux_loop[:].type.name

Short string identifier

  • Data Type: STR_0D
magnetics.flux_loop[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.flux_loop[:].voltage.time"]
magnetics.flux_loop[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.flux_loop[:].voltage.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.flux_loop[:].voltage.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.flux_loop[:].voltage.time"]
magnetics.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
magnetics.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
magnetics.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
magnetics.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
magnetics.ids_properties.occurrence

N/A

  • Data Type: INT_0D
magnetics.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
magnetics.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
magnetics.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
magnetics.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
magnetics.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
magnetics.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
magnetics.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
magnetics.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
magnetics.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
magnetics.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
magnetics.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
magnetics.ip[:].data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.ip[:].time"]
magnetics.ip[:].method_name

Name of the calculation method

  • Data Type: STR_0D
magnetics.ip[:].time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
magnetics.rogowski_coil[:].area

Effective area of the loop wrapped around the guiding centre. In case of multiple layers, sum of the areas of each layer

  • Units: m^2
  • Data Type: FLT_0D
magnetics.rogowski_coil[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.rogowski_coil[:].current.time"]
magnetics.rogowski_coil[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.rogowski_coil[:].current.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.rogowski_coil[:].current.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.rogowski_coil[:].current.time"]
magnetics.rogowski_coil[:].identifier

ID of the coil

  • Data Type: STR_0D
magnetics.rogowski_coil[:].indices_compound

Indices (from the rogowskicoil array of structure) of the partial Rogoswkis used to build the coumpound signal (sum of the partial Rogoswki signals). Can be set to any unique integer value for each section of a compound rogowski coil. Use only if ../measurequantity/index = 5, leave empty otherwise

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
magnetics.rogowski_coil[:].measured_quantity.description

Verbose description

  • Data Type: STR_0D
magnetics.rogowski_coil[:].measured_quantity.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
magnetics.rogowski_coil[:].measured_quantity.name

Short string identifier

  • Data Type: STR_0D
magnetics.rogowski_coil[:].name

Name of the coil

  • Data Type: STR_0D
magnetics.rogowski_coil[:].position[:].phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
magnetics.rogowski_coil[:].position[:].r

Major radius

  • Units: m
  • Data Type: FLT_0D
magnetics.rogowski_coil[:].position[:].z

Height

  • Units: m
  • Data Type: FLT_0D
magnetics.rogowski_coil[:].turns_per_metre

Number of turns per unit length. In case of multiple layers, turns are counted for a single layer

  • Units: m^-1
  • Data Type: FLT_0D
magnetics.shunt[:].divertor_index

If the shunt is located on a given divertor, index of that divertor in the divertors IDS

  • Data Type: INT_0D
magnetics.shunt[:].identifier

Alphanumeric identifier of the shunt

  • Data Type: STR_0D
magnetics.shunt[:].name

Name of the shunt

  • Data Type: STR_0D
magnetics.shunt[:].position.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
magnetics.shunt[:].position.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
magnetics.shunt[:].position.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
magnetics.shunt[:].position.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
magnetics.shunt[:].resistance

Shunt resistance

  • Units: Ohm
  • Data Type: FLT_0D
magnetics.shunt[:].target_index

If the shunt is located on a divertor target, index of that target in the divertors IDS

  • Data Type: INT_0D
magnetics.shunt[:].tile_index

If the shunt is located on a divertor tile, index of that tile in the divertors IDS

  • Data Type: INT_0D
magnetics.shunt[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["magnetics.shunt[:].voltage.time"]
magnetics.shunt[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
magnetics.shunt[:].voltage.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
magnetics.shunt[:].voltage.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["magnetics.shunt[:].voltage.time"]
magnetics.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.code.commit

Unique commit reference of software

  • Data Type: STR_0D
mhd.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd.code.library[:].name

Name of software

  • Data Type: STR_0D
mhd.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
mhd.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd.code.name

Name of software generating IDS

  • Data Type: STR_0D
mhd.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["mhd.time"]
mhd.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd.code.repository

URL of software repository

  • Data Type: STR_0D
mhd.code.version

Unique version (tag) of software

  • Data Type: STR_0D
mhd.ggd[:].a_field_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].a_field_r[:].values", "1...N"]
mhd.ggd[:].a_field_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].a_field_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].a_field_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].a_field_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].a_field_tor[:].values", "1...N"]
mhd.ggd[:].a_field_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].a_field_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].a_field_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].a_field_z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].a_field_z[:].values", "1...N"]
mhd.ggd[:].a_field_z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].a_field_z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].a_field_z[:].values

One scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].b_field_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].b_field_r[:].values", "1...N"]
mhd.ggd[:].b_field_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].b_field_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].b_field_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].b_field_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].b_field_tor[:].values", "1...N"]
mhd.ggd[:].b_field_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].b_field_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].b_field_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].b_field_z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].b_field_z[:].values", "1...N"]
mhd.ggd[:].b_field_z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].b_field_z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].b_field_z[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].electrons.temperature[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].electrons.temperature[:].values", "1...N"]
mhd.ggd[:].electrons.temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].electrons.temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].electrons.temperature[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].j_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].j_r[:].values", "1...N"]
mhd.ggd[:].j_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].j_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].j_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].j_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].j_tor[:].values", "1...N"]
mhd.ggd[:].j_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].j_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].j_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].j_tor_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].j_tor_r[:].values", "1...N"]
mhd.ggd[:].j_tor_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].j_tor_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].j_tor_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].j_z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].j_z[:].values", "1...N"]
mhd.ggd[:].j_z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].j_z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].j_z[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].mass_density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].mass_density[:].values", "1...N"]
mhd.ggd[:].mass_density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].mass_density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].mass_density[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].n_i_total[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].n_i_total[:].values", "1...N"]
mhd.ggd[:].n_i_total[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].n_i_total[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].n_i_total[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].phi_potential[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].phi_potential[:].values", "1...N"]
mhd.ggd[:].phi_potential[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].phi_potential[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].phi_potential[:].values

One scalar value is provided per element in the grid subset.

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].psi[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Wb
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].psi[:].values", "1...N"]
mhd.ggd[:].psi[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].psi[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].psi[:].values

One scalar value is provided per element in the grid subset.

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].t_i_average[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].t_i_average[:].values", "1...N"]
mhd.ggd[:].t_i_average[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].t_i_average[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].t_i_average[:].values

One scalar value is provided per element in the grid subset.

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
mhd.ggd[:].velocity_parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].velocity_parallel[:].values", "1...N"]
mhd.ggd[:].velocity_parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].velocity_parallel[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].velocity_parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].velocity_parallel_over_b_field[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1.T^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].velocity_parallel_over_b_field[:].values", "1...N"]
mhd.ggd[:].velocity_parallel_over_b_field[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].velocity_parallel_over_b_field[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].velocity_parallel_over_b_field[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1.T^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].velocity_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].velocity_r[:].values", "1...N"]
mhd.ggd[:].velocity_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].velocity_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].velocity_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].velocity_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].velocity_tor[:].values", "1...N"]
mhd.ggd[:].velocity_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].velocity_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].velocity_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].velocity_z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].velocity_z[:].values", "1...N"]
mhd.ggd[:].velocity_z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].velocity_z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].velocity_z[:].values

One scalar value is provided per element in the grid subset.

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].vorticity[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: s^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].vorticity[:].values", "1...N"]
mhd.ggd[:].vorticity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].vorticity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].vorticity[:].values

One scalar value is provided per element in the grid subset.

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].vorticity_over_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-1.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].vorticity_over_r[:].values", "1...N"]
mhd.ggd[:].vorticity_over_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].vorticity_over_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].vorticity_over_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.ggd[:].zeff[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["mhd.ggd[:].zeff[:].values", "1...N"]
mhd.ggd[:].zeff[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
mhd.ggd[:].zeff[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
mhd.ggd[:].zeff[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["mhd.grid_ggd[:].grid_subset[:].element"]
mhd.grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["mhd.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
mhd.grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["mhd.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
mhd.grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
mhd.grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
mhd.grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
mhd.grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
mhd.grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
mhd.grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd.grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
mhd.grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["mhd.grid_ggd[:].grid_subset[:].element"]
mhd.grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["mhd.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
mhd.grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["mhd.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
mhd.grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
mhd.grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd.grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
mhd.grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
mhd.grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
mhd.grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
mhd.grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd.grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
mhd.grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
mhd.grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd.grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
mhd.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
mhd.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
mhd.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
mhd.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
mhd.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
mhd.grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
mhd.grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
mhd.grid_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
mhd.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
mhd.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
mhd.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
mhd.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
mhd.ids_properties.occurrence

N/A

  • Data Type: INT_0D
mhd.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
mhd.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
mhd.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
mhd.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
mhd.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
mhd.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
mhd.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
mhd.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
mhd.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
mhd.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.code.commit

Unique commit reference of software

  • Data Type: STR_0D
mhd_linear.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd_linear.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd_linear.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd_linear.code.library[:].name

Name of software

  • Data Type: STR_0D
mhd_linear.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd_linear.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
mhd_linear.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd_linear.code.name

Name of software generating IDS

  • Data Type: STR_0D
mhd_linear.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["mhd_linear.time"]
mhd_linear.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd_linear.code.repository

URL of software repository

  • Data Type: STR_0D
mhd_linear.code.version

Unique version (tag) of software

  • Data Type: STR_0D
mhd_linear.equations.description

Verbose description

  • Data Type: STR_0D
mhd_linear.equations.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.equations.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.fluids_n

Number of fluids considered in the model

  • Data Type: INT_0D
mhd_linear.ideal_flag

1 if ideal MHD is used to populate this IDS, 0 for non-ideal MHD

  • Data Type: INT_0D
mhd_linear.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
mhd_linear.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
mhd_linear.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
mhd_linear.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
mhd_linear.ids_properties.occurrence

N/A

  • Data Type: INT_0D
mhd_linear.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
mhd_linear.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mhd_linear.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
mhd_linear.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
mhd_linear.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
mhd_linear.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
mhd_linear.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
mhd_linear.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
mhd_linear.model_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.model_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.model_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].amplitude_multiplier

Multiplier that is needed to convert the linear mode structures to the amplitude of a non-linearly saturated mode in physical units. If empty, it means that the structures contains no information about non-linearly saturated mode

  • Units: mixed
  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].ballooning_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].ballooning_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.time_slice[:].toroidal_mode[:].ballooning_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].energy_perturbed

Perturbed energy associated to the mode

  • Units: J
  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].frequency

Frequency of the mode

  • Units: Hz
  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].growthrate

Linear growthrate of the mode

  • Units: Hz
  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].m_pol_dominant

Dominant poloidal mode number defining the mode rational surface; for TAEs the lower of the two main m's has to be specified

  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].n_tor

Toroidal mode number of the MHD mode

  • Data Type: INT_0D
mhd_linear.time_slice[:].toroidal_mode[:].perturbation_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].perturbation_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.time_slice[:].toroidal_mode[:].perturbation_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].phase

Additional phase offset of mode

  • Units: rad
  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate1.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate1.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate1.imaginary

Imaginary part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate1.real

Real part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate2.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate2.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate2.imaginary

Imaginary part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate2.real

Real part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate3.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate3.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate3.imaginary

Imaginary part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.a_field_perturbed.coordinate3.real

Real part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.alfven_frequency_spectrum[:].imaginary

Imaginary part of the frequency, for a given radial position and every root found at this position

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.alfven_frequency_spectrum[:].real"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.alfven_frequency_spectrum[:].real

Real part of the frequency, for a given radial position and every root found at this position

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate1.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate1.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate1.imaginary

Imaginary part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate1.real

Real part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate2.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate2.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate2.imaginary

Imaginary part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate2.real

Real part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate3.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate3.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate3.imaginary

Imaginary part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.b_field_perturbed.coordinate3.real

Real part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.jacobian

Absolute value of the jacobian of the coordinate system

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.r

Values of the major radius on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.tensor_contravariant

Contravariant metric tensor on every point of the grid described by grid_type

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim2", "1...3", "1...3"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.tensor_covariant

Covariant metric tensor on every point of the grid described by grid_type

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim2", "1...3", "1...3"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.z

Values of the Height on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_parallel.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_parallel.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_parallel.imaginary

Imaginary part

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_parallel.real

Real part

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_perpendicular.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_perpendicular.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_perpendicular.imaginary

Imaginary part

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.displacement_perpendicular.real

Real part

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].plasma.mass_density_perturbed.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: kg.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.mass_density_perturbed.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: kg.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.mass_density_perturbed.imaginary

Imaginary part

  • Units: kg.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.mass_density_perturbed.real

Real part

  • Units: kg.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.ntv.imaginary

Imaginary part of the stress tensor, for various radial positions

  • Units: N.m^-2
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "1...N", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.ntv.real

Real part of the stress tensor, for various radial positions

  • Units: N.m^-2
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "1...N", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.phi_potential_perturbed.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: V
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.phi_potential_perturbed.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: V
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.phi_potential_perturbed.imaginary

Imaginary part

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.phi_potential_perturbed.real

Real part

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.pressure_perturbed.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: Pa
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.pressure_perturbed.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: Pa
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.pressure_perturbed.imaginary

Imaginary part

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.pressure_perturbed.real

Real part

  • Units: Pa
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.psi_potential_perturbed.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: V
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.psi_potential_perturbed.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: V
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.psi_potential_perturbed.imaginary

Imaginary part

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.psi_potential_perturbed.real

Real part

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.stress_maxwell.imaginary

Imaginary part of the stress tensor, for various radial positions

  • Units: N.m^-2
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "1...N", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.stress_maxwell.real

Real part of the stress tensor, for various radial positions

  • Units: N.m^-2
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "1...N", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.stress_reynolds.imaginary

Imaginary part of the stress tensor, for various radial positions

  • Units: N.m^-2
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "1...N", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.stress_reynolds.real

Real part of the stress tensor, for various radial positions

  • Units: N.m^-2
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "1...N", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.tau_alfven

Alven time=R/vA=R0 sqrt(mi ni(rho))/B0

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.tau_resistive

Resistive time = mu0 rho*rho/1.22/etaneo

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.temperature_perturbed.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: eV
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.temperature_perturbed.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: eV
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.temperature_perturbed.imaginary

Imaginary part

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.temperature_perturbed.real

Real part

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate1.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: m/s
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate1.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: m/s
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate1.imaginary

Imaginary part

  • Units: m/s
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate1.real

Real part

  • Units: m/s
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate2.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: m/s
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate2.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: m/s
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate2.imaginary

Imaginary part

  • Units: m/s
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate2.real

Real part

  • Units: m/s
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate3.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: m/s
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate3.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: m/s
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate3.imaginary

Imaginary part

  • Units: m/s
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].plasma.velocity_perturbed.coordinate3.real

Real part

  • Units: m/s
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].plasma.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].radial_mode_number

Radial mode number

  • Data Type: FLT_0D
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate1.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate1.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate1.imaginary

Imaginary part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate1.real

Real part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate2.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate2.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate2.imaginary

Imaginary part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate2.real

Real part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate3.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate3.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T.m
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate3.imaginary

Imaginary part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.a_field_perturbed.coordinate3.real

Real part

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate1.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate1.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate1.imaginary

Imaginary part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate1.real

Real part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate2.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate2.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate2.imaginary

Imaginary part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate2.real

Real part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate3.coefficients_imaginary

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (imaginary part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate3.coefficients_real

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity (real part) with finite elements, provided on the 2D grid

  • Units: T
  • Data Type: FLT_3D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2", "1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate3.imaginary

Imaginary part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.b_field_perturbed.coordinate3.real

Real part

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.jacobian

Absolute value of the jacobian of the coordinate system

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.r

Values of the major radius on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.tensor_contravariant

Contravariant metric tensor on every point of the grid described by grid_type

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim2", "1...3", "1...3"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.tensor_covariant

Covariant metric tensor on every point of the grid described by grid_type

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim2", "1...3", "1...3"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.z

Values of the Height on the grid

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.coordinate_system.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim1", "mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid.dim2"]
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid_type.description

Verbose description

  • Data Type: STR_0D
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mhd_linear.time_slice[:].toroidal_mode[:].vacuum.grid_type.name

Short string identifier

  • Data Type: STR_0D
mhd_linear.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["mhd_linear.time"]
mhd_linear.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].active_spatial_resolution[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
mse.channel[:].active_spatial_resolution[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].active_spatial_resolution[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].active_spatial_resolution[:].geometric_coefficients

Set of 9 geometric coefficients providing the MSE polarisation angle as a function of the local electric and magnetic field components (these are related to the angle between beam and line of sight). The list is ordered as follows : coefficients of BZ, BR, Bphi, ER (numerator of the MSE angle expression); coefficients of BZ, BR, Bphi, ER, EZ (denominator)

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...9"]
mse.channel[:].active_spatial_resolution[:].time

Time

  • Units: s
  • Data Type: FLT_0D
mse.channel[:].active_spatial_resolution[:].width.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
mse.channel[:].active_spatial_resolution[:].width.r

Major radius

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].active_spatial_resolution[:].width.z

Height

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
mse.channel[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
mse.channel[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mse.channel[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["mse.channel[:].aperture[:].outline.x1"]
mse.channel[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
mse.channel[:].detector.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
mse.channel[:].detector.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mse.channel[:].detector.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["mse.channel[:].detector.outline.x1"]
mse.channel[:].detector.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
mse.channel[:].detector.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].detector.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
mse.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
mse.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
mse.channel[:].name

Name of the channel

  • Data Type: STR_0D
mse.channel[:].polarisation_angle.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["mse.channel[:].polarisation_angle.time"]
mse.channel[:].polarisation_angle.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
mse.channel[:].polarisation_angle.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
mse.channel[:].polarisation_angle.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["mse.channel[:].polarisation_angle.time"]
mse.code.commit

Unique commit reference of software

  • Data Type: STR_0D
mse.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mse.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mse.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mse.code.library[:].name

Name of software

  • Data Type: STR_0D
mse.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mse.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
mse.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mse.code.name

Name of software generating IDS

  • Data Type: STR_0D
mse.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["mse.time"]
mse.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mse.code.repository

URL of software repository

  • Data Type: STR_0D
mse.code.version

Unique version (tag) of software

  • Data Type: STR_0D
mse.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
mse.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
mse.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
mse.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
mse.ids_properties.occurrence

N/A

  • Data Type: INT_0D
mse.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
mse.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
mse.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
mse.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
mse.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
mse.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
mse.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
mse.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
mse.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
mse.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
mse.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
mse.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
mse.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.code.commit

Unique commit reference of software

  • Data Type: STR_0D
nbi.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
nbi.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
nbi.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
nbi.code.library[:].name

Name of software

  • Data Type: STR_0D
nbi.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
nbi.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
nbi.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
nbi.code.name

Name of software generating IDS

  • Data Type: STR_0D
nbi.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["nbi.time"]
nbi.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
nbi.code.repository

URL of software repository

  • Data Type: STR_0D
nbi.code.version

Unique version (tag) of software

  • Data Type: STR_0D
nbi.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
nbi.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
nbi.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
nbi.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
nbi.ids_properties.occurrence

N/A

  • Data Type: INT_0D
nbi.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
nbi.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
nbi.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
nbi.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
nbi.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
nbi.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
nbi.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
nbi.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
nbi.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
nbi.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
nbi.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
nbi.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
nbi.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
nbi.unit[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].aperture[:].outline.x1"]
nbi.unit[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].available_launch_power

Available launch power

  • Units: W
  • Data Type: FLT_0D
nbi.unit[:].beam_current_fraction.data

Data

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "nbi.unit[:].beam_current_fraction.time"]
nbi.unit[:].beam_current_fraction.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].beam_power_fraction.data

Data

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "nbi.unit[:].beam_power_fraction.time"]
nbi.unit[:].beam_power_fraction.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].beamlets_group[:].angle

Angle of inclination between a beamlet at the centre of the injection unit surface and the horiontal plane

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].beamlets.angles

Angle of inclination between a line at the centre of a beamlet and the horizontal plane, for each beamlet

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].beamlets_group[:].beamlets.positions.r"]
nbi.unit[:].beamlets_group[:].beamlets.positions.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].beamlets_group[:].beamlets.positions.r"]
nbi.unit[:].beamlets_group[:].beamlets.positions.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].beamlets_group[:].beamlets.positions.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].beamlets_group[:].beamlets.positions.r"]
nbi.unit[:].beamlets_group[:].beamlets.power_fractions

Fraction of power of a unit injected by each beamlet

  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].beamlets_group[:].beamlets.positions.r"]
nbi.unit[:].beamlets_group[:].beamlets.tangency_radii

Tangency radius (major radius where the central line of a beamlet is tangent to a circle around the torus), for each beamlet

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].beamlets_group[:].beamlets.positions.r"]
nbi.unit[:].beamlets_group[:].direction

Direction of the beam seen from above the torus: -1 = clockwise; 1 = counter clockwise

  • Data Type: INT_0D
nbi.unit[:].beamlets_group[:].divergence_component[:].horizontal

The horiztonal beamlet divergence of the component. Here the divergence is defined for Gaussian beams as the angel where the beam density is reduced by a factor 1/e compared to the maximum density. For non-Gaussian beams the divergence is sqrt(2)mean((x-mean(x))**2), where x is the angle and the mean should be performed over the beam density, P(x): mean(y)=int(yP(x)*dx).

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].divergence_component[:].particles_fraction

Fraction of injected particles in the component

  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].divergence_component[:].vertical

The vertical beamlet divergence of the component. Here the divergence is defined for Gaussian beams as the angel where the beam density is reduced by a factor 1/e compared to the maximum density. For non-Gaussian beams the divergence is sqrt(2)mean((x-mean(x))**2), where x is the angle and the mean should be performed over the beam density, P(x): mean(y)=int(yP(x)*dx).

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].focus.focal_length_horizontal

Horizontal focal length along the beam line, i.e. the point along the centre of the beamlet-group where the beamlet-group has its minimum horizontal width

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].focus.focal_length_vertical

Vertical focal length along the beam line, i.e. the point along the centre of the beamlet-group where the beamlet-group has its minimum vertical width

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].focus.width_min_horizontal

The horizontal width (Full Width at Half Maximum) of the beamlets group at the horizontal focal point

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].focus.width_min_vertical

The vertical width (Full Width at Half Maximum) of the beamlets group at the vertical focal point

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].tangency_radius

Tangency radius (major radius where the central line of a NBI unit is tangent to a circle around the torus)

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].tilting[:].delta_angle

Variation of the angle of inclination between a beamlet at the centre of the injection unit surface and the horiontal plane

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].tilting[:].delta_position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].tilting[:].delta_position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].tilting[:].delta_position.z

Height

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].tilting[:].delta_tangency_radius

Variation of the tangency radius (major radius where the central line of a NBI unit is tangent to a circle around the torus)

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].tilting[:].time

Time

  • Units: s
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].width_horizontal

Horizontal width (dimensions of the smallest rectangle that surrounds the outer dimensions of the beamlets) of the beamlet group at the injection unit surface (or grounded grid)

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].beamlets_group[:].width_vertical

Vertical width (dimensions of the smallest rectangle that surrounds the outer dimensions of the beamlets) of the beamlet group at the injection unit surface (or grounded grid)

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].efficiency.conversion

Conversion efficiency of electric power to neutral beam power

  • Data Type: FLT_0D
nbi.unit[:].efficiency.transmission

Transmission efficiency of neutral beam from source to port

  • Data Type: FLT_0D
nbi.unit[:].energy.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].energy.time"]
nbi.unit[:].energy.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].identifier

ID of the NBI unit

  • Data Type: STR_0D
nbi.unit[:].name

Name of the NBI unit

  • Data Type: STR_0D
nbi.unit[:].power_launched.data

Data

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].power_launched.time"]
nbi.unit[:].power_launched.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].source.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
nbi.unit[:].source.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
nbi.unit[:].source.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
nbi.unit[:].source.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["nbi.unit[:].source.outline.x1"]
nbi.unit[:].source.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
nbi.unit[:].source.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].source.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
nbi.unit[:].species.a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
nbi.unit[:].species.label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
nbi.unit[:].species.z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
neutron_diagnostic.code.commit

Unique commit reference of software

  • Data Type: STR_0D
neutron_diagnostic.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
neutron_diagnostic.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
neutron_diagnostic.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
neutron_diagnostic.code.library[:].name

Name of software

  • Data Type: STR_0D
neutron_diagnostic.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
neutron_diagnostic.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
neutron_diagnostic.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
neutron_diagnostic.code.name

Name of software generating IDS

  • Data Type: STR_0D
neutron_diagnostic.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["neutron_diagnostic.time"]
neutron_diagnostic.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
neutron_diagnostic.code.repository

URL of software repository

  • Data Type: STR_0D
neutron_diagnostic.code.version

Unique version (tag) of software

  • Data Type: STR_0D
neutron_diagnostic.detector[:].adc.bias

ADC signal bias

  • Units: V
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].adc.discriminator_level_lower

Lower level discriminator of ADC

  • Data Type: INT_0D
neutron_diagnostic.detector[:].adc.discriminator_level_upper

Upper level discriminator of ADC

  • Data Type: INT_0D
neutron_diagnostic.detector[:].adc.impedance

ADC impedance

  • Units: ohm
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].adc.input_range

ADC input range

  • Units: V
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].adc.power_switch

Power switch (1=on, 0=off)

  • Data Type: INT_0D
neutron_diagnostic.detector[:].adc.sampling_rate

Number of samples recorded per second

  • Data Type: INT_0D
neutron_diagnostic.detector[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].aperture[:].outline.x1"]
neutron_diagnostic.detector[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].b_field_sensor.amplitude.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].b_field_sensor.amplitude.time"]
neutron_diagnostic.detector[:].b_field_sensor.amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].b_field_sensor.fall_time

Peak fall time

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].b_field_sensor.frequency.data

Data

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].b_field_sensor.frequency.time"]
neutron_diagnostic.detector[:].b_field_sensor.frequency.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].b_field_sensor.power_switch

Power switch (1=on, 0=off)

  • Data Type: INT_0D
neutron_diagnostic.detector[:].b_field_sensor.rise_time

Peak rise time

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].b_field_sensor.shape.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.detector[:].b_field_sensor.shape.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].b_field_sensor.shape.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.detector[:].energy_band[:].detection_efficiency

Probability of detection of a photon impacting the detector as a function of its energy

  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].energy_band[:].energies"]
neutron_diagnostic.detector[:].energy_band[:].energies

Array of discrete energy values inside the band

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].energy_band[:].lower_bound

Lower bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].energy_band[:].upper_bound

Upper bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].exposure_time

Exposure time

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].field_of_view.direction_to_detector.x

Components along X axis for each voxel

  • Units: m
  • Data Type: FLT_3D
  • Coordinates: ["neutron_diagnostic.detector[:].field_of_view.emission_grid.r", "neutron_diagnostic.detector[:].field_of_view.emission_grid.z", "neutron_diagnostic.detector[:].field_of_view.emission_grid.phi"]
neutron_diagnostic.detector[:].field_of_view.direction_to_detector.y

Component along Y axis for each voxel

  • Units: m
  • Data Type: FLT_3D
  • Coordinates: ["neutron_diagnostic.detector[:].field_of_view.emission_grid.r", "neutron_diagnostic.detector[:].field_of_view.emission_grid.z", "neutron_diagnostic.detector[:].field_of_view.emission_grid.phi"]
neutron_diagnostic.detector[:].field_of_view.direction_to_detector.z

Component along Z axis for each voxel

  • Units: m
  • Data Type: FLT_3D
  • Coordinates: ["neutron_diagnostic.detector[:].field_of_view.emission_grid.r", "neutron_diagnostic.detector[:].field_of_view.emission_grid.z", "neutron_diagnostic.detector[:].field_of_view.emission_grid.phi"]
neutron_diagnostic.detector[:].field_of_view.emission_grid.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].field_of_view.emission_grid.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].field_of_view.emission_grid.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].field_of_view.solid_angle

Average solid angle that the detector covers within the voxel

  • Units: sr
  • Data Type: FLT_3D
  • Coordinates: ["neutron_diagnostic.detector[:].field_of_view.emission_grid.r", "neutron_diagnostic.detector[:].field_of_view.emission_grid.z", "neutron_diagnostic.detector[:].field_of_view.emission_grid.phi"]
neutron_diagnostic.detector[:].geometry.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].geometry.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].geometry.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].geometry.outline.x1"]
neutron_diagnostic.detector[:].geometry.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].geometry.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].green_functions.event_in_detector_neutron_flux.type.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.detector[:].green_functions.event_in_detector_neutron_flux.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].green_functions.event_in_detector_neutron_flux.type.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.detector[:].green_functions.event_in_detector_neutron_flux.values

Array of values for the event

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].green_functions.event_in_detector_response_function.type.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.detector[:].green_functions.event_in_detector_response_function.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].green_functions.event_in_detector_response_function.type.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.detector[:].green_functions.event_in_detector_response_function.values

Array of values for the event

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].green_functions.neutron_flux

Grouped neutron flux in the detector from one neutron energy bin emitted by the current plasma voxel towards the detector

  • Units: m^-2.neutron^-1
  • Data Type: FLT_5D
  • Coordinates: ["neutron_diagnostic.detector[:].field_of_view.emission_grid.r", "neutron_diagnostic.detector[:].field_of_view.emission_grid.z", "neutron_diagnostic.detector[:].field_of_view.emission_grid.phi", "neutron_diagnostic.detector[:].green_functions.source_neutron_energies", "neutron_diagnostic.detector[:].green_functions.event_in_detector_neutron_flux.values"]
neutron_diagnostic.detector[:].green_functions.neutron_flux_integrated_flags

Array of flags telling, for each coordinate of the neutronflux, whether the neutronflux has been integrated over this coordinate (1) or not (0). If it has been integrated over a coordinate, the size related to this coordinate must be equal to 1

  • Data Type: INT_1D
  • Coordinates: ["1...5"]
neutron_diagnostic.detector[:].green_functions.response_function

Number of events occurring in the detector from one neutron energy bin emitted by the current plasma voxel towards the detector

  • Units: events.neutron^-1
  • Data Type: FLT_5D
  • Coordinates: ["neutron_diagnostic.detector[:].field_of_view.emission_grid.r", "neutron_diagnostic.detector[:].field_of_view.emission_grid.z", "neutron_diagnostic.detector[:].field_of_view.emission_grid.phi", "neutron_diagnostic.detector[:].green_functions.source_neutron_energies", "neutron_diagnostic.detector[:].green_functions.event_in_detector_response_function.values"]
neutron_diagnostic.detector[:].green_functions.response_function_integrated_flags

Array of flags telling, for each coordinate of the responsefunction, whether the responsefunction has been integrated over this coordinate (1) or not (0). If it has been integrated over a coordinate, the size related to this coordinate must be equal to 1

  • Data Type: INT_1D
  • Coordinates: ["1...5"]
neutron_diagnostic.detector[:].green_functions.source_neutron_energies

Array of source neutron energy bins

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].material.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.detector[:].material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].material.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.detector[:].mode[:].count_limit_max

Maximum count limit under which the detector response is linear

  • Units: counts.s^-1
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].mode[:].count_limit_min

Minimum count limit above which the detector response is linear

  • Units: counts.s^-1
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].mode[:].counting.data

Data

  • Units: counts.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].mode[:].counting.time"]
neutron_diagnostic.detector[:].mode[:].counting.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].mode[:].identifier.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.detector[:].mode[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].mode[:].identifier.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.detector[:].mode[:].spectrum.data

Data

  • Units: counts.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "neutron_diagnostic.detector[:].mode[:].spectrum.time"]
neutron_diagnostic.detector[:].mode[:].spectrum.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].name

Name of the detector

  • Data Type: STR_0D
neutron_diagnostic.detector[:].nuclei_n

Number of target nuclei in the dectector

  • Data Type: INT_0D
neutron_diagnostic.detector[:].supply_high_voltage.power_switch

Power switch (1=on, 0=off)

  • Data Type: INT_0D
neutron_diagnostic.detector[:].supply_high_voltage.voltage_out.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].supply_high_voltage.voltage_out.time"]
neutron_diagnostic.detector[:].supply_high_voltage.voltage_out.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].supply_high_voltage.voltage_set.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].supply_high_voltage.voltage_set.time"]
neutron_diagnostic.detector[:].supply_high_voltage.voltage_set.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].supply_low_voltage.power_switch

Power switch (1=on, 0=off)

  • Data Type: INT_0D
neutron_diagnostic.detector[:].supply_low_voltage.voltage_out.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].supply_low_voltage.voltage_out.time"]
neutron_diagnostic.detector[:].supply_low_voltage.voltage_out.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].supply_low_voltage.voltage_set.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].supply_low_voltage.voltage_set.time"]
neutron_diagnostic.detector[:].supply_low_voltage.voltage_set.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].temperature

Temperature of the detector

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.time"]
neutron_diagnostic.detector[:].temperature_sensor.amplitude.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].temperature_sensor.amplitude.time"]
neutron_diagnostic.detector[:].temperature_sensor.amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].temperature_sensor.fall_time

Peak fall time

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].temperature_sensor.frequency.data

Data

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].temperature_sensor.frequency.time"]
neutron_diagnostic.detector[:].temperature_sensor.frequency.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].temperature_sensor.power_switch

Power switch (1=on, 0=off)

  • Data Type: INT_0D
neutron_diagnostic.detector[:].temperature_sensor.rise_time

Peak rise time

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].temperature_sensor.shape.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.detector[:].temperature_sensor.shape.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].temperature_sensor.shape.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.detector[:].test_generator.amplitude.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].test_generator.amplitude.time"]
neutron_diagnostic.detector[:].test_generator.amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].test_generator.fall_time

Peak fall time

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].test_generator.frequency.data

Data

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.detector[:].test_generator.frequency.time"]
neutron_diagnostic.detector[:].test_generator.frequency.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.detector[:].test_generator.power_switch

Power switch (1=on, 0=off)

  • Data Type: INT_0D
neutron_diagnostic.detector[:].test_generator.rise_time

Peak rise time

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.detector[:].test_generator.shape.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.detector[:].test_generator.shape.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.detector[:].test_generator.shape.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.fusion_power

Fusion power reconstructed from the detectors signals

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.time"]
neutron_diagnostic.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
neutron_diagnostic.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.occurrence

N/A

  • Data Type: INT_0D
neutron_diagnostic.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
neutron_diagnostic.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
neutron_diagnostic.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
neutron_diagnostic.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
neutron_diagnostic.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
neutron_diagnostic.neutron_flux_total

Total Neutron Flux reconstructed from the detectors signals

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["neutron_diagnostic.time"]
neutron_diagnostic.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutronics.first_wall.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutronics.first_wall.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["neutronics.first_wall.r"]
neutronics.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
neutronics.time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
neutronics.time_slice[:].wall_loading.flux_r

Average radial component of the neutron flux

  • Units: W/m^2
  • Data Type: FLT_1D
  • Coordinates: ["neutronics.first_wall.r"]
neutronics.time_slice[:].wall_loading.flux_z

Average vertical component of the neutron flux

  • Units: W/m^2
  • Data Type: FLT_1D
  • Coordinates: ["neutronics.first_wall.r"]
neutronics.time_slice[:].wall_loading.power

Local neutron power (ie. integrated neutron flux)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["neutronics.first_wall.r"]
ntms.code.commit

Unique commit reference of software

  • Data Type: STR_0D
ntms.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ntms.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ntms.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ntms.code.library[:].name

Name of software

  • Data Type: STR_0D
ntms.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ntms.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
ntms.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ntms.code.name

Name of software generating IDS

  • Data Type: STR_0D
ntms.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["ntms.time"]
ntms.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ntms.code.repository

URL of software repository

  • Data Type: STR_0D
ntms.code.version

Unique version (tag) of software

  • Data Type: STR_0D
ntms.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
ntms.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
ntms.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
ntms.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
ntms.ids_properties.occurrence

N/A

  • Data Type: INT_0D
ntms.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
ntms.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
ntms.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
ntms.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
ntms.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
ntms.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
ntms.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
ntms.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
ntms.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
ntms.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
ntms.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
ntms.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ntms.time_slice[:].mode[:].calculation_method

Description of how the mode evolution is calculated

  • Data Type: STR_0D
ntms.time_slice[:].mode[:].delta_diff

Extra diffusion coefficient for the transport equations of Te, ne, Ti

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
ntms.time_slice[:].mode[:].deltaw[:].name

Name of the contribution

  • Data Type: STR_0D
ntms.time_slice[:].mode[:].deltaw[:].value

Value of the contribution

  • Units: m^-1
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].detailed_evolution.calculation_method

Description of how the mode evolution is calculated

  • Data Type: STR_0D
ntms.time_slice[:].mode[:].detailed_evolution.delta_diff

Extra diffusion coefficient for the transport equations of Te, ne, Ti

  • Units: m^2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...3", "ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.deltaw[:].name

Name of the contribution

  • Data Type: STR_0D
ntms.time_slice[:].mode[:].detailed_evolution.deltaw[:].value

Value of the contribution

  • Units: m^-1
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.dfrequency_dt

Time derivative of the frequency of the mode

  • Units: s^-2
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.dphase_dt

Time derivative of the phase of the mode

  • Units: rad/s
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.dwidth_dt

Time derivative of the full width of the mode

  • Units: m/s
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.frequency

Frequency of the mode

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.m_pol

Poloidal mode number

  • Data Type: INT_0D
ntms.time_slice[:].mode[:].detailed_evolution.n_tor

Toroidal mode number

  • Data Type: INT_0D
ntms.time_slice[:].mode[:].detailed_evolution.phase

Phase of the mode

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.rho_tor

Flux coordinate on which the mode is centred

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.rho_tor_norm

Normalised flux coordinate on which the mode is centred

  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.time_detailed

Time array used to describe the detailed evolution of the NTM

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
ntms.time_slice[:].mode[:].detailed_evolution.torque[:].name

Name of the contribution

  • Data Type: STR_0D
ntms.time_slice[:].mode[:].detailed_evolution.torque[:].value

Value of the contribution

  • Units: kg.m^2.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].detailed_evolution.width

Full width of the mode

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time_slice[:].mode[:].detailed_evolution.time_detailed"]
ntms.time_slice[:].mode[:].dfrequency_dt

Time derivative of the frequency of the mode

  • Units: s^-2
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].dphase_dt

Time derivative of the phase of the mode

  • Units: rad/s
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].dwidth_dt

Time derivative of the full width of the mode

  • Units: m/s
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].frequency

Frequency of the mode

  • Units: Hz
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].m_pol

Poloidal mode number

  • Data Type: INT_0D
ntms.time_slice[:].mode[:].n_tor

Toroidal mode number

  • Data Type: INT_0D
ntms.time_slice[:].mode[:].onset.cause

Cause of the mode onset

  • Data Type: STR_0D
ntms.time_slice[:].mode[:].onset.m_pol

Poloidal mode number

  • Data Type: INT_0D
ntms.time_slice[:].mode[:].onset.n_tor

Toroidal mode number

  • Data Type: INT_0D
ntms.time_slice[:].mode[:].onset.phase

Phase of the mode at onset

  • Units: rad
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].onset.time_offset

Offset time (when a mode disappears). If the mode reappears later in the simulation, use another index of the mode array of structure

  • Units: s
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].onset.time_onset

Onset time

  • Units: s
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].onset.width

Seed island full width at onset time

  • Units: m
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].phase

Phase of the mode

  • Units: rad
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].rho_tor

Flux coordinate on which the mode is centred

  • Units: m
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].rho_tor_norm

Normalised flux coordinate on which the mode is centred

  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].torque[:].name

Name of the contribution

  • Data Type: STR_0D
ntms.time_slice[:].mode[:].torque[:].value

Value of the contribution

  • Units: kg.m^2.s^-2
  • Data Type: FLT_0D
ntms.time_slice[:].mode[:].width

Full width of the mode

  • Units: m
  • Data Type: FLT_0D
ntms.time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
ntms.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["ntms.time"]
ntms.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.code.commit

Unique commit reference of software

  • Data Type: STR_0D
operational_instrumentation.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
operational_instrumentation.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
operational_instrumentation.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
operational_instrumentation.code.library[:].name

Name of software

  • Data Type: STR_0D
operational_instrumentation.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
operational_instrumentation.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
operational_instrumentation.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
operational_instrumentation.code.name

Name of software generating IDS

  • Data Type: STR_0D
operational_instrumentation.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["operational_instrumentation.time"]
operational_instrumentation.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
operational_instrumentation.code.repository

URL of software repository

  • Data Type: STR_0D
operational_instrumentation.code.version

Unique version (tag) of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
operational_instrumentation.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
operational_instrumentation.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
operational_instrumentation.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
operational_instrumentation.ids_properties.occurrence

N/A

  • Data Type: INT_0D
operational_instrumentation.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
operational_instrumentation.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
operational_instrumentation.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
operational_instrumentation.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
operational_instrumentation.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
operational_instrumentation.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
operational_instrumentation.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
operational_instrumentation.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
operational_instrumentation.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
operational_instrumentation.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
operational_instrumentation.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].acceleration.data

Data

  • Units: m.s^-2
  • Data Type: FLT_1D
  • Coordinates: ["operational_instrumentation.sensor[:].acceleration.time"]
operational_instrumentation.sensor[:].acceleration.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
operational_instrumentation.sensor[:].attachement_points[:].x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].attachement_points[:].y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].attachement_points[:].z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].attachement_uris

IMAS URI of the system(s) to which this sensor is attached. Two for displacement sensors, one for the other types of sensors

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
operational_instrumentation.sensor[:].direction.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].direction.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].direction.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].direction_second.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].direction_second.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].direction_second.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].gauge_length

Length of the strain gauge

  • Units: m
  • Data Type: FLT_0D
operational_instrumentation.sensor[:].identifier

ID of the sensor

  • Data Type: STR_0D
operational_instrumentation.sensor[:].length.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["operational_instrumentation.sensor[:].length.time"]
operational_instrumentation.sensor[:].length.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
operational_instrumentation.sensor[:].name

Name of the sensor

  • Data Type: STR_0D
operational_instrumentation.sensor[:].strain.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["operational_instrumentation.sensor[:].strain.time"]
operational_instrumentation.sensor[:].strain.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
operational_instrumentation.sensor[:].strain_rosette.data

Data

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "operational_instrumentation.sensor[:].strain_rosette.time"]
operational_instrumentation.sensor[:].strain_rosette.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
operational_instrumentation.sensor[:].temperature.data

Data

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["operational_instrumentation.sensor[:].temperature.time"]
operational_instrumentation.sensor[:].temperature.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
operational_instrumentation.sensor[:].type.description

Verbose description

  • Data Type: STR_0D
operational_instrumentation.sensor[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
operational_instrumentation.sensor[:].type.name

Short string identifier

  • Data Type: STR_0D
operational_instrumentation.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pellets.code.commit

Unique commit reference of software

  • Data Type: STR_0D
pellets.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pellets.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pellets.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pellets.code.library[:].name

Name of software

  • Data Type: STR_0D
pellets.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pellets.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
pellets.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pellets.code.name

Name of software generating IDS

  • Data Type: STR_0D
pellets.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["pellets.time"]
pellets.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pellets.code.repository

URL of software repository

  • Data Type: STR_0D
pellets.code.version

Unique version (tag) of software

  • Data Type: STR_0D
pellets.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
pellets.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
pellets.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
pellets.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
pellets.ids_properties.occurrence

N/A

  • Data Type: INT_0D
pellets.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
pellets.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pellets.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
pellets.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
pellets.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pellets.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
pellets.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
pellets.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
pellets.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
pellets.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
pellets.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
pellets.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
pellets.launcher[:].name

Name of the launcher (unique within the set of all launchers of the experiment)

  • Data Type: STR_0D
pellets.launcher[:].shape.size

Size of the pellet in the various dimensions, depending on the shape type. Spherical pellets: size(1) is the radius of the pellet. Cylindrical pellets: size(1) is the radius and size(2) is the height of the cylinder. Rectangular pellets: size(1) is the height, size(2) is the width and size(3) is the length

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pellets.launcher[:].shape.type.description

Verbose description

  • Data Type: STR_0D
pellets.launcher[:].shape.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pellets.launcher[:].shape.type.name

Short string identifier

  • Data Type: STR_0D
pellets.launcher[:].species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
pellets.launcher[:].species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
pellets.launcher[:].species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pellets.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pellets.time_slice[:].pellet[:].frequency

Frequency of pellets launched

  • Units: Hz
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].layer[:].species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].layer[:].species[:].density

Material density of the species in the pellet

  • Units: atoms.m^-3
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].layer[:].species[:].fraction

Atomic fraction of the species in the pellet

  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].layer[:].species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
pellets.time_slice[:].pellet[:].layer[:].species[:].sublimation_energy

Sublimation energy per atom

  • Units: eV
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].layer[:].species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].layer[:].thickness

Layer thickness

  • Units: m
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].path_geometry.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].path_geometry.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].path_geometry.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].path_geometry.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].path_geometry.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].path_geometry.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].path_profiles.ablated_particles

Number of ablated particles (electrons) along the pellet path

  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].path_profiles.ablation_rate

Ablation rate (electrons) along the pellet path

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].path_profiles.distance

Distance along the pellet path, with the origin taken at pathgeometry/firstpoint. Used as the main coordinate for the path_profiles structure

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pellets.time_slice[:].pellet[:].path_profiles.n_e

Electron density along the pellet path

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].path_profiles.position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.position.r"]
pellets.time_slice[:].pellet[:].path_profiles.position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pellets.time_slice[:].pellet[:].path_profiles.position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.position.r"]
pellets.time_slice[:].pellet[:].path_profiles.psi

Poloidal flux along the pellet path

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].path_profiles.rho_tor_norm

Normalised toroidal coordinate along the pellet path

  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].path_profiles.rho_tor_norm_drift

Difference to due ExB drifts between the ablation and the final deposition locations, in terms of the normalised toroidal flux coordinate

  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].path_profiles.t_e

Electron temperature along the pellet path

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].path_profiles.velocity

Pellet velocity along the pellet path

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["pellets.time_slice[:].pellet[:].path_profiles.distance"]
pellets.time_slice[:].pellet[:].propellant_gas.element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].propellant_gas.element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
pellets.time_slice[:].pellet[:].propellant_gas.element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].propellant_gas.label

String identifying the neutral molecule (e.g. H2, D2, T2, N2, ...)

  • Data Type: STR_0D
pellets.time_slice[:].pellet[:].propellant_gas.molecules_n

Number of molecules of the propellant gas injected in the vacuum vessel when launching the pellet

  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].shape.size

Size of the pellet in the various dimensions, depending on the shape type. Spherical pellets: size(1) is the radius of the pellet. Cylindrical pellets: size(1) is the radius and size(2) is the height of the cylinder. Rectangular pellets: size(1) is the height, size(2) is the width and size(3) is the length

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pellets.time_slice[:].pellet[:].shape.type.description

Verbose description

  • Data Type: STR_0D
pellets.time_slice[:].pellet[:].shape.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pellets.time_slice[:].pellet[:].shape.type.name

Short string identifier

  • Data Type: STR_0D
pellets.time_slice[:].pellet[:].species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].species[:].density

Material density of the species in the pellet

  • Units: atoms.m^-3
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].species[:].fraction

Atomic fraction of the species in the pellet

  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
pellets.time_slice[:].pellet[:].species[:].sublimation_energy

Sublimation energy per atom

  • Units: eV
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pellets.time_slice[:].pellet[:].velocity_initial

Initial velocity of the pellet as it enters the vaccum chamber

  • Units: m.s^-1
  • Data Type: FLT_0D
pellets.time_slice[:].time

Time

  • Units: s
  • Data Type: FLT_0D
pf_active.circuit[:].connections

Description of the supplies and coils connections (nodes) across the circuit. Nodes of the circuit are listed as the first dimension of the matrix. Supplies (listed first) and coils (listed second) SIDES are listed as the second dimension. Thus the second dimension has a size equal to 2*(Nsupplies+Ncoils). Nsupplies (resp. Ncoils) is the total number of supplies (resp. coils) listed in the supply (resp.coil) array of structure, i.e. including also supplies/coils that are not part of the actual circuit. The (i,j) matrix elements are 1 if the j-th supply or coil side is connected to the i-th node, or 0 otherwise. For coils, sides are listed so that a current flowing from side 1 to side 2 (inside the coil) is positive (i.e. counter-clockwise when seen from above).

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
pf_active.circuit[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.circuit[:].current.time"]
pf_active.circuit[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.circuit[:].identifier

ID of the circuit

  • Data Type: STR_0D
pf_active.circuit[:].name

Name of the circuit

  • Data Type: STR_0D
pf_active.circuit[:].type

Type of the circuit

  • Data Type: STR_0D
pf_active.circuit[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.circuit[:].voltage.time"]
pf_active.circuit[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.code.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_active.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_active.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_active.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_active.code.library[:].name

Name of software

  • Data Type: STR_0D
pf_active.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_active.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
pf_active.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_active.code.name

Name of software generating IDS

  • Data Type: STR_0D
pf_active.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["pf_active.time"]
pf_active.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_active.code.repository

URL of software repository

  • Data Type: STR_0D
pf_active.code.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_active.coil[:].b_field_max

List of values of the maximum magnetic field on the conductor surface (coordinate for currentlimitmax)

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].b_field_max_timed.data

Data

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].b_field_max_timed.time"]
pf_active.coil[:].b_field_max_timed.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].current.time"]
pf_active.coil[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].current_limit_max

Maximum tolerable current in the conductor

  • Units: A
  • Data Type: FLT_2D
  • Coordinates: ["pf_active.coil[:].b_field_max", "pf_active.coil[:].temperature"]
pf_active.coil[:].element[:].area

Cross-sectional areas of the element

  • Units: m^2
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.annulus.r

Centre major radius

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.annulus.radius_inner

Inner radius

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.annulus.radius_outer

Outer radius

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.annulus.z

Centre height

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.arcs_of_circle.curvature_radii

Curvature radius of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].element[:].geometry.arcs_of_circle.r"]
pf_active.coil[:].element[:].geometry.arcs_of_circle.r

Major radii of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].element[:].geometry.arcs_of_circle.z

Height of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].element[:].geometry.arcs_of_circle.r"]
pf_active.coil[:].element[:].geometry.geometry_type

Type used to describe the element shape (1:'outline', 2:'rectangle', 3:'oblique', 4:'arcs of circle, 5: 'annulus', 6 : 'thick line')

  • Data Type: INT_0D
pf_active.coil[:].element[:].geometry.oblique.alpha

Inclination of first angle measured counter-clockwise from horizontal outwardly directed radial vector (grad R).

  • Units: rad
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.oblique.beta

Inclination of second angle measured counter-clockwise from vertically upwards directed vector (grad Z). If both alpha and beta are zero (rectangle) then the simpler rectangular elements description should be used.

  • Units: rad
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.oblique.length_alpha

Length of the parallelogram side inclined with angle alpha with respect to the major radius axis

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.oblique.length_beta

Length of the parallelogram side inclined with angle beta with respect to the height axis

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.oblique.r

Major radius of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.oblique.z

Height of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].element[:].geometry.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].element[:].geometry.outline.r"]
pf_active.coil[:].element[:].geometry.rectangle.height

Vertical full height

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.rectangle.r

Geometric centre R

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.rectangle.width

Horizontal full width

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.rectangle.z

Geometric centre Z

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.thick_line.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.thick_line.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.thick_line.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.thick_line.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].geometry.thick_line.thickness

Thickness

  • Units: m
  • Data Type: FLT_0D
pf_active.coil[:].element[:].identifier

Identifier of this element

  • Data Type: STR_0D
pf_active.coil[:].element[:].name

Name of this element

  • Data Type: STR_0D
pf_active.coil[:].element[:].turns_with_sign

Number of effective turns in the element for calculating magnetic fields of the coil/loop; includes the sign of the number of turns (positive means current is counter-clockwise when seen from above)

  • Data Type: FLT_0D
pf_active.coil[:].energy_limit_max

Maximum Energy to be dissipated in the coil

  • Units: J
  • Data Type: FLT_0D
pf_active.coil[:].force_radial.data

Data

  • Units: N
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].force_radial.time"]
pf_active.coil[:].force_radial.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].force_radial_crushing.data

Data

  • Units: N
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].force_radial_crushing.time"]
pf_active.coil[:].force_radial_crushing.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].force_vertical.data

Data

  • Units: N
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].force_vertical.time"]
pf_active.coil[:].force_vertical.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].force_vertical_crushing.data

Data

  • Units: N
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].force_vertical_crushing.time"]
pf_active.coil[:].force_vertical_crushing.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].function[:].description

Verbose description

  • Data Type: STR_0D
pf_active.coil[:].function[:].index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pf_active.coil[:].function[:].name

Short string identifier

  • Data Type: STR_0D
pf_active.coil[:].identifier

Alphanumeric identifier of coils used for convenience

  • Data Type: STR_0D
pf_active.coil[:].name

Name of the coil

  • Data Type: STR_0D
pf_active.coil[:].resistance

Coil resistance

  • Units: Ohm
  • Data Type: FLT_0D
pf_active.coil[:].resistance_additional.data

Data

  • Units: Ohm
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].resistance_additional.time"]
pf_active.coil[:].resistance_additional.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].temperature

List of values of the conductor temperature (coordinate for currentlimitmax)

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.coil[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.coil[:].voltage.time"]
pf_active.coil[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.force_limits.combination_matrix

Force limits are expressed as a linear combination of the forces on each individual coil. The weights of the linear combination are given by this matrix, while the limits are given by the sibling nodes limitmin and limitmax. Each row of this matrix corresponds to a force limit. The columns represent, for each coil, the 4 types of forces on the coil namely [coil1radial, coil1vertical, coil1radialcrush, coil1verticalcrush, coil2radial, coil2vertical, coil2radialcrush, coil2verticalcrush, ...]. There are therefore 4*coils_n columns.

  • Data Type: FLT_2D
  • Coordinates: ["pf_active.force_limits.limit_max", "1...N"]
pf_active.force_limits.force.data

Data

  • Units: N
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.force_limits.force.time"]
pf_active.force_limits.force.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.force_limits.limit_max

Maximum force limit, for each limit (line of the combination matrix). EMPTY_FLT value means unbounded

  • Units: N
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.force_limits.limit_min

Minimum force limit, for each limit (line of the combination matrix). EMPTY_FLT value means unbounded

  • Units: N
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.force_limits.limit_max"]
pf_active.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
pf_active.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
pf_active.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
pf_active.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
pf_active.ids_properties.occurrence

N/A

  • Data Type: INT_0D
pf_active.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
pf_active.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pf_active.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
pf_active.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
pf_active.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_active.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
pf_active.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
pf_active.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
pf_active.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
pf_active.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
pf_active.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
pf_active.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
pf_active.supply[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.supply[:].current.time"]
pf_active.supply[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.supply[:].current_limit_max

Maximum current in the supply

  • Units: A
  • Data Type: FLT_0D
pf_active.supply[:].current_limit_min

Minimum current in the supply

  • Units: A
  • Data Type: FLT_0D
pf_active.supply[:].current_limiter_gain

Gain to prevent overcurrent in a linear model of the supply

  • Units: V
  • Data Type: FLT_0D
pf_active.supply[:].delay

Pure delay in the supply

  • Units: s
  • Data Type: FLT_0D
pf_active.supply[:].energy_limit_max

Maximum energy to be dissipated in the supply during a pulse

  • Units: J
  • Data Type: FLT_0D
pf_active.supply[:].filter_denominator

Coefficients of the denominator, in increasing order : b0 + b1s + ... + bms^m; used for a linear supply description

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.supply[:].filter_numerator

Coefficients of the numerator, in increasing order : a0 + a1s + ... + ans^n; used for a linear supply description

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.supply[:].identifier

Identifier of the supply

  • Data Type: STR_0D
pf_active.supply[:].name

Name of the PF supply

  • Data Type: STR_0D
pf_active.supply[:].nonlinear_model

Description of the nonlinear transfer function of the supply

  • Data Type: STR_0D
pf_active.supply[:].resistance

Power supply internal resistance

  • Units: Ohm
  • Data Type: FLT_0D
pf_active.supply[:].type

Type of the supply; TBD add free description of non-linear power supplies

  • Data Type: INT_0D
pf_active.supply[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["pf_active.supply[:].voltage.time"]
pf_active.supply[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_active.supply[:].voltage_limit_max

Maximum voltage from the supply

  • Units: V
  • Data Type: FLT_0D
pf_active.supply[:].voltage_limit_min

Minimum voltage from the supply

  • Units: V
  • Data Type: FLT_0D
pf_active.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_passive.code.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_passive.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_passive.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_passive.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_passive.code.library[:].name

Name of software

  • Data Type: STR_0D
pf_passive.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_passive.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
pf_passive.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_passive.code.name

Name of software generating IDS

  • Data Type: STR_0D
pf_passive.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["pf_passive.time"]
pf_passive.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_passive.code.repository

URL of software repository

  • Data Type: STR_0D
pf_passive.code.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_passive.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
pf_passive.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
pf_passive.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
pf_passive.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
pf_passive.ids_properties.occurrence

N/A

  • Data Type: INT_0D
pf_passive.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
pf_passive.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pf_passive.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
pf_passive.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_passive.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
pf_passive.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
pf_passive.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
pf_passive.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
pf_passive.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
pf_passive.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
pf_passive.loop[:].current

Passive loop current

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["pf_passive.loop[:].time"]
pf_passive.loop[:].element[:].area

Cross-sectional areas of the element

  • Units: m^2
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.annulus.r

Centre major radius

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.annulus.radius_inner

Inner radius

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.annulus.radius_outer

Outer radius

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.annulus.z

Centre height

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.arcs_of_circle.curvature_radii

Curvature radius of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_passive.loop[:].element[:].geometry.arcs_of_circle.r"]
pf_passive.loop[:].element[:].geometry.arcs_of_circle.r

Major radii of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_passive.loop[:].element[:].geometry.arcs_of_circle.z

Height of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_passive.loop[:].element[:].geometry.arcs_of_circle.r"]
pf_passive.loop[:].element[:].geometry.geometry_type

Type used to describe the element shape (1:'outline', 2:'rectangle', 3:'oblique', 4:'arcs of circle, 5: 'annulus', 6 : 'thick line')

  • Data Type: INT_0D
pf_passive.loop[:].element[:].geometry.oblique.alpha

Inclination of first angle measured counter-clockwise from horizontal outwardly directed radial vector (grad R).

  • Units: rad
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.oblique.beta

Inclination of second angle measured counter-clockwise from vertically upwards directed vector (grad Z). If both alpha and beta are zero (rectangle) then the simpler rectangular elements description should be used.

  • Units: rad
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.oblique.length_alpha

Length of the parallelogram side inclined with angle alpha with respect to the major radius axis

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.oblique.length_beta

Length of the parallelogram side inclined with angle beta with respect to the height axis

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.oblique.r

Major radius of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.oblique.z

Height of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_passive.loop[:].element[:].geometry.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_passive.loop[:].element[:].geometry.outline.r"]
pf_passive.loop[:].element[:].geometry.rectangle.height

Vertical full height

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.rectangle.r

Geometric centre R

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.rectangle.width

Horizontal full width

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.rectangle.z

Geometric centre Z

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.thick_line.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.thick_line.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.thick_line.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.thick_line.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].geometry.thick_line.thickness

Thickness

  • Units: m
  • Data Type: FLT_0D
pf_passive.loop[:].element[:].identifier

Identifier of this element

  • Data Type: STR_0D
pf_passive.loop[:].element[:].name

Name of this element

  • Data Type: STR_0D
pf_passive.loop[:].element[:].turns_with_sign

Number of effective turns in the element for calculating magnetic fields of the coil/loop; includes the sign of the number of turns (positive means current is counter-clockwise when seen from above)

  • Data Type: FLT_0D
pf_passive.loop[:].name

Name of the loop

  • Data Type: STR_0D
pf_passive.loop[:].resistance

Passive loop resistance

  • Units: Ohm
  • Data Type: FLT_0D
pf_passive.loop[:].resistivity

Passive loop resistivity

  • Units: Ohm.m
  • Data Type: FLT_0D
pf_passive.loop[:].time

Timebase for the dynamic nodes of this loop located at this level of the IDS structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_passive.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_plasma.code.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_plasma.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_plasma.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_plasma.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_plasma.code.library[:].name

Name of software

  • Data Type: STR_0D
pf_plasma.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_plasma.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
pf_plasma.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_plasma.code.name

Name of software generating IDS

  • Data Type: STR_0D
pf_plasma.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["pf_plasma.time"]
pf_plasma.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_plasma.code.repository

URL of software repository

  • Data Type: STR_0D
pf_plasma.code.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_plasma.element[:].area

Cross-sectional area of the element

  • Units: m^2
  • Data Type: FLT_0D
pf_plasma.element[:].current

Current in the plasma element

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["pf_plasma.element[:].time"]
pf_plasma.element[:].geometry.annulus.r

Centre major radius

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.annulus.radius_inner

Inner radius

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.annulus.radius_outer

Outer radius

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.annulus.z

Centre height

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.arcs_of_circle.curvature_radii

Curvature radius of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_plasma.element[:].geometry.arcs_of_circle.r"]
pf_plasma.element[:].geometry.arcs_of_circle.r

Major radii of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_plasma.element[:].geometry.arcs_of_circle.z

Height of the start point of each arc of circle

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_plasma.element[:].geometry.arcs_of_circle.r"]
pf_plasma.element[:].geometry.geometry_type

Type used to describe the element shape (1:'outline', 2:'rectangle', 3:'oblique', 4:'arcs of circle, 5: 'annulus', 6 : 'thick line')

  • Data Type: INT_0D
pf_plasma.element[:].geometry.oblique.alpha

Inclination of first angle measured counter-clockwise from horizontal outwardly directed radial vector (grad R).

  • Units: rad
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.oblique.beta

Inclination of second angle measured counter-clockwise from vertically upwards directed vector (grad Z). If both alpha and beta are zero (rectangle) then the simpler rectangular elements description should be used.

  • Units: rad
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.oblique.length_alpha

Length of the parallelogram side inclined with angle alpha with respect to the major radius axis

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.oblique.length_beta

Length of the parallelogram side inclined with angle beta with respect to the height axis

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.oblique.r

Major radius of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.oblique.z

Height of the reference point (from which the alpha and beta angles are defined, marked by a + on the diagram)

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_plasma.element[:].geometry.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["pf_plasma.element[:].geometry.outline.r"]
pf_plasma.element[:].geometry.rectangle.height

Vertical full height

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.rectangle.r

Geometric centre R

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.rectangle.width

Horizontal full width

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.rectangle.z

Geometric centre Z

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.thick_line.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.thick_line.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.thick_line.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.thick_line.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].geometry.thick_line.thickness

Thickness

  • Units: m
  • Data Type: FLT_0D
pf_plasma.element[:].time

Timebase for the dynamic nodes located at this level of the IDS structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pf_plasma.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
pf_plasma.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
pf_plasma.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
pf_plasma.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
pf_plasma.ids_properties.occurrence

N/A

  • Data Type: INT_0D
pf_plasma.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
pf_plasma.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pf_plasma.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
pf_plasma.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pf_plasma.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
pf_plasma.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
pf_plasma.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
pf_plasma.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
pf_plasma.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
pf_plasma.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
pf_plasma.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.b_field_lines[:].e_field_parallel

Parallel electric field along each field line

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.b_field_lines[:].starting_positions.r"]
plasma_initiation.b_field_lines[:].e_field_townsend

Townsend electric field along each field line

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.b_field_lines[:].starting_positions.r"]
plasma_initiation.b_field_lines[:].grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.b_field_lines[:].grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.b_field_lines[:].grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["plasma_initiation.b_field_lines[:].grid.dim1", "plasma_initiation.b_field_lines[:].grid.dim2"]
plasma_initiation.b_field_lines[:].grid_type.description

Verbose description

  • Data Type: STR_0D
plasma_initiation.b_field_lines[:].grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
plasma_initiation.b_field_lines[:].grid_type.name

Short string identifier

  • Data Type: STR_0D
plasma_initiation.b_field_lines[:].lengths

Length of each field line

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.b_field_lines[:].starting_positions.r"]
plasma_initiation.b_field_lines[:].open_fraction

Fraction of open field lines : ratio open fields lines / (open+closed field lines)

  • Data Type: FLT_0D
plasma_initiation.b_field_lines[:].pressure

Prefill gas pressure used in Townsend E field calculation

  • Units: Pa
  • Data Type: FLT_0D
plasma_initiation.b_field_lines[:].starting_positions.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.b_field_lines[:].starting_positions.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.b_field_lines[:].starting_positions.r"]
plasma_initiation.b_field_lines[:].time

Time

  • Units: s
  • Data Type: FLT_0D
plasma_initiation.b_field_lines[:].townsend_or_closed_grid_positions.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.b_field_lines[:].townsend_or_closed_grid_positions.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.b_field_lines[:].townsend_or_closed_grid_positions.r"]
plasma_initiation.b_field_lines[:].townsend_or_closed_positions.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.b_field_lines[:].townsend_or_closed_positions.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.b_field_lines[:].townsend_or_closed_positions.r"]
plasma_initiation.code.commit

Unique commit reference of software

  • Data Type: STR_0D
plasma_initiation.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
plasma_initiation.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
plasma_initiation.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
plasma_initiation.code.library[:].name

Name of software

  • Data Type: STR_0D
plasma_initiation.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
plasma_initiation.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
plasma_initiation.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
plasma_initiation.code.name

Name of software generating IDS

  • Data Type: STR_0D
plasma_initiation.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["plasma_initiation.time"]
plasma_initiation.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
plasma_initiation.code.repository

URL of software repository

  • Data Type: STR_0D
plasma_initiation.code.version

Unique version (tag) of software

  • Data Type: STR_0D
plasma_initiation.global_quantities.b_field_perpendicular.data

Data

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.global_quantities.b_field_perpendicular.time"]
plasma_initiation.global_quantities.b_field_perpendicular.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.global_quantities.b_field_stray.data

Data

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.global_quantities.b_field_stray.time"]
plasma_initiation.global_quantities.b_field_stray.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.global_quantities.connection_length.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.global_quantities.connection_length.time"]
plasma_initiation.global_quantities.connection_length.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.global_quantities.coulomb_logarithm.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["plasma_initiation.global_quantities.coulomb_logarithm.time"]
plasma_initiation.global_quantities.coulomb_logarithm.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
plasma_initiation.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
plasma_initiation.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
plasma_initiation.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
plasma_initiation.ids_properties.occurrence

N/A

  • Data Type: INT_0D
plasma_initiation.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
plasma_initiation.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
plasma_initiation.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
plasma_initiation.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
plasma_initiation.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
plasma_initiation.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
plasma_initiation.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
plasma_initiation.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
plasma_initiation.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
plasma_initiation.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
plasma_initiation.profiles_2d[:].e_field_tor

Toroidal component of the electric field

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["plasma_initiation.profiles_2d[:].grid.dim1", "plasma_initiation.profiles_2d[:].grid.dim2"]
plasma_initiation.profiles_2d[:].grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.profiles_2d[:].grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
plasma_initiation.profiles_2d[:].grid.volume_element

Elementary plasma volume of plasma enclosed in the cell formed by the nodes [dim1(i) dim2(j)], [dim1(i+1) dim2(j)], [dim1(i) dim2(j+1)] and [dim1(i+1) dim2(j+1)]

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["plasma_initiation.profiles_2d[:].grid.dim1", "plasma_initiation.profiles_2d[:].grid.dim2"]
plasma_initiation.profiles_2d[:].grid_type.description

Verbose description

  • Data Type: STR_0D
plasma_initiation.profiles_2d[:].grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
plasma_initiation.profiles_2d[:].grid_type.name

Short string identifier

  • Data Type: STR_0D
plasma_initiation.profiles_2d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
plasma_initiation.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
polarimeter.channel[:].ellipticity.data

Data

  • Data Type: FLT_1D
  • Coordinates: ["polarimeter.channel[:].ellipticity.time"]
polarimeter.channel[:].ellipticity.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
polarimeter.channel[:].ellipticity.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
polarimeter.channel[:].ellipticity.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["polarimeter.channel[:].ellipticity.time"]
polarimeter.channel[:].ellipticity_initial

Initial ellipticity before entering the plasma

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].faraday_angle.data

Data

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["polarimeter.channel[:].faraday_angle.time"]
polarimeter.channel[:].faraday_angle.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
polarimeter.channel[:].faraday_angle.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
polarimeter.channel[:].faraday_angle.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["polarimeter.channel[:].faraday_angle.time"]
polarimeter.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
polarimeter.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.third_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.third_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].line_of_sight.third_point.z

Height

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].name

Name of the channel

  • Data Type: STR_0D
polarimeter.channel[:].polarisation_initial

Initial polarisation vector before entering the plasma

  • Units: m
  • Data Type: FLT_0D
polarimeter.channel[:].wavelength

Wavelength used for polarimetry

  • Units: m
  • Data Type: FLT_0D
polarimeter.code.commit

Unique commit reference of software

  • Data Type: STR_0D
polarimeter.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
polarimeter.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
polarimeter.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
polarimeter.code.library[:].name

Name of software

  • Data Type: STR_0D
polarimeter.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
polarimeter.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
polarimeter.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
polarimeter.code.name

Name of software generating IDS

  • Data Type: STR_0D
polarimeter.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["polarimeter.time"]
polarimeter.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
polarimeter.code.repository

URL of software repository

  • Data Type: STR_0D
polarimeter.code.version

Unique version (tag) of software

  • Data Type: STR_0D
polarimeter.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
polarimeter.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
polarimeter.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
polarimeter.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
polarimeter.ids_properties.occurrence

N/A

  • Data Type: INT_0D
polarimeter.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
polarimeter.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
polarimeter.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
polarimeter.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
polarimeter.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
polarimeter.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
polarimeter.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
polarimeter.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
polarimeter.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
polarimeter.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
polarimeter.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
polarimeter.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.code.commit

Unique commit reference of software

  • Data Type: STR_0D
pulse_schedule.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pulse_schedule.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pulse_schedule.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pulse_schedule.code.library[:].name

Name of software

  • Data Type: STR_0D
pulse_schedule.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pulse_schedule.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
pulse_schedule.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pulse_schedule.code.name

Name of software generating IDS

  • Data Type: STR_0D
pulse_schedule.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.time"]
pulse_schedule.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pulse_schedule.code.repository

URL of software repository

  • Data Type: STR_0D
pulse_schedule.code.version

Unique version (tag) of software

  • Data Type: STR_0D
pulse_schedule.density_control.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
pulse_schedule.density_control.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
pulse_schedule.density_control.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pulse_schedule.density_control.ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
pulse_schedule.density_control.ion[:].n_i_volume_average.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.ion[:].n_i_volume_average.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.ion[:].n_i_volume_average.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.ion[:].n_i_volume_average.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.ion[:].z_ion

Ion charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pulse_schedule.density_control.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_greenwald_fraction.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_line.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.n_e_line.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_line.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.n_e_line.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.n_e_line_lcfs.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.n_e_line_lcfs.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_line_lcfs.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.n_e_line_lcfs.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.n_e_line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.third_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.third_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_line_of_sight.third_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.n_e_pedestal.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_pedestal_greenwald_fraction.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_profile_average.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.n_e_profile_average.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_profile_average.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.n_e_profile_average.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.n_e_volume_average.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.n_e_volume_average.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_e_volume_average.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.n_e_volume_average.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.n_h_over_n_d.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.n_h_over_n_d.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_h_over_n_d.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.n_h_over_n_d.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.n_t_over_n_d.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.n_t_over_n_d.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.n_t_over_n_d.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.n_t_over_n_d.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.density_control.valve[:].flow_rate.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.valve[:].flow_rate.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.valve[:].flow_rate.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.valve[:].flow_rate.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.valve[:].identifier

Identifier of the valve

  • Data Type: STR_0D
pulse_schedule.density_control.valve[:].name

Name of the valve

  • Data Type: STR_0D
pulse_schedule.density_control.valve[:].species[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
pulse_schedule.density_control.valve[:].species[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
pulse_schedule.density_control.valve[:].species[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pulse_schedule.density_control.valve[:].species[:].fraction

Relative fraction of this species (in molecules) in the gas mixture

  • Data Type: FLT_0D
pulse_schedule.density_control.valve[:].species[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
pulse_schedule.density_control.zeff.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.density_control.zeff.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.density_control.zeff.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.density_control.zeff.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.density_control.zeff_line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.third_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.third_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_line_of_sight.third_point.z

Height

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.density_control.zeff_method.description

Verbose description

  • Data Type: STR_0D
pulse_schedule.density_control.zeff_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pulse_schedule.density_control.zeff_method.name

Short string identifier

  • Data Type: STR_0D
pulse_schedule.density_control.zeff_pedestal.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.density_control.time"]
pulse_schedule.ec.beam[:].deposition_rho_tor_norm.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].deposition_rho_tor_norm.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.beam[:].deposition_rho_tor_norm.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ec.beam[:].deposition_rho_tor_norm.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].deposition_rho_tor_norm_width.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.beam[:].frequency.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].frequency.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.beam[:].frequency.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ec.beam[:].frequency.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].identifier

Identifier of the beam

  • Data Type: STR_0D
pulse_schedule.ec.beam[:].name

Name of the beam

  • Data Type: STR_0D
pulse_schedule.ec.beam[:].power_launched.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].power_launched.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.beam[:].power_launched.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ec.beam[:].power_launched.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].steering_angle_pol.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].steering_angle_pol.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.beam[:].steering_angle_pol.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ec.beam[:].steering_angle_pol.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].steering_angle_tor.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ec.beam[:].steering_angle_tor.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.beam[:].steering_angle_tor.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ec.beam[:].steering_angle_tor.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ec.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.power_launched.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ec.power_launched.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ec.time"]
pulse_schedule.ec.power_launched.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ec.power_launched.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ec.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.event[:].acquisition_state.description

Verbose description

  • Data Type: STR_0D
pulse_schedule.event[:].acquisition_state.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pulse_schedule.event[:].acquisition_state.name

Short string identifier

  • Data Type: STR_0D
pulse_schedule.event[:].acquisition_strategy.description

Verbose description

  • Data Type: STR_0D
pulse_schedule.event[:].acquisition_strategy.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pulse_schedule.event[:].acquisition_strategy.name

Short string identifier

  • Data Type: STR_0D
pulse_schedule.event[:].duration

Duration of this event

  • Units: s
  • Data Type: FLT_0D
pulse_schedule.event[:].identifier

Unique identifier of this event provided by the scheduling / event handler

  • Data Type: STR_0D
pulse_schedule.event[:].listeners

Systems listening to this event

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
pulse_schedule.event[:].provider

System having generated this event

  • Data Type: STR_0D
pulse_schedule.event[:].time_stamp

Time stamp of this event

  • Units: s
  • Data Type: FLT_0D
pulse_schedule.event[:].type.description

Verbose description

  • Data Type: STR_0D
pulse_schedule.event[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pulse_schedule.event[:].type.name

Short string identifier

  • Data Type: STR_0D
pulse_schedule.flux_control.beta_normal.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.flux_control.beta_normal.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.flux_control.time"]
pulse_schedule.flux_control.beta_normal.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.flux_control.beta_normal.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.flux_control.i_plasma.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.flux_control.i_plasma.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.flux_control.time"]
pulse_schedule.flux_control.i_plasma.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.flux_control.i_plasma.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.flux_control.li_3.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.flux_control.li_3.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.flux_control.time"]
pulse_schedule.flux_control.li_3.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.flux_control.li_3.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.flux_control.loop_voltage.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.flux_control.loop_voltage.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.flux_control.time"]
pulse_schedule.flux_control.loop_voltage.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.flux_control.loop_voltage.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.flux_control.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.flux_control.time"]
pulse_schedule.flux_control.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.ic.antenna[:].deposition_rho_tor_norm.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ic.time"]
pulse_schedule.ic.antenna[:].deposition_rho_tor_norm_width.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ic.time"]
pulse_schedule.ic.antenna[:].frequency.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ic.antenna[:].frequency.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ic.time"]
pulse_schedule.ic.antenna[:].frequency.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ic.antenna[:].frequency.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ic.antenna[:].identifier

Identifier of the antenna

  • Data Type: STR_0D
pulse_schedule.ic.antenna[:].name

Name of the antenna

  • Data Type: STR_0D
pulse_schedule.ic.antenna[:].phase.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ic.antenna[:].phase.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ic.time"]
pulse_schedule.ic.antenna[:].phase.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ic.antenna[:].phase.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ic.antenna[:].power.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ic.antenna[:].power.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ic.time"]
pulse_schedule.ic.antenna[:].power.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ic.antenna[:].power.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ic.antenna[:].power_type.description

Verbose description

  • Data Type: STR_0D
pulse_schedule.ic.antenna[:].power_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pulse_schedule.ic.antenna[:].power_type.name

Short string identifier

  • Data Type: STR_0D
pulse_schedule.ic.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.ic.time"]
pulse_schedule.ic.power.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.ic.power.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.ic.time"]
pulse_schedule.ic.power.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.ic.power.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.ic.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
pulse_schedule.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
pulse_schedule.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
pulse_schedule.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
pulse_schedule.ids_properties.occurrence

N/A

  • Data Type: INT_0D
pulse_schedule.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
pulse_schedule.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pulse_schedule.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
pulse_schedule.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
pulse_schedule.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
pulse_schedule.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
pulse_schedule.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
pulse_schedule.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
pulse_schedule.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
pulse_schedule.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].deposition_rho_tor_norm.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.antenna[:].deposition_rho_tor_norm_width.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.antenna[:].frequency.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].frequency.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.antenna[:].frequency.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].frequency.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].identifier

Identifier of the antenna

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].n_parallel.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].n_parallel.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.antenna[:].n_parallel.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].n_parallel.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].name

Name of the antenna

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].phase.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].phase.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.antenna[:].phase.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].phase.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].power.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].power.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.antenna[:].power.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].power.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].power_type.description

Verbose description

  • Data Type: STR_0D
pulse_schedule.lh.antenna[:].power_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
pulse_schedule.lh.antenna[:].power_type.name

Short string identifier

  • Data Type: STR_0D
pulse_schedule.lh.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.power.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.lh.power.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.lh.time"]
pulse_schedule.lh.power.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.lh.power.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.lh.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.nbi.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.nbi.time"]
pulse_schedule.nbi.power.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.nbi.power.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.nbi.time"]
pulse_schedule.nbi.power.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.nbi.power.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.nbi.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.nbi.unit[:].deposition_rho_tor_norm.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.nbi.time"]
pulse_schedule.nbi.unit[:].deposition_rho_tor_norm_width.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.nbi.time"]
pulse_schedule.nbi.unit[:].energy.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.nbi.unit[:].energy.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.nbi.time"]
pulse_schedule.nbi.unit[:].energy.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.nbi.unit[:].energy.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.nbi.unit[:].identifier

Identifier of the NBI unit

  • Data Type: STR_0D
pulse_schedule.nbi.unit[:].name

Name of the NBI unit

  • Data Type: STR_0D
pulse_schedule.nbi.unit[:].power.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.nbi.unit[:].power.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.nbi.time"]
pulse_schedule.nbi.unit[:].power.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.nbi.unit[:].power.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.nbi.unit[:].species[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
pulse_schedule.nbi.unit[:].species[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
pulse_schedule.nbi.unit[:].species[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
pulse_schedule.nbi.unit[:].species[:].fraction

Relative fraction of this species (in molecules) in the gas mixture

  • Data Type: FLT_0D
pulse_schedule.nbi.unit[:].species[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
pulse_schedule.pellet.launcher[:].deposition_rho_tor_norm.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pellet.time"]
pulse_schedule.pellet.launcher[:].deposition_rho_tor_norm_width.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pellet.time"]
pulse_schedule.pellet.launcher[:].frequency.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pellet.time"]
pulse_schedule.pellet.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.pf_active.coil[:].current.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.pf_active.coil[:].current.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pf_active.time"]
pulse_schedule.pf_active.coil[:].current.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.pf_active.coil[:].current.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.pf_active.coil[:].identifier

Identifier of the coil

  • Data Type: STR_0D
pulse_schedule.pf_active.coil[:].name

Name of the coil

  • Data Type: STR_0D
pulse_schedule.pf_active.coil[:].resistance_additional.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.pf_active.coil[:].resistance_additional.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pf_active.time"]
pulse_schedule.pf_active.coil[:].resistance_additional.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.pf_active.coil[:].resistance_additional.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.pf_active.coil[:].voltage.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pf_active.time"]
pulse_schedule.pf_active.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.pf_active.time"]
pulse_schedule.pf_active.supply[:].current.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.pf_active.supply[:].current.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pf_active.time"]
pulse_schedule.pf_active.supply[:].current.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.pf_active.supply[:].current.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.pf_active.supply[:].identifier

Identifier of the supply

  • Data Type: STR_0D
pulse_schedule.pf_active.supply[:].name

Name of the supply

  • Data Type: STR_0D
pulse_schedule.pf_active.supply[:].voltage.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower and upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.pf_active.supply[:].voltage.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.pf_active.time"]
pulse_schedule.pf_active.supply[:].voltage.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.pf_active.supply[:].voltage.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.pf_active.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.position_control.active_limiter_point.r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.active_limiter_point.r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.active_limiter_point.r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.active_limiter_point.r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.active_limiter_point.z.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.active_limiter_point.z.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.active_limiter_point.z.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.active_limiter_point.z.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.boundary_outline[:].r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.boundary_outline[:].r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.boundary_outline[:].r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.boundary_outline[:].r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.boundary_outline[:].z.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.boundary_outline[:].z.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.boundary_outline[:].z.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.boundary_outline[:].z.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.current_centroid.r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.current_centroid.r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.current_centroid.r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.current_centroid.r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.current_centroid.z.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.current_centroid.z.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.current_centroid.z.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.current_centroid.z.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.elongation.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.elongation.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.elongation.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.elongation.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.elongation_lower.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.elongation_lower.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.elongation_lower.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.elongation_lower.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.elongation_upper.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.elongation_upper.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.elongation_upper.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.elongation_upper.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.gap[:].angle

Angle between the direction in which the gap is measured (in the poloidal cross-section) and the horizontal axis.

  • Units: rad
  • Data Type: FLT_0D
pulse_schedule.position_control.gap[:].identifier

Identifier of the gap

  • Data Type: STR_0D
pulse_schedule.position_control.gap[:].name

Name of the gap

  • Data Type: STR_0D
pulse_schedule.position_control.gap[:].r

Major radius of the reference point

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.position_control.gap[:].value.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.gap[:].value.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.gap[:].value.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.gap[:].value.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.gap[:].z

Height of the reference point

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.position_control.geometric_axis.r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.geometric_axis.r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.geometric_axis.r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.geometric_axis.r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.geometric_axis.z.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.geometric_axis.z.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.geometric_axis.z.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.geometric_axis.z.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.magnetic_axis.r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.magnetic_axis.r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.magnetic_axis.r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.magnetic_axis.r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.magnetic_axis.z.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.magnetic_axis.z.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.magnetic_axis.z.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.magnetic_axis.z.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.minor_radius.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.minor_radius.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.minor_radius.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.minor_radius.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.ovality.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.squareness.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.squareness_lower_inner.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.squareness_lower_inner.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.squareness_lower_inner.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.squareness_lower_inner.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.squareness_lower_outer.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.squareness_lower_outer.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.squareness_lower_outer.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.squareness_lower_outer.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.squareness_upper_inner.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.squareness_upper_inner.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.squareness_upper_inner.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.squareness_upper_inner.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.squareness_upper_outer.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.squareness_upper_outer.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.squareness_upper_outer.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.squareness_upper_outer.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.strike_point[:].r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.strike_point[:].r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.strike_point[:].r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.strike_point[:].r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.strike_point[:].z.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.strike_point[:].z.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.strike_point[:].z.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.strike_point[:].z.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.tilt.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.position_control.triangularity.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.triangularity.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.triangularity.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_inner.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_inner.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.triangularity_inner.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.triangularity_inner.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_lower.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_lower.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.triangularity_lower.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.triangularity_lower.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_minor.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_minor.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.triangularity_minor.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.triangularity_minor.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_outer.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_outer.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.triangularity_outer.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.triangularity_outer.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_upper.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.triangularity_upper.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.triangularity_upper.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.triangularity_upper.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.twist.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.x_point[:].r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.x_point[:].r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.x_point[:].r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.x_point[:].r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.x_point[:].z.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.x_point[:].z.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.x_point[:].z.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.x_point[:].z.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.z_r_max.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.z_r_max.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.z_r_max.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.z_r_max.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.position_control.z_r_min.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.position_control.z_r_min.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.position_control.time"]
pulse_schedule.position_control.z_r_min.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.position_control.z_r_min.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.profiles_control.dpressure_dpsi.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: Pa.Wb^-1
  • Data Type: FLT_2D
  • Coordinates: ["pulse_schedule.profiles_control.psi_norm", "pulse_schedule.profiles_control.time"]
pulse_schedule.profiles_control.f_df_dpsi.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["pulse_schedule.profiles_control.psi_norm", "pulse_schedule.profiles_control.time"]
pulse_schedule.profiles_control.psi_norm

Radial dimension

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.profiles_control.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.tf.b_field_tor_vacuum.reference

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.tf.time"]
pulse_schedule.tf.b_field_tor_vacuum_r.envelope_type

Envelope type: 0:relative: means that the envelope upper and lower bound values are defined respectively as reference.data * reference.dataerrorupper and reference.data * reference.dataerrorlower. 1: absolute: the envelope upper and lower bound values are given respectively by reference/dataerrorupper and reference/dataerrorlower. Lower are upper are taken in the strict mathematical sense, without considering absolute values of the data

  • Data Type: INT_0D
pulse_schedule.tf.b_field_tor_vacuum_r.reference

Reference waveform. Caution : error bars of the reference/data node are not used in the usual sense, instead they are used to describe the control envelope, with a meaning depending on the chosen envelope_type option.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["pulse_schedule.tf.time"]
pulse_schedule.tf.b_field_tor_vacuum_r.reference_name

Reference name (e.g. in the native pulse schedule system of the device)

  • Data Type: STR_0D
pulse_schedule.tf.b_field_tor_vacuum_r.reference_type

Reference type: 0:relative (don't use for the moment, to be defined later when segments are introduced in the IDS structure); 1: absolute: the reference time trace is provided in the reference/data node

  • Data Type: INT_0D
pulse_schedule.tf.mode

Control mode (operation mode and/or settings used by the controller)

  • Data Type: INT_1D
  • Coordinates: ["pulse_schedule.tf.time"]
pulse_schedule.tf.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
pulse_schedule.tf.time

Timebase for the dynamic nodes located at this level of the IDS structure and below

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
pulse_schedule.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.code.commit

Unique commit reference of software

  • Data Type: STR_0D
radiation.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
radiation.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
radiation.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
radiation.code.library[:].name

Name of software

  • Data Type: STR_0D
radiation.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
radiation.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
radiation.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
radiation.code.name

Name of software generating IDS

  • Data Type: STR_0D
radiation.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["radiation.time"]
radiation.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
radiation.code.repository

URL of software repository

  • Data Type: STR_0D
radiation.code.version

Unique version (tag) of software

  • Data Type: STR_0D
radiation.grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["radiation.grid_ggd[:].grid_subset[:].element"]
radiation.grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["radiation.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
radiation.grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["radiation.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
radiation.grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
radiation.grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
radiation.grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
radiation.grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
radiation.grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
radiation.grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
radiation.grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["radiation.grid_ggd[:].grid_subset[:].element"]
radiation.grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["radiation.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
radiation.grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["radiation.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
radiation.grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
radiation.grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
radiation.grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
radiation.grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
radiation.grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
radiation.grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
radiation.grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
radiation.grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
radiation.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
radiation.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
radiation.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
radiation.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
radiation.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
radiation.grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
radiation.grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
radiation.grid_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
radiation.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
radiation.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
radiation.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
radiation.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
radiation.ids_properties.occurrence

N/A

  • Data Type: INT_0D
radiation.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
radiation.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
radiation.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
radiation.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
radiation.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
radiation.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
radiation.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
radiation.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
radiation.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
radiation.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
radiation.process[:].ggd[:].electrons.emissivity[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["radiation.process[:].ggd[:].electrons.emissivity[:].values", "1...N"]
radiation.process[:].ggd[:].electrons.emissivity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
radiation.process[:].ggd[:].electrons.emissivity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
radiation.process[:].ggd[:].electrons.emissivity[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.process[:].ggd[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
radiation.process[:].ggd[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].ion[:].emissivity[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["radiation.process[:].ggd[:].ion[:].emissivity[:].values", "1...N"]
radiation.process[:].ggd[:].ion[:].emissivity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
radiation.process[:].ggd[:].ion[:].emissivity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
radiation.process[:].ggd[:].ion[:].emissivity[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.process[:].ggd[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
radiation.process[:].ggd[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
radiation.process[:].ggd[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
radiation.process[:].ggd[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
radiation.process[:].ggd[:].ion[:].state[:].emissivity[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["radiation.process[:].ggd[:].ion[:].state[:].emissivity[:].values", "1...N"]
radiation.process[:].ggd[:].ion[:].state[:].emissivity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
radiation.process[:].ggd[:].ion[:].state[:].emissivity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
radiation.process[:].ggd[:].ion[:].state[:].emissivity[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.process[:].ggd[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
radiation.process[:].ggd[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
radiation.process[:].ggd[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].neutral[:].emissivity[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["radiation.process[:].ggd[:].neutral[:].emissivity[:].values", "1...N"]
radiation.process[:].ggd[:].neutral[:].emissivity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].emissivity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].emissivity[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.process[:].ggd[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].label

String identifying the neutral species (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
radiation.process[:].ggd[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
radiation.process[:].ggd[:].neutral[:].state[:].emissivity[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["radiation.process[:].ggd[:].neutral[:].state[:].emissivity[:].values", "1...N"]
radiation.process[:].ggd[:].neutral[:].state[:].emissivity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].state[:].emissivity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].state[:].emissivity[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.process[:].ggd[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
radiation.process[:].ggd[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
radiation.process[:].ggd[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.process[:].ggd[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
radiation.process[:].ggd[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].ggd[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
radiation.process[:].ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_lcfs.power

Total power emitted by all species

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_lcfs.power_electrons

Power emitted by electrons

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_lcfs.power_ion_total

Total power emitted by all ion species

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_lcfs.power_neutral_total

Total power emitted by all neutral species

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_vessel.power

Total power emitted by all species

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_vessel.power_electrons

Power emitted by electrons

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_vessel.power_ion_total

Total power emitted by all ion species

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].inside_vessel.power_neutral_total

Total power emitted by all neutral species

  • Units: W
  • Data Type: FLT_0D
radiation.process[:].global_quantities[:].time

Time

  • Units: s
  • Data Type: FLT_0D
radiation.process[:].identifier.description

Verbose description

  • Data Type: STR_0D
radiation.process[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.process[:].identifier.name

Short string identifier

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].electrons.emissivity

Emissivity from this species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].electrons.power_inside

Radiated power from inside the flux surface (volume integral of the emissivity inside the flux surface)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].emissivity_ion_total

Emissivity (summed over ion species)

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].emissivity_neutral_total

Emissivity (summed over neutral species)

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.process[:].profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
radiation.process[:].profiles_1d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].ion[:].emissivity

Emissivity from this species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
radiation.process[:].profiles_1d[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
radiation.process[:].profiles_1d[:].ion[:].power_inside

Radiated power from inside the flux surface (volume integral of the emissivity inside the flux surface)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].ion[:].state[:].emissivity

Emissivity from this species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].ion[:].state[:].power_inside

Radiated power from inside the flux surface (volume integral of the emissivity inside the flux surface)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
radiation.process[:].profiles_1d[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].neutral[:].emissivity

Emissivity from this species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
radiation.process[:].profiles_1d[:].neutral[:].label

String identifying the neutral species (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
radiation.process[:].profiles_1d[:].neutral[:].power_inside

Radiated power from inside the flux surface (volume integral of the emissivity inside the flux surface)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].neutral[:].state[:].emissivity

Emissivity from this species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
radiation.process[:].profiles_1d[:].neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].neutral[:].state[:].power_inside

Radiated power from inside the flux surface (volume integral of the emissivity inside the flux surface)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
radiation.process[:].profiles_1d[:].neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
radiation.process[:].profiles_1d[:].power_inside_ion_total

Total power from ion species (summed over ion species) inside the flux surface (volume integral of the emissivity inside the flux surface)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].power_inside_neutral_total

Total power from ion species (summed over neutral species) inside the flux surface (volume integral of the emissivity inside the flux surface)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["radiation.process[:].profiles_1d[:].grid.rho_tor_norm"]
radiation.process[:].profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
radiation.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
radiation.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["radiation.time"]
radiation.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
real_time_data.code.commit

Unique commit reference of software

  • Data Type: STR_0D
real_time_data.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
real_time_data.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
real_time_data.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
real_time_data.code.library[:].name

Name of software

  • Data Type: STR_0D
real_time_data.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
real_time_data.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
real_time_data.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
real_time_data.code.name

Name of software generating IDS

  • Data Type: STR_0D
real_time_data.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["real_time_data.time"]
real_time_data.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
real_time_data.code.repository

URL of software repository

  • Data Type: STR_0D
real_time_data.code.version

Unique version (tag) of software

  • Data Type: STR_0D
real_time_data.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
real_time_data.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
real_time_data.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
real_time_data.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
real_time_data.ids_properties.occurrence

N/A

  • Data Type: INT_0D
real_time_data.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
real_time_data.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
real_time_data.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
real_time_data.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
real_time_data.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
real_time_data.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
real_time_data.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
real_time_data.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
real_time_data.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
real_time_data.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
real_time_data.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
real_time_data.topic[:].name

Topic name

  • Data Type: STR_0D
real_time_data.topic[:].sample

Index of sample (time stamp counter)

  • Data Type: INT_1D
  • Coordinates: ["real_time_data.topic[:].time_stamp"]
real_time_data.topic[:].signal[:].allocated_position

Allocation of signal to a position in the SDN (1..N), or several positions in case of signal reshaping; this will be implementation specific

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
real_time_data.topic[:].signal[:].data_str

Signal data (e.g. diagnostic signal or PCS command), serialized as a string

  • Data Type: STR_1D
  • Coordinates: ["real_time_data.topic[:].time_stamp"]
real_time_data.topic[:].signal[:].data_type

Signal data type

  • Data Type: STR_0D
real_time_data.topic[:].signal[:].name

Signal name

  • Data Type: STR_0D
real_time_data.topic[:].signal[:].quality

Indicator of the quality of the signal. Following ITER PCS documentation (https://user.iter.org/?uid=354SJ3&action=get_document), possible values are: 1 - GOOD (the nominal state); 2 - INVALID (data no usable); 3 - DATA INTEGRITY ERROR (e.g. out of bounds with respect to expectations, calibration error,...)

  • Data Type: INT_1D
  • Coordinates: ["real_time_data.topic[:].time_stamp"]
real_time_data.topic[:].time_stamp

Time of creation for all signals belonging to this topic. A set of time stamps can be recorded if needed

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].amplitude.data

Data

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].amplitude.time"]
reflectometer_fluctuation.channel[:].amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].antenna_detection_static.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_detection_static.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_detection_static.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_detection_static.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
reflectometer_fluctuation.channel[:].antenna_detection_static.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].antenna_detection_static.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].antenna_detection_static.outline.x1"]
reflectometer_fluctuation.channel[:].antenna_detection_static.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_detection_static.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_detection_static.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_detection_static.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].antenna_emission_static.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].antenna_emission_static.outline.x1"]
reflectometer_fluctuation.channel[:].antenna_emission_static.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antenna_emission_static.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_detection.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].antenna_emission.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_detection.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_detection.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_detection.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_detection.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_detection.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_detection.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_emission.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_emission.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_emission.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_emission.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_emission.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].line_of_sight_emission.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].antennas_orientation[:].time

Time

  • Units: s
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].doppler.e_field_radial

Radial electric field

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.position.psi

Poloidal flux

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.position.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.position.rho_tor_norm

Normalised toroidal flux coordinate

  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.position.theta

Poloidal angle (oriented clockwise when viewing the poloidal cross section on the right hand side of the tokamak axis of symmetry, with the origin placed on the plasma magnetic axis)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.radial_width

Width in the radial direction over which fluctuating profiles are processed

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].doppler.shift

Doppler frequency shift (for the main peak of the power spectrum)

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].doppler.time_width

Width of the time interval over which fluctuating profiles are processed. By convention, the time interval starts at time-time_width and ends at time.

  • Units: s
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].doppler.velocity_pol

Poloidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].doppler.wavenumber

Wavenumber probed by the diagnostic

  • Units: m^-1
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.channel[:].doppler.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.dn_e_over_n_e

Relative amplitude of the density fluctuations post-processed for swept and fixed frequency (profile/one point)

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.position.psi

Poloidal flux

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.position.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.position.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.position.rho_tor_norm

Normalised toroidal flux coordinate

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.position.theta

Poloidal angle (oriented clockwise when viewing the poloidal cross section on the right hand side of the tokamak axis of symmetry, with the origin placed on the plasma magnetic axis)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.position.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_level.time"]
reflectometer_fluctuation.channel[:].fluctuations_level.radial_width

Width in the radial direction over which fluctuating profiles are processed

  • Units: m
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].fluctuations_level.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].fluctuations_level.time_width

Width of the time interval over which fluctuating profiles are processed. By convention, the time interval starts at time-time_width and ends at time.

  • Units: s
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].fluctuations_spectrum.frequencies_fourier

Array of frequencies used for the Fourier transform

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].fluctuations_spectrum.power_log

Power spectrum in log scale

  • Units: dB
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].fluctuations_spectrum.frequencies_fourier", "reflectometer_fluctuation.channel[:].fluctuations_spectrum.time"]
reflectometer_fluctuation.channel[:].fluctuations_spectrum.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].fluctuations_spectrum.time_width

Width of the time interval over which the spectrum is processed. By convention, the time interval starts at time-time_width and ends at time.

  • Units: s
  • Data Type: FLT_0D
reflectometer_fluctuation.channel[:].frequencies.data

Data

  • Units: Hz
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].frequencies.time"]
reflectometer_fluctuation.channel[:].frequencies.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
reflectometer_fluctuation.channel[:].mode

Detection mode "X" or "O"

  • Data Type: STR_0D
reflectometer_fluctuation.channel[:].name

Name of the channel

  • Data Type: STR_0D
reflectometer_fluctuation.channel[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].phase.time"]
reflectometer_fluctuation.channel[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].raw_signal.i_component

I component of the IQ detector used to retrieve the phase of signal's envelope

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].raw_signal.time"]
reflectometer_fluctuation.channel[:].raw_signal.q_component

Q component of the IQ detector used to retrieve the phase of signal's envelope

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_fluctuation.channel[:].raw_signal.time"]
reflectometer_fluctuation.channel[:].raw_signal.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.channel[:].sweep_time

Duration of a sweep

  • Units: s
  • Data Type: FLT_0D
reflectometer_fluctuation.code.commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_fluctuation.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_fluctuation.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_fluctuation.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_fluctuation.code.library[:].name

Name of software

  • Data Type: STR_0D
reflectometer_fluctuation.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_fluctuation.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_fluctuation.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_fluctuation.code.name

Name of software generating IDS

  • Data Type: STR_0D
reflectometer_fluctuation.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["reflectometer_fluctuation.time"]
reflectometer_fluctuation.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_fluctuation.code.repository

URL of software repository

  • Data Type: STR_0D
reflectometer_fluctuation.code.version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
reflectometer_fluctuation.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.occurrence

N/A

  • Data Type: INT_0D
reflectometer_fluctuation.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
reflectometer_fluctuation.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
reflectometer_fluctuation.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
reflectometer_fluctuation.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
reflectometer_fluctuation.psi_normalization.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.psi_normalization.time"]
reflectometer_fluctuation.psi_normalization.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_fluctuation.psi_normalization.time"]
reflectometer_fluctuation.psi_normalization.time

Time for the R,Z,phi coordinates

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_fluctuation.type

Type of reflectometer (frequency_swept, radar, ...)

  • Data Type: STR_0D
reflectometer_profile.channel[:].amplitude.data

Data

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].amplitude.time"]
reflectometer_profile.channel[:].amplitude.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.channel[:].antenna_detection.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
reflectometer_profile.channel[:].antenna_detection.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.channel[:].antenna_detection.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_profile.channel[:].antenna_detection.outline.x1"]
reflectometer_profile.channel[:].antenna_detection.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_detection.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
reflectometer_profile.channel[:].antenna_emission.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.channel[:].antenna_emission.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_profile.channel[:].antenna_emission.outline.x1"]
reflectometer_profile.channel[:].antenna_emission.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].antenna_emission.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].cut_off_frequency

Cut-off frequency as a function of measurement position and time

  • Units: Hz
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].frequencies

Array of frequencies scanned during a sweep

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
reflectometer_profile.channel[:].line_of_sight_detection.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_detection.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_detection.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_detection.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_detection.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_detection.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_emission.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_emission.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_emission.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_emission.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_emission.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].line_of_sight_emission.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
reflectometer_profile.channel[:].mode

Detection mode "X" or "O"

  • Data Type: STR_0D
reflectometer_profile.channel[:].n_e.data

Data

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].n_e.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.channel[:].name

Name of the channel

  • Data Type: STR_0D
reflectometer_profile.channel[:].phase.data

Data

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].phase.time"]
reflectometer_profile.channel[:].phase.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.channel[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].position.psi

Poloidal flux

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].position.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].position.rho_tor_norm

Normalised toroidal flux coordinate

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].position.theta

Poloidal angle (oriented clockwise when viewing the poloidal cross section on the right hand side of the tokamak axis of symmetry, with the origin placed on the plasma magnetic axis)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].position.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.channel[:].n_e.time"]
reflectometer_profile.channel[:].sweep_time

Duration of a sweep

  • Units: s
  • Data Type: FLT_0D
reflectometer_profile.code.commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_profile.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_profile.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_profile.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_profile.code.library[:].name

Name of software

  • Data Type: STR_0D
reflectometer_profile.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_profile.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_profile.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_profile.code.name

Name of software generating IDS

  • Data Type: STR_0D
reflectometer_profile.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["reflectometer_profile.time"]
reflectometer_profile.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_profile.code.repository

URL of software repository

  • Data Type: STR_0D
reflectometer_profile.code.version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
reflectometer_profile.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
reflectometer_profile.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
reflectometer_profile.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
reflectometer_profile.ids_properties.occurrence

N/A

  • Data Type: INT_0D
reflectometer_profile.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
reflectometer_profile.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
reflectometer_profile.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
reflectometer_profile.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
reflectometer_profile.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
reflectometer_profile.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
reflectometer_profile.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
reflectometer_profile.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
reflectometer_profile.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
reflectometer_profile.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
reflectometer_profile.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
reflectometer_profile.n_e.data

Data

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.n_e.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.position.psi

Poloidal flux

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.position.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.position.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.position.rho_tor_norm

Normalised toroidal flux coordinate

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.position.theta

Poloidal angle (oriented clockwise when viewing the poloidal cross section on the right hand side of the tokamak axis of symmetry, with the origin placed on the plasma magnetic axis)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.position.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "reflectometer_profile.n_e.time"]
reflectometer_profile.psi_normalization.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_profile.psi_normalization.time"]
reflectometer_profile.psi_normalization.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["reflectometer_profile.psi_normalization.time"]
reflectometer_profile.psi_normalization.time

Time for the R,Z,phi coordinates

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
reflectometer_profile.type

Type of reflectometer (frequency_swept, radar, ...)

  • Data Type: STR_0D
refractometer.channel[:].bandwidth[:].frequency_main

Main frequency used to probe the plasma (before upshifting and modulating)

  • Units: Hz
  • Data Type: FLT_0D
refractometer.channel[:].bandwidth[:].i_component

I component of the IQ detector used to retrieve the phase of signal's envelope, sampled on a high resolution time_detector grid just before each measurement time slice represented by the ../time vector

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "refractometer.channel[:].bandwidth[:].time"]
refractometer.channel[:].bandwidth[:].n_e_line.data

Data

  • Units: m^-2
  • Data Type: FLT_1D
  • Coordinates: ["refractometer.channel[:].bandwidth[:].n_e_line.time"]
refractometer.channel[:].bandwidth[:].n_e_line.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
refractometer.channel[:].bandwidth[:].phase

Phase of the envelope of the probing signal, relative to the phase at launch

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["refractometer.channel[:].bandwidth[:].time"]
refractometer.channel[:].bandwidth[:].phase_quadrature.data

Data

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "refractometer.channel[:].bandwidth[:].phase_quadrature.time"]
refractometer.channel[:].bandwidth[:].phase_quadrature.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
refractometer.channel[:].bandwidth[:].q_component

Q component of the IQ detector used to retrieve the phase of signal's envelope, sampled on a high resolution time_detector grid just before each measurement time slice represented by the ../time vector

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "refractometer.channel[:].bandwidth[:].time"]
refractometer.channel[:].bandwidth[:].time

Timebase for this bandwidth

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
refractometer.channel[:].bandwidth[:].time_detector

High sampling timebase of the IQ-detector signal measurements

  • Units: s
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "refractometer.channel[:].bandwidth[:].time"]
refractometer.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
refractometer.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
refractometer.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
refractometer.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
refractometer.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
refractometer.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
refractometer.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
refractometer.channel[:].mode

Detection mode "X" or "O"

  • Data Type: STR_0D
refractometer.channel[:].n_e_line.data

Data

  • Units: m^-2
  • Data Type: FLT_1D
  • Coordinates: ["refractometer.channel[:].n_e_line.time"]
refractometer.channel[:].n_e_line.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
refractometer.channel[:].n_e_profile_approximation.formula.description

Verbose description

  • Data Type: STR_0D
refractometer.channel[:].n_e_profile_approximation.formula.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
refractometer.channel[:].n_e_profile_approximation.formula.name

Short string identifier

  • Data Type: STR_0D
refractometer.channel[:].n_e_profile_approximation.parameters

Values of the formula's parameters alpha1, ..., alphaN

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "refractometer.channel[:].n_e_line.time"]
refractometer.channel[:].name

Name of the channel

  • Data Type: STR_0D
refractometer.code.commit

Unique commit reference of software

  • Data Type: STR_0D
refractometer.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
refractometer.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
refractometer.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
refractometer.code.library[:].name

Name of software

  • Data Type: STR_0D
refractometer.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
refractometer.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
refractometer.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
refractometer.code.name

Name of software generating IDS

  • Data Type: STR_0D
refractometer.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["refractometer.time"]
refractometer.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
refractometer.code.repository

URL of software repository

  • Data Type: STR_0D
refractometer.code.version

Unique version (tag) of software

  • Data Type: STR_0D
refractometer.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
refractometer.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
refractometer.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
refractometer.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
refractometer.ids_properties.occurrence

N/A

  • Data Type: INT_0D
refractometer.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
refractometer.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
refractometer.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
refractometer.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
refractometer.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
refractometer.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
refractometer.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
refractometer.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
refractometer.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
refractometer.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
refractometer.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
refractometer.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
refractometer.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
refractometer.type

Type of refractometer (differential, impulse, ...)

  • Data Type: STR_0D
requirements.Psol_R

Psol / R

  • Units: W/m
  • Data Type: FLT_0D
requirements.beta_normal

Normalized total plasma beta (MHD)

  • Data Type: FLT_0D
requirements.coil_j_margin

Magnet coil Jcrit / Jmax

  • Data Type: FLT_0D
requirements.coil_stress_margin

Magnet coil yieldstress / maxstress

  • Data Type: FLT_0D
requirements.cost

Total FPP cost

  • Units: $M
  • Data Type: FLT_0D
requirements.flattop_duration

Duration of the flattop (use Inf for steady-state)

  • Units: s
  • Data Type: FLT_0D
requirements.h98y2

H98y2 ITER elmy H-mode confinement scaling factor

  • Data Type: FLT_0D
requirements.hds03

Petty 2003 H-mode thermal energy confinement scaling factor

  • Data Type: FLT_0D
requirements.lh_power_threshold_fraction

Fraction of the LH power threshold

  • Data Type: FLT_0D
requirements.ne_peaking

On-axis electron density / volume-averaged electron denstiy

  • Data Type: FLT_0D
requirements.power_electric_net

Net electric power generated by the fusion power plant

  • Units: W
  • Data Type: FLT_0D
requirements.q95

Edge safety factor

  • Data Type: FLT_0D
requirements.q_pol_omp

Poloidal heat flux at the outer midplane

  • Units: W/m^2
  • Data Type: FLT_0D
requirements.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
requirements.tritium_breeding_ratio

Tritium breeding ratio of the whole plant

  • Data Type: FLT_0D
runaway_electrons.code.commit

Unique commit reference of software

  • Data Type: STR_0D
runaway_electrons.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
runaway_electrons.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
runaway_electrons.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
runaway_electrons.code.library[:].name

Name of software

  • Data Type: STR_0D
runaway_electrons.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
runaway_electrons.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
runaway_electrons.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
runaway_electrons.code.name

Name of software generating IDS

  • Data Type: STR_0D
runaway_electrons.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
runaway_electrons.code.repository

URL of software repository

  • Data Type: STR_0D
runaway_electrons.code.version

Unique version (tag) of software

  • Data Type: STR_0D
runaway_electrons.distribution.ggd[:].expansion[:].grid_subset[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.distribution.ggd[:].expansion[:].grid_subset[:].values", "1...N"]
runaway_electrons.distribution.ggd[:].expansion[:].grid_subset[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.distribution.ggd[:].expansion[:].grid_subset[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.distribution.ggd[:].expansion[:].grid_subset[:].values

One scalar value is provided per element in the grid subset.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.ggd[:].expansion_fd3v[:].grid_subset[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.distribution.ggd[:].expansion_fd3v[:].grid_subset[:].values", "1...N"]
runaway_electrons.distribution.ggd[:].expansion_fd3v[:].grid_subset[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.distribution.ggd[:].expansion_fd3v[:].grid_subset[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.distribution.ggd[:].expansion_fd3v[:].grid_subset[:].values

One scalar value is provided per element in the grid subset.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.ggd[:].temperature

Reference temperature profile used to define the local thermal energy and the thermal velocity (for normalisation of the grid coordinates)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.distribution.ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
runaway_electrons.distribution.gyro_type

Defines how to interpret the spatial coordinates: 1 = given at the actual particle birth point; 2 =given at the gyro centre of the birth point

  • Data Type: INT_0D
runaway_electrons.distribution.markers[:].coordinate_identifier[:].description

Verbose description

  • Data Type: STR_0D
runaway_electrons.distribution.markers[:].coordinate_identifier[:].index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.distribution.markers[:].coordinate_identifier[:].name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.distribution.markers[:].orbit_integrals.bounce_harmonics

Array of bounce harmonics k

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.markers[:].orbit_integrals.expressions

List of the expressions f(ntor,mpol,k,q,...) used in the orbit integrals

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.markers[:].orbit_integrals.m_pol

Array of poloidal mode numbers, where quantities vary as exp(-i.mpol.theta) and theta is the angle defined by the choice of ../../coordinateidentifier, with its centre at the magnetic axis recalled at the root of this IDS

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.markers[:].orbit_integrals.n_tor

Array of toroidal mode numbers, ntor, where quantities vary as exp(i.ntor.phi) and phi runs anticlockwise when viewed from above

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.markers[:].orbit_integrals.values

Values of the orbit integrals

  • Data Type: CPX_5D
  • Coordinates: ["runaway_electrons.distribution.markers[:].orbit_integrals.expressions", "runaway_electrons.distribution.markers[:].weights", "runaway_electrons.distribution.markers[:].orbit_integrals.n_tor", "runaway_electrons.distribution.markers[:].orbit_integrals.m_pol", "runaway_electrons.distribution.markers[:].orbit_integrals.bounce_harmonics"]
runaway_electrons.distribution.markers[:].orbit_integrals_instant.expressions

List of the expressions f(eq) used in the orbit integrals

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.markers[:].orbit_integrals_instant.time_orbit

Time array along the markers last orbit

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.distribution.markers[:].orbit_integrals_instant.values

Values of the orbit integrals

  • Data Type: CPX_3D
  • Coordinates: ["runaway_electrons.distribution.markers[:].orbit_integrals_instant.expressions", "runaway_electrons.distribution.markers[:].weights", "runaway_electrons.distribution.markers[:].orbit_integrals_instant.time_orbit"]
runaway_electrons.distribution.markers[:].positions

Position of the markers in the set of coordinates. The first dimension corresponds to the number of markers, the second dimension to the set of coordinates

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.distribution.markers[:].weights", "runaway_electrons.distribution.markers[:].coordinate_identifier"]
runaway_electrons.distribution.markers[:].time

Time

  • Units: s
  • Data Type: FLT_0D
runaway_electrons.distribution.markers[:].toroidal_mode

In case the orbit integrals are calculated for a given MHD perturbation, index of the toroidal mode considered. Refers to the timeslice/toroidalmode array of the MHD_LINEAR IDS in which this perturbation is described

  • Data Type: INT_0D
runaway_electrons.distribution.markers[:].weights

Weight of the markers, i.e. number of real particles represented by each marker. The dimension of the vector correspond to the number of markers

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.e_field_critical_definition.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.e_field_critical_definition.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.e_field_critical_definition.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.ggd_fluid[:].current_density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].current_density[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].current_density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].current_density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].current_density[:].values

One scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_compton[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].ddensity_dt_compton[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_compton[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_compton[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_compton[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_dreicer[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].ddensity_dt_dreicer[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_dreicer[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_dreicer[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_dreicer[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_hot_tail[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].ddensity_dt_hot_tail[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_hot_tail[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_hot_tail[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_hot_tail[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_total[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].ddensity_dt_total[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_total[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_total[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_total[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_tritium[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].ddensity_dt_tritium[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].ddensity_dt_tritium[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_tritium[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].ddensity_dt_tritium[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].density[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].density[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].e_field_critical[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].e_field_critical[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].e_field_critical[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].e_field_critical[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].e_field_critical[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].e_field_dreicer[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].e_field_dreicer[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].e_field_dreicer[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].e_field_dreicer[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].e_field_dreicer[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].energy_density_kinetic[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: J.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].energy_density_kinetic[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].energy_density_kinetic[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].energy_density_kinetic[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].energy_density_kinetic[:].values

One scalar value is provided per element in the grid subset.

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].momentum_critical_avalanche[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].momentum_critical_avalanche[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].momentum_critical_avalanche[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].momentum_critical_avalanche[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].momentum_critical_avalanche[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].momentum_critical_hot_tail[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].momentum_critical_hot_tail[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].momentum_critical_hot_tail[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].momentum_critical_hot_tail[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].momentum_critical_hot_tail[:].values

One scalar value is provided per element in the grid subset.

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].pitch_angle[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["runaway_electrons.ggd_fluid[:].pitch_angle[:].values", "1...N"]
runaway_electrons.ggd_fluid[:].pitch_angle[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].pitch_angle[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
runaway_electrons.ggd_fluid[:].pitch_angle[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.ggd_fluid[:].time

Time

  • Units: s
  • Data Type: FLT_0D
runaway_electrons.global_quantities.current_tor

Total runaway current (toroidal component)

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.energy_kinetic

Total runaway kinetic energy

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.current_density

Runaways parallel current density = average(j.B) / B0, where B0 = runawayelectrons/vacuumtoroidal_field/b0

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.ddensity_dt_compton

Compton source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.ddensity_dt_dreicer

Dreicer source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.ddensity_dt_hot_tail

Hot tail source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.ddensity_dt_total

Total source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.ddensity_dt_tritium

Tritium source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.density

Runaway electrons density

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.e_field_critical

Critical electric field

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.e_field_dreicer

Dreicer electric field (parallel to magnetic field)

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.energy_density_kinetic

Runaways kinetic mean energy density

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.momentum_critical_avalanche

Critical momentum for avalanche, Compton and tritium

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.momentum_critical_hot_tail

Critical momentum for hot tail

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.global_quantities.volume_average.pitch_angle

Average pitch angle of the runaways distribution function (v_parallel/|v|)

  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.grid_ggd[:].grid_subset[:].element"]
runaway_electrons.grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["runaway_electrons.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
runaway_electrons.grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["runaway_electrons.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
runaway_electrons.grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.grid_ggd[:].grid_subset[:].element"]
runaway_electrons.grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["runaway_electrons.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
runaway_electrons.grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["runaway_electrons.grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
runaway_electrons.grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
runaway_electrons.grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
runaway_electrons.grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
runaway_electrons.grid_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
runaway_electrons.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
runaway_electrons.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
runaway_electrons.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
runaway_electrons.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
runaway_electrons.ids_properties.occurrence

N/A

  • Data Type: INT_0D
runaway_electrons.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
runaway_electrons.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
runaway_electrons.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
runaway_electrons.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
runaway_electrons.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
runaway_electrons.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
runaway_electrons.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
runaway_electrons.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
runaway_electrons.momentum_critical_avalanche_definition.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.momentum_critical_avalanche_definition.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.momentum_critical_avalanche_definition.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.momentum_critical_hot_tail_definition.description

Verbose description

  • Data Type: STR_0D
runaway_electrons.momentum_critical_hot_tail_definition.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
runaway_electrons.momentum_critical_hot_tail_definition.name

Short string identifier

  • Data Type: STR_0D
runaway_electrons.profiles_1d[:].current_density

Runaways parallel current density = average(j.B) / B0, where B0 = runawayelectrons/vacuumtoroidal_field/b0

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].ddensity_dt_compton

Compton source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].ddensity_dt_dreicer

Dreicer source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].ddensity_dt_hot_tail

Hot tail source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].ddensity_dt_total

Total source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].ddensity_dt_tritium

Tritium source of runaway electrons

  • Units: m^-3.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].density

Runaway electrons density

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].e_field_critical

Critical electric field

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].e_field_dreicer

Dreicer electric field (parallel to B)

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].energy_density_kinetic

Runaways kinetic mean energy density

  • Units: J.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
runaway_electrons.profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
runaway_electrons.profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].momentum_critical_avalanche

Critical momentum for avalanche, Compton and tritium

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].momentum_critical_hot_tail

Critical momentum for hot tail

  • Units: kg.m^-1.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].pitch_angle

Average pitch angle of the runaways distribution function (v_parallel/|v|)

  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
runaway_electrons.profiles_1d[:].transport_perpendicular.d

Effective diffusivity

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].transport_perpendicular.flux

Flux

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.profiles_1d[:].transport_perpendicular.v

Effective convection

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.profiles_1d[:].grid.rho_tor_norm"]
runaway_electrons.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
runaway_electrons.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["runaway_electrons.time"]
runaway_electrons.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
sawteeth.code.commit

Unique commit reference of software

  • Data Type: STR_0D
sawteeth.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
sawteeth.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
sawteeth.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
sawteeth.code.library[:].name

Name of software

  • Data Type: STR_0D
sawteeth.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
sawteeth.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
sawteeth.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
sawteeth.code.name

Name of software generating IDS

  • Data Type: STR_0D
sawteeth.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
sawteeth.code.repository

URL of software repository

  • Data Type: STR_0D
sawteeth.code.version

Unique version (tag) of software

  • Data Type: STR_0D
sawteeth.crash_trigger

Flag indicating whether a crash condition has been satisfied : 0 = no crash. N(>0) = crash triggered due to condition N as follows. 1: crash triggered by the ideal kink criterion; 2: crash triggered by the ideal kink criterion including kinetic effects from fast particles; 31: crash triggered by the resistive kink criterion (meeting necessary conditions for reconnection); 32: crash triggered by the resistive kink criterion (resistive kink mode is unstable). The distinction between 31 and 32 only indicates whether (31) or (32) was the last criterion to be satisfied

  • Data Type: INT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.diagnostics.magnetic_shear_q1

Magnetic shear at surface q = 1, defined as rhotor/q . dq/drhotor

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.diagnostics.previous_crash_time

Time at which the previous sawtooth crash occured

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.diagnostics.previous_crash_trigger

Previous crash trigger. Flag indicating whether a crash condition has been satisfied : 0 = no crash. N(>0) = crash triggered due to condition N

  • Data Type: INT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.diagnostics.previous_period

Previous sawtooth period

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.diagnostics.rho_tor_norm_inversion

Normalised toroidal flux coordinate at inversion radius

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.diagnostics.rho_tor_norm_mixing

Normalised toroidal flux coordinate at mixing radius

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.diagnostics.rho_tor_norm_q1

Normalised toroidal flux coordinate at surface q = 1

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
sawteeth.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
sawteeth.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
sawteeth.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
sawteeth.ids_properties.occurrence

N/A

  • Data Type: INT_0D
sawteeth.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
sawteeth.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
sawteeth.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
sawteeth.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
sawteeth.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
sawteeth.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
sawteeth.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
sawteeth.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
sawteeth.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
sawteeth.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
sawteeth.profiles_1d[:].conductivity_parallel

Parallel conductivity

  • Units: ohm^-1.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].e_field_parallel

Parallel electric field = average(E.B) / B0, where CoreProfiles/VacuumToroidal_Field/ B0

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
sawteeth.profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
sawteeth.profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
sawteeth.profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].j_bootstrap

Bootstrap current density = average(JBootstrap.B) / B0, where B0 = CoreProfiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].j_non_inductive

Non-inductive (includes bootstrap) parallel current density = average(jni.B) / B0, where B0 = CoreProfiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].j_ohmic

Ohmic parallel current density = average(JOhmic.B) / B0, where B0 = CoreProfiles/VacuumToroidalField/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].j_tor

Total toroidal current density = average(J_Tor/R) / average(1/R)

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].j_total

Total parallel current density = average(jtot.B) / B0, where B0 = CoreProfiles/VacuumToroidal_Field/ B0

  • Units: A/m^2
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].magnetic_shear

Magnetic shear, defined as rhotor/q . dq/drhotor

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].momentum_tor

Total plasma toroidal momentum, summed over ion species and electrons

  • Units: kg.m/s
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].n_e

Electron density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].n_e_fast

Density of fast (non-thermal) electrons

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].p_e

Electron pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].p_e_fast_parallel

Fast (non-thermal) electron parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].p_e_fast_perpendicular

Fast (non-thermal) electron perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].p_i_total

Total ion pressure (sum over the ion species)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].p_i_total_fast_parallel

Fast (non-thermal) total ion (sum over the ion species) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].p_i_total_fast_perpendicular

Fast (non-thermal) total ion (sum over the ion species) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].phi

Toroidal flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].pressure_parallel

Total parallel pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].pressure_perpendicular

Total perpendicular pressure (electrons+ions, thermal+non-thermal)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].pressure_thermal

Thermal pressure (electrons+ions)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].psi_star_post_crash

Psi* = psi - phi, after the sawtooth crash

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].psi_star_pre_crash

Psi* = psi - phi, just before the sawtooth crash

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].q

Safety factor

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].t_e

Electron temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].t_i_average

Ion temperature (averaged on charge states and ion species)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
sawteeth.profiles_1d[:].zeff

Effective charge

  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.profiles_1d[:].grid.rho_tor_norm"]
sawteeth.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
sawteeth.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["sawteeth.time"]
sawteeth.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
soft_x_rays.channel[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.channel[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["soft_x_rays.channel[:].aperture[:].outline.x1"]
soft_x_rays.channel[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].brightness.data

Data

  • Units: W.m^-2.sr^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "soft_x_rays.channel[:].brightness.time"]
soft_x_rays.channel[:].brightness.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.channel[:].detector.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
soft_x_rays.channel[:].detector.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.channel[:].detector.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["soft_x_rays.channel[:].detector.outline.x1"]
soft_x_rays.channel[:].detector.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].detector.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].energy_band[:].detection_efficiency

Probability of detection of a photon impacting the detector as a function of its energy

  • Data Type: FLT_1D
  • Coordinates: ["soft_x_rays.channel[:].energy_band[:].energies"]
soft_x_rays.channel[:].energy_band[:].energies

Array of discrete energy values inside the band

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.channel[:].energy_band[:].lower_bound

Lower bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
soft_x_rays.channel[:].energy_band[:].upper_bound

Upper bound of the energy band

  • Units: eV
  • Data Type: FLT_0D
soft_x_rays.channel[:].etendue

Etendue (geometric extent) of the channel's optical system

  • Units: m^2.sr
  • Data Type: FLT_0D
soft_x_rays.channel[:].etendue_method.description

Verbose description

  • Data Type: STR_0D
soft_x_rays.channel[:].etendue_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
soft_x_rays.channel[:].etendue_method.name

Short string identifier

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].curvature_type.description

Verbose description

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
soft_x_rays.channel[:].filter_window[:].curvature_type.name

Short string identifier

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
soft_x_rays.channel[:].filter_window[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].identifier

ID of the filter

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].material.description

Verbose description

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
soft_x_rays.channel[:].filter_window[:].material.name

Short string identifier

  • Data Type: STR_0D
soft_x_rays.channel[:].filter_window[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.channel[:].filter_window[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["soft_x_rays.channel[:].filter_window[:].outline.x1"]
soft_x_rays.channel[:].filter_window[:].photon_absorption

Probability of absorbing a photon passing through the filter as a function of its wavelength

  • Data Type: FLT_1D
  • Coordinates: ["soft_x_rays.channel[:].filter_window[:].wavelengths"]
soft_x_rays.channel[:].filter_window[:].radius

Radius of the circle, used only if geometry_type/index = 2

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].surface

Surface of the filter, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].thickness

Thickness of the filter window

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].wavelength_lower

Lower bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].wavelength_upper

Upper bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].wavelengths

Array of wavelength values

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.channel[:].filter_window[:].x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x1_width

Full width of the filter in the X1 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x2_width

Full width of the filter in the X2 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].filter_window[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
soft_x_rays.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
soft_x_rays.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
soft_x_rays.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
soft_x_rays.channel[:].name

Name of the channel

  • Data Type: STR_0D
soft_x_rays.channel[:].power.data

Data

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "soft_x_rays.channel[:].power.time"]
soft_x_rays.channel[:].power.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.channel[:].validity

Indicator of the validity of the channel for the whole acquisition period (0 means valid, negative values mean non-valid)

  • Data Type: INT_0D
soft_x_rays.channel[:].validity_timed.data

Data

  • Data Type: INT_1D
  • Coordinates: ["soft_x_rays.channel[:].validity_timed.time"]
soft_x_rays.channel[:].validity_timed.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
soft_x_rays.code.commit

Unique commit reference of software

  • Data Type: STR_0D
soft_x_rays.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
soft_x_rays.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
soft_x_rays.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
soft_x_rays.code.library[:].name

Name of software

  • Data Type: STR_0D
soft_x_rays.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
soft_x_rays.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
soft_x_rays.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
soft_x_rays.code.name

Name of software generating IDS

  • Data Type: STR_0D
soft_x_rays.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["soft_x_rays.time"]
soft_x_rays.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
soft_x_rays.code.repository

URL of software repository

  • Data Type: STR_0D
soft_x_rays.code.version

Unique version (tag) of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
soft_x_rays.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
soft_x_rays.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
soft_x_rays.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
soft_x_rays.ids_properties.occurrence

N/A

  • Data Type: INT_0D
soft_x_rays.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
soft_x_rays.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
soft_x_rays.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
soft_x_rays.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
soft_x_rays.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
soft_x_rays.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
soft_x_rays.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
soft_x_rays.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
soft_x_rays.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
soft_x_rays.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
soft_x_rays.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
soft_x_rays.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
solid_mechanics.center_stack.bucked

Flag indicating if center stack elements bucked to one another

  • Data Type: INT_0D
solid_mechanics.center_stack.displacement.oh

Radial displacement

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_oh"]
solid_mechanics.center_stack.displacement.pl

Radial displacement

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_pl"]
solid_mechanics.center_stack.displacement.tf

Radial displacement

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_tf"]
solid_mechanics.center_stack.grid.r_oh

Radial coordinate in OH layer

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
solid_mechanics.center_stack.grid.r_pl

Radial coordinate in plug layer

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
solid_mechanics.center_stack.grid.r_tf

Radial coordinate in TF layer

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
solid_mechanics.center_stack.noslip

Flag indicating if center stack elements are not allowed to slip with respect to one another

  • Data Type: INT_0D
solid_mechanics.center_stack.plug

Flag indicating if center stack has a plug

  • Data Type: INT_0D
solid_mechanics.center_stack.properties.poisson_ratio.oh

Change in shape for OH structural material due to applied stress

  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.poisson_ratio.pl

Change in shape for plug structural material due to applied stress

  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.poisson_ratio.tf

Change in shape for TF structural material due to applied stress

  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.yield_strength.oh

Maximum stress OH can withstand without permanent deformation

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.yield_strength.pl

Maximum stress plug can withstand without permanent deformation

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.yield_strength.tf

Maximum stress TF can withstand without permanent deformation

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.young_modulus.oh

Stiffness of OH structural material

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.young_modulus.pl

Stiffness of plug structural material

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.properties.young_modulus.tf

Stiffness of TF structural material

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.stress.axial.oh

Average axial stress for OH layer in center stack

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.stress.axial.pl

Average axial stress for plug layer in center stack

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.stress.axial.tf

Average axial stress for TF layer in center stack

  • Units: Pa
  • Data Type: FLT_0D
solid_mechanics.center_stack.stress.hoop.oh

Hoop stresses OH layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_oh"]
solid_mechanics.center_stack.stress.hoop.pl

Hoop stresses plug layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_pl"]
solid_mechanics.center_stack.stress.hoop.tf

Hoop stresses TF layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_tf"]
solid_mechanics.center_stack.stress.radial.oh

Radial stresses OH layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_oh"]
solid_mechanics.center_stack.stress.radial.pl

Radial stresses plug layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_pl"]
solid_mechanics.center_stack.stress.radial.tf

Radial stresses TF layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_tf"]
solid_mechanics.center_stack.stress.vonmises.oh

Von Mises stresses OH layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_oh"]
solid_mechanics.center_stack.stress.vonmises.pl

Von Mises stresses plug layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_pl"]
solid_mechanics.center_stack.stress.vonmises.tf

Von Mises stresses TF layer

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["solid_mechanics.center_stack.grid.r_tf"]
solid_mechanics.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_mass.channel[:].a

Atomic mass measured by this channel

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
spectrometer_mass.channel[:].current

Collected current

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_mass.channel[:].time"]
spectrometer_mass.channel[:].photomultiplier_voltage

Voltage applied to the photomultiplier

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_mass.channel[:].time"]
spectrometer_mass.channel[:].pressure_partial

Partial pressure (calibrated data)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_mass.channel[:].time"]
spectrometer_mass.channel[:].time

Timebase for the dynamic nodes of this channel

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_mass.channel[:].validity

Indicator of the validity of the data. 0: Valid from automated processing; 1: Valid and certified by the diagnostic RO; -1: Problem identified in the data processing (request verification by the diagnostic RO); -2: Invalid data, should not be used. (Values less than -2 have a code-specific meaning)

  • Data Type: INT_0D
spectrometer_mass.channel[:].validity_timed

Indicator of the validity of the data for each time slice. 0: Valid from automated processing; 1: Valid and certified by the diagnostic RO; -1: Means problem identified in the data processing (request verification by the diagnostic RO); -2: Invalid data, should not be used. (Values less than -2 have a code-specific meaning.)

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_mass.channel[:].time"]
spectrometer_mass.code.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_mass.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_mass.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_mass.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_mass.code.library[:].name

Name of software

  • Data Type: STR_0D
spectrometer_mass.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_mass.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_mass.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_mass.code.name

Name of software generating IDS

  • Data Type: STR_0D
spectrometer_mass.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_mass.time"]
spectrometer_mass.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_mass.code.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_mass.code.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_mass.identifier

ID of the spectrometer

  • Data Type: STR_0D
spectrometer_mass.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
spectrometer_mass.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
spectrometer_mass.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
spectrometer_mass.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
spectrometer_mass.ids_properties.occurrence

N/A

  • Data Type: INT_0D
spectrometer_mass.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_mass.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_mass.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_mass.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_mass.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_mass.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
spectrometer_mass.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
spectrometer_mass.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
spectrometer_mass.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
spectrometer_mass.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
spectrometer_mass.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
spectrometer_mass.name

Name of the spectrometer

  • Data Type: STR_0D
spectrometer_mass.residual_spectrum[:].a

Array of atomic masses

  • Units: Atomic Mass Unit
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_mass.residual_spectrum[:].current

Collected current

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_mass.residual_spectrum[:].a"]
spectrometer_mass.residual_spectrum[:].time

Time

  • Units: s
  • Data Type: FLT_0D
spectrometer_mass.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_uv.channel[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].aperture[:].outline.x1"]
spectrometer_uv.channel[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_uv.channel[:].detector.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].detector.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].detector.outline.x1"]
spectrometer_uv.channel[:].detector.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].detector_layout.detector_dimensions

Total detector dimension in each direction (horizontal, vertical)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
spectrometer_uv.channel[:].detector_layout.pixel_dimensions

Pixel dimension in each direction (horizontal, vertical)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
spectrometer_uv.channel[:].detector_layout.pixel_n

Number of pixels in each direction (horizontal, vertical)

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
spectrometer_uv.channel[:].detector_position_parameter.data

Data

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].detector_position_parameter.time"]
spectrometer_uv.channel[:].detector_position_parameter.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].exposure_time

Exposure time

  • Units: s
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.curvature_radius

Curvature radius of the spherical grating

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.geometry_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_uv.channel[:].grating.geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_uv.channel[:].grating.geometry_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_uv.channel[:].grating.groove_density

Number of grooves per unit length

  • Units: m^-1
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.image_field.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.image_field.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.image_field.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.image_field.curvature_radius

Curvature radius of the image surface

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.image_field.geometry_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_uv.channel[:].grating.image_field.geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_uv.channel[:].grating.image_field.geometry_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_uv.channel[:].grating.image_field.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.image_field.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.image_field.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].grating.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].grating.outline.x1"]
spectrometer_uv.channel[:].grating.summit.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.summit.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.summit.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.type.description

Verbose description

  • Data Type: STR_0D
spectrometer_uv.channel[:].grating.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_uv.channel[:].grating.type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_uv.channel[:].grating.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].grating.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].intensity_spectrum.data

Data

  • Units: (counts) s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_uv.channel[:].intensity_spectrum.time"]
spectrometer_uv.channel[:].intensity_spectrum.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].line_of_sight.amplitude_parameter

Amplitude of the line of sight position parameter oscillation (in case moving_mode/index = 1)

  • Units: mixed
  • Data Type: FLT_0D
spectrometer_uv.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_uv.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].line_of_sight.moving_mode.description

Verbose description

  • Data Type: STR_0D
spectrometer_uv.channel[:].line_of_sight.moving_mode.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_uv.channel[:].line_of_sight.moving_mode.name

Short string identifier

  • Data Type: STR_0D
spectrometer_uv.channel[:].line_of_sight.period

Period of the line of sight oscillation (in case moving_mode/index = 1)

  • Units: s
  • Data Type: FLT_0D
spectrometer_uv.channel[:].line_of_sight.position_parameter.data

Data

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].line_of_sight.position_parameter.time"]
spectrometer_uv.channel[:].line_of_sight.position_parameter.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].line_of_sight.second_point.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].line_of_sight.second_point.time"]
spectrometer_uv.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].line_of_sight.second_point.time"]
spectrometer_uv.channel[:].line_of_sight.second_point.time

Time for the R,Z,phi coordinates

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].line_of_sight.second_point.time"]
spectrometer_uv.channel[:].name

Name of the channel

  • Data Type: STR_0D
spectrometer_uv.channel[:].processed_line[:].intensity.data

Data

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].processed_line[:].intensity.time"]
spectrometer_uv.channel[:].processed_line[:].intensity.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].processed_line[:].label

String identifying the processed line. To avoid ambiguities, the following syntax is used : element with ionization statewavelength in Angstrom (e.g. WI4000)

  • Data Type: STR_0D
spectrometer_uv.channel[:].processed_line[:].radiance.data

Data

  • Units: m^-2.s^-1.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].processed_line[:].radiance.time"]
spectrometer_uv.channel[:].processed_line[:].radiance.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].processed_line[:].wavelength_central

Central wavelength of the processed line

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].radiance_calibration

Radiance calibration

  • Units: m^-3.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].wavelengths"]
spectrometer_uv.channel[:].radiance_calibration_date

Date of the radiance calibration (yyyymmdd)

  • Data Type: STR_0D
spectrometer_uv.channel[:].radiance_spectral.data

Data

  • Units: (photons).m^-2.s^-1.sr^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_uv.channel[:].radiance_spectral.time"]
spectrometer_uv.channel[:].radiance_spectral.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].supply_high_voltage[:].object

Name of the object connected to the power supply

  • Data Type: STR_0D
spectrometer_uv.channel[:].supply_high_voltage[:].voltage_set.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_uv.channel[:].supply_high_voltage[:].voltage_set.time"]
spectrometer_uv.channel[:].supply_high_voltage[:].voltage_set.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
spectrometer_uv.channel[:].validity_timed.data

Data

  • Data Type: INT_2D
  • Coordinates: ["spectrometer_uv.channel[:].wavelengths", "spectrometer_uv.channel[:].validity_timed.time"]
spectrometer_uv.channel[:].validity_timed.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.channel[:].wavelength_calibration.gain

Gain

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].wavelength_calibration.offset

Offset

  • Units: m
  • Data Type: FLT_0D
spectrometer_uv.channel[:].wavelength_calibration_date

Date of the wavelength calibration (yyyymmdd)

  • Data Type: STR_0D
spectrometer_uv.channel[:].wavelengths

Measured wavelengths

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_uv.code.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_uv.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_uv.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_uv.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_uv.code.library[:].name

Name of software

  • Data Type: STR_0D
spectrometer_uv.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_uv.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_uv.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_uv.code.name

Name of software generating IDS

  • Data Type: STR_0D
spectrometer_uv.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_uv.time"]
spectrometer_uv.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_uv.code.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_uv.code.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_uv.etendue

Etendue (geometric extent) of the optical system

  • Units: m^2.sr
  • Data Type: FLT_0D
spectrometer_uv.etendue_method.description

Verbose description

  • Data Type: STR_0D
spectrometer_uv.etendue_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_uv.etendue_method.name

Short string identifier

  • Data Type: STR_0D
spectrometer_uv.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
spectrometer_uv.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
spectrometer_uv.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
spectrometer_uv.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
spectrometer_uv.ids_properties.occurrence

N/A

  • Data Type: INT_0D
spectrometer_uv.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_uv.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_uv.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_uv.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_uv.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_uv.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
spectrometer_uv.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
spectrometer_uv.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
spectrometer_uv.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
spectrometer_uv.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
spectrometer_uv.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
spectrometer_uv.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].active_spatial_resolution[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].active_spatial_resolution[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].active_spatial_resolution[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].active_spatial_resolution[:].time

Time

  • Units: s
  • Data Type: FLT_0D
spectrometer_visible.channel[:].active_spatial_resolution[:].width.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].active_spatial_resolution[:].width.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].active_spatial_resolution[:].width.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_visible.channel[:].aperture[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].aperture[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].aperture[:].outline.x1"]
spectrometer_visible.channel[:].aperture[:].radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].aperture[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_visible.channel[:].detector.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].detector.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].detector.outline.x1"]
spectrometer_visible.channel[:].detector.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector_image.circular.ellipticity

Ellipticity

  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector_image.circular.radius

Radius of the circle

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].detector_image.geometry_type

Type of geometry used to describe the image (1:'outline', 2:'circular')

  • Data Type: INT_0D
spectrometer_visible.channel[:].detector_image.outline.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].detector_image.outline.r"]
spectrometer_visible.channel[:].detector_image.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].detector_image.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].detector_image.outline.r"]
spectrometer_visible.channel[:].etendue

Etendue (geometric extent) of the channel's optical system

  • Units: m^2.str
  • Data Type: FLT_0D
spectrometer_visible.channel[:].etendue_method.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].etendue_method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].etendue_method.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].fibre_bundle.fibre_positions.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].fibre_bundle.fibre_positions.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].fibre_bundle.fibre_positions.x1"]
spectrometer_visible.channel[:].fibre_bundle.fibre_radius

Radius of a single fibre

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].fibre_bundle.geometry.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].fibre_bundle.geometry.outline.x1"]
spectrometer_visible.channel[:].fibre_bundle.geometry.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_bundle.geometry.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_image.circular.ellipticity

Ellipticity

  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_image.circular.radius

Radius of the circle

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].fibre_image.geometry_type

Type of geometry used to describe the image (1:'outline', 2:'circular')

  • Data Type: INT_0D
spectrometer_visible.channel[:].fibre_image.outline.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].fibre_image.outline.r"]
spectrometer_visible.channel[:].fibre_image.outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].fibre_image.outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].fibre_image.outline.r"]
spectrometer_visible.channel[:].filter_spectrometer.exposure_time

Exposure time

  • Units: s
  • Data Type: FLT_0D
spectrometer_visible.channel[:].filter_spectrometer.filter.wavelength_central

Central wavelength of the filter

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].filter_spectrometer.filter.wavelength_width

Filter transmission function width (at 90% level)

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].filter_spectrometer.output_voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].filter_spectrometer.output_voltage.time"]
spectrometer_visible.channel[:].filter_spectrometer.output_voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].filter_spectrometer.photoelectric_voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].filter_spectrometer.photoelectric_voltage.time"]
spectrometer_visible.channel[:].filter_spectrometer.photoelectric_voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].filter_spectrometer.photon_count.data

Data

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].filter_spectrometer.photon_count.time"]
spectrometer_visible.channel[:].filter_spectrometer.photon_count.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].filter_spectrometer.processed_line[:].label

String identifying the processed line. To avoid ambiguities, the following syntax is used : element with ionization statewavelength in Angstrom (e.g. WI4000)

  • Data Type: STR_0D
spectrometer_visible.channel[:].filter_spectrometer.processed_line[:].wavelength_central

Central wavelength of the processed line

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].filter_spectrometer.radiance_calibration

Radiance calibration

  • Units: m^-3.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].filter_spectrometer.wavelengths"]
spectrometer_visible.channel[:].filter_spectrometer.radiance_calibration_date

Date of the radiance calibration (yyyymmdd)

  • Data Type: STR_0D
spectrometer_visible.channel[:].filter_spectrometer.sensitivity

Photoelectric sensitivity of the detector. This is the conversion factor from the received power on the detector into electric voltage depending on the wavelength

  • Units: V.W^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].filter_spectrometer.wavelengths"]
spectrometer_visible.channel[:].filter_spectrometer.wavelengths

Array of wavelengths for radiance calibration

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].geometry_matrix.emission_grid.dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].geometry_matrix.emission_grid.dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].geometry_matrix.emission_grid.dim3

Third dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].geometry_matrix.emission_grid.grid_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].geometry_matrix.emission_grid.grid_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].geometry_matrix.emission_grid.grid_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].geometry_matrix.interpolated.data

Interpolated Ray Transfer Matrix (RTM, or geometry matrix), which provides transformation of the reflected light from each interpolation knot to the receiver (detector or head of an optic fibre). When convolving with an emission profile, the values must be interpolated to the emission grid and multiplied by the volume of the grid cells. The interpolated matrix is given on an array of interpolation knots of coordinates r, z and phi

  • Units: m^-2
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].geometry_matrix.interpolated.r"]
spectrometer_visible.channel[:].geometry_matrix.interpolated.phi

Toroidal angle (oriented counter-clockwise when viewing from above) of interpolation knots

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].geometry_matrix.interpolated.r"]
spectrometer_visible.channel[:].geometry_matrix.interpolated.r

Major radius of interpolation knots

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].geometry_matrix.interpolated.z

Height of interpolation knots

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].geometry_matrix.interpolated.r"]
spectrometer_visible.channel[:].geometry_matrix.voxel_map

Voxel map for geometry matrix. The cells with same number are merged in the computation into a single emission source meta-cell (the voxel). Cells with number -1 are excluded. Voxel count starts from 0.

  • Data Type: INT_3D
  • Coordinates: ["spectrometer_visible.channel[:].geometry_matrix.emission_grid.dim1", "spectrometer_visible.channel[:].geometry_matrix.emission_grid.dim2", "spectrometer_visible.channel[:].geometry_matrix.emission_grid.dim3"]
spectrometer_visible.channel[:].geometry_matrix.voxels_n

Number of voxels defined in the voxel_map.

  • Data Type: INT_0D
spectrometer_visible.channel[:].geometry_matrix.with_reflections.data

The Ray Transfer Matrix (RTM, or geometry matrix) here provides transformation of the signal from each individual unit light source (voxel) to the receiver (detector or head of an optic fibre). The emission profile has [photons.m^-3.s^-1.sr^-1] units and radiance signal has [photons.m^-2.s^-1.sr^-1] units. So the RTM has [m] units. This data is stored in a sparse form, i.e. the array contains only the non-zero element of the Ray transfer matrix. The voxel index corresponding to an element of this array can be found in voxel_indices

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].geometry_matrix.with_reflections.voxel_indices

List of voxel indices (defined in the voxel map) used in the sparse data array

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_visible.channel[:].geometry_matrix.with_reflections.data"]
spectrometer_visible.channel[:].geometry_matrix.without_reflections.data

The Ray Transfer Matrix (RTM, or geometry matrix) here provides transformation of the signal from each individual unit light source (voxel) to the receiver (detector or head of an optic fibre). The emission profile has [photons.m^-3.s^-1.sr^-1] units and radiance signal has [photons.m^-2.s^-1.sr^-1] units. So the RTM has [m] units. This data is stored in a sparse form, i.e. the array contains only the non-zero element of the Ray transfer matrix. The voxel index corresponding to an element of this array can be found in voxel_indices

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].geometry_matrix.without_reflections.voxel_indices

List of voxel indices (defined in the voxel map) used in the sparse data array

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_visible.channel[:].geometry_matrix.without_reflections.data"]
spectrometer_visible.channel[:].grating_spectrometer.exposure_time

Exposure time

  • Units: s
  • Data Type: FLT_0D
spectrometer_visible.channel[:].grating_spectrometer.grating

Number of grating lines per unit length

  • Units: m^-1
  • Data Type: FLT_0D
spectrometer_visible.channel[:].grating_spectrometer.instrument_function

Array of Gaussian widths and amplitudes which as a sum make up the instrument function. The instrument function is the shape that would be measured by a grating spectrometer if perfectly monochromatic line emission would be used as input. F(lambda) = 1 / sqrt (2*pi) * sum( instrumentfunction(1,i) / instrumentfunction(2,i) ) * exp( -lambda^2 / (2 * instrumentfunction(2,i)^2) ) ), whereby sum( instrumentfunction(1,i) ) = 1

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "1...N"]
spectrometer_visible.channel[:].grating_spectrometer.intensity_spectrum.data

Data

  • Units: (counts) s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_visible.channel[:].grating_spectrometer.intensity_spectrum.time"]
spectrometer_visible.channel[:].grating_spectrometer.intensity_spectrum.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].intensity.data

Data

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].intensity.time"]
spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].intensity.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].label

String identifying the processed line. To avoid ambiguities, the following syntax is used : element with ionization statewavelength in Angstrom (e.g. WI4000)

  • Data Type: STR_0D
spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].radiance.data

Data

  • Units: m^-2.s^-1.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].radiance.time"]
spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].radiance.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].grating_spectrometer.processed_line[:].wavelength_central

Central wavelength of the processed line

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].grating_spectrometer.radiance_calibration

Radiance calibration

  • Units: m^-3.sr^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].grating_spectrometer.wavelengths"]
spectrometer_visible.channel[:].grating_spectrometer.radiance_calibration_date

Date of the radiance calibration (yyyymmdd)

  • Data Type: STR_0D
spectrometer_visible.channel[:].grating_spectrometer.radiance_spectral.data

Data

  • Units: (photons).m^-2.s^-1.sr^-1.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_visible.channel[:].grating_spectrometer.radiance_spectral.time"]
spectrometer_visible.channel[:].grating_spectrometer.radiance_spectral.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].grating_spectrometer.slit_width

Width of the slit (placed in the object focal plane)

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].grating_spectrometer.wavelength_calibration.gain

Gain

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].grating_spectrometer.wavelength_calibration.offset

Offset

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].grating_spectrometer.wavelength_calibration_date

Date of the wavelength calibration (yyyymmdd)

  • Data Type: STR_0D
spectrometer_visible.channel[:].grating_spectrometer.wavelengths

Measured wavelengths

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].isotope_ratios.isotope[:].cold_neutrals_fraction

Fraction of cold neutrals for this isotope (ncoldneutrals/(ncoldneutrals+nhotneutrals))

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].isotope_ratios.isotope[:].time"]
spectrometer_visible.channel[:].isotope_ratios.isotope[:].cold_neutrals_temperature

Temperature of cold neutrals for this isotope

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].isotope_ratios.isotope[:].time"]
spectrometer_visible.channel[:].isotope_ratios.isotope[:].density_ratio

Ratio of the density of neutrals of this isotope over the summed neutral densities of all other isotopes described in the ../isotope array

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].isotope_ratios.isotope[:].time"]
spectrometer_visible.channel[:].isotope_ratios.isotope[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
spectrometer_visible.channel[:].isotope_ratios.isotope[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
spectrometer_visible.channel[:].isotope_ratios.isotope[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
spectrometer_visible.channel[:].isotope_ratios.isotope[:].hot_neutrals_fraction

Fraction of hot neutrals for this isotope (nhotneutrals/(ncoldneutrals+nhotneutrals))

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].isotope_ratios.isotope[:].time"]
spectrometer_visible.channel[:].isotope_ratios.isotope[:].hot_neutrals_temperature

Temperature of hot neutrals for this isotope

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].isotope_ratios.isotope[:].time"]
spectrometer_visible.channel[:].isotope_ratios.isotope[:].label

String identifying the species (H, D, T, He3, He4)

  • Data Type: STR_0D
spectrometer_visible.channel[:].isotope_ratios.isotope[:].time

Timebase for dynamic quantities at this level of the data structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].isotope_ratios.method.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].isotope_ratios.method.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].isotope_ratios.method.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].isotope_ratios.signal_to_noise

Log10 of the ratio of the powers in two bands, one with the spectral lines of interest (signal) the other without spectral lines (noise).

  • Units: dB
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].isotope_ratios.time"]
spectrometer_visible.channel[:].isotope_ratios.time

Timebase for dynamic quantities at this level of the data structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].isotope_ratios.validity

Indicator of the validity of the isotope ratios for the whole acquisition period (0 means valid, negative values mean non-valid)

  • Data Type: INT_0D
spectrometer_visible.channel[:].isotope_ratios.validity_timed

Indicator of the validity of the isotope ratios as a function of time (0 means valid, negative values mean non-valid)

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_visible.channel[:].isotope_ratios.time"]
spectrometer_visible.channel[:].light_collection_efficiencies.positions.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].light_collection_efficiencies.positions.r"]
spectrometer_visible.channel[:].light_collection_efficiencies.positions.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].light_collection_efficiencies.positions.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].light_collection_efficiencies.positions.r"]
spectrometer_visible.channel[:].light_collection_efficiencies.values

Values of the light collection efficiencies

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].light_collection_efficiencies.positions.r"]
spectrometer_visible.channel[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].name

Name of the channel

  • Data Type: STR_0D
spectrometer_visible.channel[:].object_observed

Main object observed by the channel

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].back_surface.curvature_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].back_surface.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].optical_element[:].back_surface.curvature_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].back_surface.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].back_surface.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].front_surface.curvature_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].front_surface.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].optical_element[:].front_surface.curvature_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].front_surface.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].front_surface.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].optical_element[:].geometry.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].optical_element[:].geometry.outline.x1"]
spectrometer_visible.channel[:].optical_element[:].geometry.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].geometry.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].material_properties.extinction_coefficient

Extinction coefficient (for metal)

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].optical_element[:].material_properties.wavelengths"]
spectrometer_visible.channel[:].optical_element[:].material_properties.refractive_index

Refractive index (for metal and dielectric)

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].optical_element[:].material_properties.wavelengths"]
spectrometer_visible.channel[:].optical_element[:].material_properties.roughness

Roughness parameter of the material. Varies in range [0, 1]. 0 is perfectly specular, 1 is perfectly rough

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].optical_element[:].material_properties.wavelengths"]
spectrometer_visible.channel[:].optical_element[:].material_properties.transmission_coefficient

Transmission coefficient (for dielectric)

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].optical_element[:].material_properties.wavelengths"]
spectrometer_visible.channel[:].optical_element[:].material_properties.type.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].material_properties.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].optical_element[:].material_properties.type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].material_properties.wavelengths

Wavelengths array for refractiveindex, extinctioncoefficient and transmission_coefficient

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].optical_element[:].thickness

Distance between frontsurface and backsurface along the X3 vector

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].optical_element[:].type.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].optical_element[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].optical_element[:].type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].polarization_spectroscopy.b_field_modulus

Modulus of the magnetic field (always positive, irrespective of the sign convention for the B-field direction), obtained from Zeeman effect fit

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.e_field_lh_r

Lower Hybrid electric field component in the major radius direction

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.e_field_lh_tor

Lower Hybrid electric field component in the toroidal direction

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.e_field_lh_z

Lower Hybrid electric field component in the vertical direction

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.n_e

Electron density, obtained from Stark broadening fit

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.temperature_cold_neutrals

Fit of cold neutrals temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.temperature_hot_neutrals

Fit of hot neutrals temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.time

Timebase for dynamic quantities at this level of the data structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].polarization_spectroscopy.velocity_cold_neutrals

Projection of the cold neutral velocity along the line of sight, positive when going from first point to second point of the line of sight

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarization_spectroscopy.velocity_hot_neutrals

Projection of the hot neutral velocity along the line of sight, positive when going from first point to second point of the line of sight

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarization_spectroscopy.time"]
spectrometer_visible.channel[:].polarizer.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_visible.channel[:].polarizer.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.channel[:].polarizer.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_visible.channel[:].polarizer.outline.x1"]
spectrometer_visible.channel[:].polarizer.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_visible.channel[:].polarizer_active

Indicator of whether a polarizer is present and active in the optical system (set to 1 in this case, set to 0 or leave empty ottherwise)

  • Data Type: INT_0D
spectrometer_visible.channel[:].type.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.channel[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.channel[:].type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.channel[:].validity

Indicator of the validity of the channel for the whole acquisition period (0 means valid, negative values mean non-valid)

  • Data Type: INT_0D
spectrometer_visible.channel[:].validity_timed.data

Data

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_visible.channel[:].validity_timed.time"]
spectrometer_visible.channel[:].validity_timed.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_visible.code.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_visible.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_visible.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_visible.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_visible.code.library[:].name

Name of software

  • Data Type: STR_0D
spectrometer_visible.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_visible.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_visible.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_visible.code.name

Name of software generating IDS

  • Data Type: STR_0D
spectrometer_visible.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_visible.time"]
spectrometer_visible.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_visible.code.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_visible.code.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_visible.detector_layout

Layout of the detector grid employed. Ex: '4x16', '4x32', '1x18'

  • Data Type: STR_0D
spectrometer_visible.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
spectrometer_visible.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
spectrometer_visible.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
spectrometer_visible.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
spectrometer_visible.ids_properties.occurrence

N/A

  • Data Type: INT_0D
spectrometer_visible.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_visible.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_visible.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_visible.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_visible.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_visible.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
spectrometer_visible.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
spectrometer_visible.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
spectrometer_visible.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
spectrometer_visible.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
spectrometer_visible.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
spectrometer_visible.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].aperture.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.geometry_type

Type of geometry used to describe the surface of the detector or aperture (1:'outline', 2:'circular', 3:'rectangle'). In case of 'outline', the surface is described by an outline of point in a local coordinate system defined by a centre and three unit vectors X1, X2, X3. Note that there is some flexibility here and the data provider should choose the most convenient coordinate system for the object, respecting the definitions of (X1,X2,X3) indicated below. In case of 'circular', the surface is a circle defined by its centre, radius, and normal vector oriented towards the plasma X3. In case of 'rectangle', the surface is a rectangle defined by its centre, widths in the X1 and X2 directions, and normal vector oriented towards the plasma X3.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].aperture.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].aperture.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].aperture.outline.x1"]
spectrometer_x_ray_crystal.channel[:].aperture.radius

Radius of the circle, used only if geometry_type = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.surface

Surface of the detector/aperture, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x1_width

Full width of the aperture in the X1 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x2_width

Full width of the aperture in the X2 direction, used only if geometry_type = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].aperture.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.centre

Centre (in terms of absolute wavelength) of instrument function

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.intensity

Scaling factor for the instrument function such that convolving the instrument function with an emission spectrum gives the counts per second on the detector

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.scale

Scale of Lorentzian instrument function (full width at half height)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.sigma

Standard deviation of Gaussian instrument function

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.values

Explicit instrument function values for the detector. When multiplied by the line-integrated emission spectrum in photons/second/sr/m/m^2 received on a binned pixel of the detector, gives the detector pixel output in counts/seconds.

  • Units: sr.m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].bin[:].instrument_function.wavelengths

Array of wavelengths on which the instrument function is defined

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].bin[:].line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].bin[:].wavelength

Wavelength of incoming photons on each horizontal pixel of this bin.

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].bin[:].z_pixel_range

Vertical pixel index range indicating the corresponding binned detector area

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
spectrometer_x_ray_crystal.channel[:].camera.camera_dimensions

Total camera dimension in each direction (x1, x2)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
spectrometer_x_ray_crystal.channel[:].camera.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.identifier

ID of the camera

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].camera.line_of_sight.first_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.line_of_sight.first_point.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.line_of_sight.first_point.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.line_of_sight.second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.line_of_sight.second_point.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.line_of_sight.second_point.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.pixel_dimensions

Pixel dimension in each direction (x1, x2)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...2"]
spectrometer_x_ray_crystal.channel[:].camera.pixel_position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.pixel_position.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.pixel_position.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
spectrometer_x_ray_crystal.channel[:].camera.pixels_n

Number of pixels in each direction (x1, x2)

  • Data Type: INT_1D
  • Coordinates: ["1...2"]
spectrometer_x_ray_crystal.channel[:].camera.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].camera.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.angle_bragg

Bragg angle of the crystal

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.curvature_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].crystal.curvature_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.cut

Miller indices characterizing the cut of the crystal (can be of length 3 or 4)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].crystal.geometry_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].crystal.geometry_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.identifier

ID of the object

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.material.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].crystal.material.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.mesh_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.mesh_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].crystal.mesh_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].crystal.outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].crystal.outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].crystal.outline.x1"]
spectrometer_x_ray_crystal.channel[:].crystal.radius

Radius of the circle, used only if geometry_type/index = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.surface

Surface of the object, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.thickness

Thickness of the crystal

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.wavelength_bragg

Bragg wavelength of the crystal

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x1_width

Full width of the object in the X1 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x2_width

Full width of the object in the X2 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].crystal.x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].detection_efficiency

Probability of detection of a photon impacting the detector as a function of its energy

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].energies"]
spectrometer_x_ray_crystal.channel[:].energies

Array of energy values for tabulation of the detection efficiency

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].energy_bound_lower

Lower energy bound for the photon detection, for each pixel (horizontal, vertical)

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].z_frames"]
spectrometer_x_ray_crystal.channel[:].energy_bound_upper

Upper energy bound for the photon detection, for each pixel (horizontal, vertical)

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].z_frames"]
spectrometer_x_ray_crystal.channel[:].exposure_time

Exposure time of the measurement

  • Units: s
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].curvature_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].curvature_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].identifier

ID of the filter

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].material.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].material.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].filter_window[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].filter_window[:].outline.x1"]
spectrometer_x_ray_crystal.channel[:].filter_window[:].photon_absorption

Probability of absorbing a photon passing through the filter as a function of its wavelength

  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].filter_window[:].wavelengths"]
spectrometer_x_ray_crystal.channel[:].filter_window[:].radius

Radius of the circle, used only if geometry_type/index = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].surface

Surface of the filter, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].thickness

Thickness of the filter window

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].wavelength_lower

Lower bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].wavelength_upper

Upper bound of the filter wavelength range

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].wavelengths

Array of wavelength values

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].filter_window[:].x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x1_width

Full width of the filter in the X1 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x2_width

Full width of the filter in the X2 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].filter_window[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].frame[:].counts_bin_n

Number of counts detected on each pixel/bin of the binned frame during one exposure time

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].bin"]
spectrometer_x_ray_crystal.channel[:].frame[:].counts_n

Number of counts detected on each pixel of the frame during one exposure time

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].z_frames"]
spectrometer_x_ray_crystal.channel[:].frame[:].time

Time

  • Units: s
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].instrument_function.centre

Centre (in terms of absolute wavelength) of instrument function

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].z_frames", "spectrometer_x_ray_crystal.channel[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].instrument_function.intensity

Scaling factor for the instrument function such that convolving the instrument function with an emission spectrum gives the counts per second on the detector

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].z_frames", "spectrometer_x_ray_crystal.channel[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].instrument_function.scale

Scale of Lorentzian instrument function (full width at half height)

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].z_frames", "spectrometer_x_ray_crystal.channel[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].instrument_function.sigma

Standard deviation of Gaussian instrument function

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].z_frames", "spectrometer_x_ray_crystal.channel[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].instrument_function.type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].instrument_function.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].instrument_function.type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].instrument_function.values

Explicit instrument function values for the detector. When multiplied by the line-integrated emission spectrum in photons/second/sr/m/m^2 received on a pixel of the detector, gives the detector pixel output in counts/seconds.

  • Units: sr.m
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].z_frames", "spectrometer_x_ray_crystal.channel[:].instrument_function.wavelengths"]
spectrometer_x_ray_crystal.channel[:].instrument_function.wavelengths

Array of wavelengths on which the instrument function is defined

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_rho_tor_norm.data

Data

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_rho_tor_norm.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_rho_tor_norm.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_second_point.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_second_point.r"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_second_point.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_second_point.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.lines_of_sight_second_point.r"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.t_e.data

Data

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.t_e.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.t_e.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.t_i.data

Data

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.t_i.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.t_i.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time

Timebase for the dynamic nodes of this probe located at this level of the IDS structure

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.velocity_tor.data

Data

  • Units: m.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.velocity_tor.validity

Indicator of the validity of the data for the whole acquisition period. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.velocity_tor.validity_timed

Indicator of the validity of the data for each time slice. 0: valid from automated processing, 1: valid and certified by the diagnostic RO; - 1 means problem identified in the data processing (request verification by the diagnostic RO), -2: invalid data, should not be used (values lower than -2 have a code-specific meaning detailing the origin of their invalidity)

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].profiles_line_integrated.time"]
spectrometer_x_ray_crystal.channel[:].reflector[:].centre.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].centre.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].centre.z

Height

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].curvature_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].curvature_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].curvature_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].identifier

ID of the object

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].material.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].material.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].outline.x1

Positions along x1 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.channel[:].reflector[:].outline.x2

Positions along x2 axis

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.channel[:].reflector[:].outline.x1"]
spectrometer_x_ray_crystal.channel[:].reflector[:].radius

Radius of the circle, used only if geometry_type/index = 2

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].surface

Surface of the object, derived from the above geometric data

  • Units: m^2
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x1_curvature

Radius of curvature in the X1 direction, to be filled only for curvature_type/index = 2, 4 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x1_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x1_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x1_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x1_width

Full width of the object in the X1 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x2_curvature

Radius of curvature in the X2 direction, to be filled only for curvature_type/index = 3 or 5

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x2_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x2_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x2_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x2_width

Full width of the object in the X2 direction, used only if geometry_type/index = 3

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x3_unit_vector.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x3_unit_vector.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].reflector[:].x3_unit_vector.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.channel[:].wavelength_frames

Wavelength of incoming photons on each pixel of the frames, mainly varying accross the horizontal dimension of the frame. However a 2D map of the wavelength is given since it is not constant vertically due to the elliptical curvature of the photon iso-surfaces

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "spectrometer_x_ray_crystal.channel[:].z_frames"]
spectrometer_x_ray_crystal.channel[:].z_frames

Height of the observed zone at the focal plane in the plasma, corresponding to the vertical dimension of the frame

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.code.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.library[:].name

Name of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.name

Name of software generating IDS

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["spectrometer_x_ray_crystal.time"]
spectrometer_x_ray_crystal.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_x_ray_crystal.code.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
spectrometer_x_ray_crystal.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.occurrence

N/A

  • Data Type: INT_0D
spectrometer_x_ray_crystal.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spectrometer_x_ray_crystal.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
spectrometer_x_ray_crystal.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
spectrometer_x_ray_crystal.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
spectrometer_x_ray_crystal.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
spectrometer_x_ray_crystal.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spi.code.commit

Unique commit reference of software

  • Data Type: STR_0D
spi.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spi.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spi.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spi.code.library[:].name

Name of software

  • Data Type: STR_0D
spi.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spi.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
spi.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spi.code.name

Name of software generating IDS

  • Data Type: STR_0D
spi.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["spi.time"]
spi.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spi.code.repository

URL of software repository

  • Data Type: STR_0D
spi.code.version

Unique version (tag) of software

  • Data Type: STR_0D
spi.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
spi.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
spi.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
spi.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
spi.ids_properties.occurrence

N/A

  • Data Type: INT_0D
spi.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
spi.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spi.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
spi.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
spi.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
spi.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
spi.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
spi.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
spi.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
spi.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
spi.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
spi.injector[:].fragment[:].position.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragment[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragment[:].position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragment[:].species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
spi.injector[:].fragment[:].species[:].density

Density of the species

  • Units: atoms.m^-3
  • Data Type: FLT_0D
spi.injector[:].fragment[:].species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
spi.injector[:].fragment[:].species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
spi.injector[:].fragment[:].velocity_r

Major radius component of the fragment velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragment[:].velocity_tor

Toroidal component of the fragment velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragment[:].velocity_z

Vertical component of the fragment velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragment[:].volume

Volume of the fragment

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragmentation_gas.atoms_n

Total number of atoms of the gas

  • Units: atoms
  • Data Type: FLT_0D
spi.injector[:].fragmentation_gas.flow_rate

Flow rate of the gas at the injector exit

  • Units: atoms.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].fragmentation_gas.species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
spi.injector[:].fragmentation_gas.species[:].fraction

Atomic fraction of the species

  • Data Type: FLT_0D
spi.injector[:].fragmentation_gas.species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
spi.injector[:].fragmentation_gas.species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
spi.injector[:].fragmentation_gas.temperature

Gas temperature

  • Units: K
  • Data Type: FLT_0D
spi.injector[:].identifier

Identifier of the injector

  • Data Type: STR_0D
spi.injector[:].injection_direction.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].injection_direction.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].injection_direction.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].name

Name of the injector

  • Data Type: STR_0D
spi.injector[:].optical_pellet_diagnostic.position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spi.injector[:].optical_pellet_diagnostic.position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].optical_pellet_diagnostic.position.z

Height

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].optical_pellet_diagnostic.time_arrival

Arrival time at the optical pellet diagnostic, for each object

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
spi.injector[:].pellet.core.atoms_n

Total number of atoms of desublimated gas

  • Units: atoms
  • Data Type: FLT_0D
spi.injector[:].pellet.core.species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
spi.injector[:].pellet.core.species[:].density

Density of the species

  • Units: atoms.m^-3
  • Data Type: FLT_0D
spi.injector[:].pellet.core.species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
spi.injector[:].pellet.core.species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
spi.injector[:].pellet.diameter

Pellet diameter

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].pellet.length

Pellet length (cylindrical pellet)

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].pellet.position.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].pellet.position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].pellet.position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].pellet.shell.atoms_n

Total number of atoms of desublimated gas

  • Units: atoms
  • Data Type: FLT_0D
spi.injector[:].pellet.shell.species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
spi.injector[:].pellet.shell.species[:].density

Density of the species

  • Units: atoms.m^-3
  • Data Type: FLT_0D
spi.injector[:].pellet.shell.species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
spi.injector[:].pellet.shell.species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
spi.injector[:].pellet.velocity_r

Major radius component of the velocity of the centre of mass of the pellet

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].pellet.velocity_shatter

Norm of the velocity of the centre of mass of the pellet right before shattering

  • Units: m.s^-1
  • Data Type: FLT_0D
spi.injector[:].pellet.velocity_tor

Toroidal component of the velocity of the centre of mass of the pellet

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].pellet.velocity_z

Vertical component of the velocity of the centre of mass of the pellet

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].propellant_gas.atoms_n

Total number of atoms of the gas

  • Units: atoms
  • Data Type: FLT_0D
spi.injector[:].propellant_gas.flow_rate

Flow rate of the gas at the injector exit

  • Units: atoms.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["spi.time"]
spi.injector[:].propellant_gas.species[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
spi.injector[:].propellant_gas.species[:].fraction

Atomic fraction of the species

  • Data Type: FLT_0D
spi.injector[:].propellant_gas.species[:].label

String identifying the species (e.g. H, D, T, ...)

  • Data Type: STR_0D
spi.injector[:].propellant_gas.species[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
spi.injector[:].propellant_gas.temperature

Gas temperature

  • Units: K
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.angle_major

Angle between the cone direction and unitvectormajor

  • Units: rad
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.angle_minor

Angle between the cone direction and unitvectorminor

  • Units: rad
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.direction.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.direction.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.direction.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.origin.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.origin.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.origin.z

Height

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.unit_vector_major.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.unit_vector_major.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.unit_vector_major.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.unit_vector_minor.x

Component along X axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.unit_vector_minor.y

Component along Y axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shatter_cone.unit_vector_minor.z

Component along Z axis

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shattering_angle

Impact (or grazing) angle of the pellet with the shattering element. It is the complementary of the incidence angle with the element surface at the shattering location

  • Units: rad
  • Data Type: FLT_0D
spi.injector[:].shattering_position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
spi.injector[:].shattering_position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].shattering_position.z

Height

  • Units: m
  • Data Type: FLT_0D
spi.injector[:].time_shatter

Arrival time at the shattering unit

  • Units: s
  • Data Type: FLT_0D
spi.injector[:].time_trigger

Time of trigger request to the power supply according to the DMS sequence

  • Units: s
  • Data Type: FLT_0D
spi.injector[:].velocity_mass_centre_fragments_r

Major radius component of the velocity of the centre of mass of the fragments at the shattering cone origin

  • Units: m.s^-1
  • Data Type: FLT_0D
spi.injector[:].velocity_mass_centre_fragments_tor

Toroidal component of the velocity of the centre of mass of the fragments at the shattering cone origin

  • Units: m.s^-1
  • Data Type: FLT_0D
spi.injector[:].velocity_mass_centre_fragments_z

Vertical component of the velocity velocity of the centre of mass of the fragments at the shattering cone origin

  • Units: m.s^-1
  • Data Type: FLT_0D
spi.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
spi.shatter_cone_definition.description

Verbose description

  • Data Type: STR_0D
spi.shatter_cone_definition.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
spi.shatter_cone_definition.name

Short string identifier

  • Data Type: STR_0D
spi.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
stability.all_cleared

True (1) if all stability limits are cleared, otherwise False (0)

  • Data Type: INT_1D
  • Coordinates: ["stability.time"]
stability.collection[:].identifier.description

Verbose description

  • Data Type: STR_0D
stability.collection[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
stability.collection[:].identifier.name

Short string identifier

  • Data Type: STR_0D
stability.model[:].cleared

True (1) if a given stability limit is cleared, otherwise False (0)

  • Data Type: INT_1D
  • Coordinates: ["stability.time"]
stability.model[:].fraction

Fraction of limit

  • Data Type: FLT_1D
  • Coordinates: ["stability.time"]
stability.model[:].identifier.description

Verbose description

  • Data Type: STR_0D
stability.model[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
stability.model[:].identifier.name

Short string identifier

  • Data Type: STR_0D
stability.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
summary.boundary.distance_inner_outer_separatrices.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.distance_inner_outer_separatrices.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.elongation.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.elongation.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.gap_limiter_wall.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.gap_limiter_wall.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.geometric_axis_r.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.geometric_axis_r.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.geometric_axis_z.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.geometric_axis_z.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.magnetic_axis_r.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.magnetic_axis_r.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.magnetic_axis_z.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.magnetic_axis_z.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.minor_radius.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.minor_radius.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.strike_point_configuration.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.strike_point_configuration.value

Value

  • Data Type: STR_0D
summary.boundary.strike_point_inner_r.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.strike_point_inner_r.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.strike_point_inner_z.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.strike_point_inner_z.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.strike_point_outer_r.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.strike_point_outer_r.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.strike_point_outer_z.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.strike_point_outer_z.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.triangularity_lower.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.triangularity_lower.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.triangularity_upper.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.triangularity_upper.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.type.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.type.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.boundary.x_point_main.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.boundary.x_point_main.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.boundary.x_point_main.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.code.commit

Unique commit reference of software

  • Data Type: STR_0D
summary.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
summary.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
summary.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
summary.code.library[:].name

Name of software

  • Data Type: STR_0D
summary.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
summary.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
summary.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
summary.code.name

Name of software generating IDS

  • Data Type: STR_0D
summary.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
summary.code.repository

URL of software repository

  • Data Type: STR_0D
summary.code.version

Unique version (tag) of software

  • Data Type: STR_0D
summary.configuration.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.configuration.value

Value

  • Data Type: STR_0D
summary.disruption.decay_times.current_runaways.exponential.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.current_runaways.exponential.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.current_runaways.linear_20_80.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.current_runaways.linear_20_80.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.current_runaways.linear_custom.decay_time.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.current_runaways.linear_custom.decay_time.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.current_runaways.linear_custom.x1

User-defined parameter, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.current_runaways.linear_custom.x2

User-defined value, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.energy_thermal.exponential.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.energy_thermal.exponential.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.energy_thermal.linear_20_80.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.energy_thermal.linear_20_80.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.energy_thermal.linear_custom.decay_time.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.energy_thermal.linear_custom.decay_time.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.energy_thermal.linear_custom.x1

User-defined parameter, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.energy_thermal.linear_custom.x2

User-defined value, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.ip.exponential.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.ip.exponential.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.ip.linear_20_80.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.ip.linear_20_80.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.ip.linear_custom.decay_time.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.ip.linear_custom.decay_time.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.ip.linear_custom.x1

User-defined parameter, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.ip.linear_custom.x2

User-defined value, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_magnetic_axis.exponential.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.t_e_magnetic_axis.exponential.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_magnetic_axis.linear_20_80.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.t_e_magnetic_axis.linear_20_80.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_magnetic_axis.linear_custom.decay_time.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.t_e_magnetic_axis.linear_custom.decay_time.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_magnetic_axis.linear_custom.x1

User-defined parameter, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_magnetic_axis.linear_custom.x2

User-defined value, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_volume_average.exponential.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.t_e_volume_average.exponential.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_volume_average.linear_20_80.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.t_e_volume_average.linear_20_80.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_volume_average.linear_custom.decay_time.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.decay_times.t_e_volume_average.linear_custom.decay_time.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_volume_average.linear_custom.x1

User-defined parameter, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.decay_times.t_e_volume_average.linear_custom.x2

User-defined value, see description of linear_custom

  • Data Type: FLT_0D
summary.disruption.mitigation_valve.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.mitigation_valve.value

Value

  • Data Type: INT_0D
summary.disruption.time.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.time.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.time_half_ip.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.time_half_ip.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.time_radiated_power_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.time_radiated_power_max.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.disruption.vertical_displacement.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.disruption.vertical_displacement.value

Value

  • Data Type: INT_0D
summary.elms.frequency.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.elms.frequency.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.elms.type.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.elms.type.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.fusion.current.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.current.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_power_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_power_total.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dd.beam_beam.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dd.beam_beam.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dd.beam_thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dd.beam_thermal.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dd.thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dd.thermal.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dd.total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dd.total.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dt.beam_beam.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dt.beam_beam.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dt.beam_thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dt.beam_thermal.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dt.thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dt.thermal.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.dt.total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.dt.total.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.thermal.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.total.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.tt.beam_beam.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.tt.beam_beam.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.tt.beam_thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.tt.beam_thermal.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.tt.thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.tt.thermal.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.neutron_rates.tt.total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.neutron_rates.tt.total.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.fusion.power.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.fusion.power.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.ammonia.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.ammonia.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.ammonia_deuterated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.ammonia_deuterated.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.argon.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.beryllium.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.bottom.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.bottom.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.carbon.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.deuterium.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.ethane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.ethane.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.ethylene.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.ethylene.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.helium_3.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.helium_4.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.hydrogen.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.impurity_seeding.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.impurity_seeding.value

Value

  • Data Type: INT_0D
summary.gas_injection_accumulated.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.krypton.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.lithium.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.methane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.methane.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.methane_carbon_13.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.methane_carbon_13.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.methane_deuterated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.methane_deuterated.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.midplane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.midplane.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.neon.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.nitrogen.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.oxygen.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.propane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.propane.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.silane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.silane.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.top.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.top.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.total.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.tritium.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_accumulated.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_accumulated.xenon.value

Value

  • Units: electrons
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_prefill.ammonia.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.ammonia.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.ammonia_deuterated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.ammonia_deuterated.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.argon.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.beryllium.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.bottom.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.bottom.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.carbon.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.deuterium.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.ethane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.ethane.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.ethylene.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.ethylene.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.helium_3.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.helium_4.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.hydrogen.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.impurity_seeding.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.impurity_seeding.value

Value

  • Data Type: INT_0D
summary.gas_injection_prefill.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.krypton.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.lithium.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.methane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.methane.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.methane_carbon_13.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.methane_carbon_13.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.methane_deuterated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.methane_deuterated.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.midplane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.midplane.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.neon.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.nitrogen.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.oxygen.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.propane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.propane.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.silane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.silane.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.top.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.top.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.total.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.tritium.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_prefill.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_prefill.xenon.value

Value

  • Units: electrons
  • Data Type: FLT_0D
summary.gas_injection_rates.ammonia.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.ammonia.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.ammonia_deuterated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.ammonia_deuterated.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.argon.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.beryllium.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.bottom.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.bottom.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.carbon.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.deuterium.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.ethane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.ethane.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.ethylene.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.ethylene.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.helium_3.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.helium_4.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.hydrogen.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.impurity_seeding.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.impurity_seeding.value

Value

  • Data Type: INT_0D
summary.gas_injection_rates.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.krypton.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.lithium.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.methane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.methane.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.methane_carbon_13.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.methane_carbon_13.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.methane_deuterated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.methane_deuterated.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.midplane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.midplane.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.neon.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.nitrogen.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.oxygen.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.propane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.propane.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.silane.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.silane.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.top.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.top.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.total.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.tritium.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.gas_injection_rates.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.gas_injection_rates.xenon.value

Value

  • Units: electrons.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.b0.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.b0.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.beta_pol.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.beta_pol.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.beta_pol_mhd.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.beta_pol_mhd.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.beta_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.beta_tor.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.beta_tor_mhd.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.beta_tor_mhd.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.beta_tor_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.beta_tor_norm.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.beta_tor_norm_mhd.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.beta_tor_norm_mhd.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.beta_tor_thermal_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.beta_tor_thermal_norm.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.current_alignment.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.current_alignment.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.current_bootstrap.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.current_bootstrap.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.current_non_inductive.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.current_non_inductive.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.current_ohm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.current_ohm.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.denergy_diamagnetic_dt.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.denergy_diamagnetic_dt.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.denergy_thermal_dt.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.denergy_thermal_dt.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_b_field_pol.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_b_field_pol.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_diamagnetic.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_diamagnetic.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_electrons_thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_electrons_thermal.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_fast_parallel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_fast_parallel.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_fast_perpendicular.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_fast_perpendicular.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_ion_total_thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_ion_total_thermal.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_mhd.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_mhd.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_thermal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_thermal.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.energy_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.energy_total.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.fusion_fluence.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.fusion_fluence.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.fusion_gain.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.fusion_gain.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.greenwald_fraction.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.greenwald_fraction.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.h_98.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.h_98.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.h_mode.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.h_mode.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.ip.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.ip.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.li.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.li.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.li_mhd.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.li_mhd.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_bremsstrahlung.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_bremsstrahlung.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_line.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_line.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_loss.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_loss.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_ohm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_ohm.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_radiated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_radiated.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_radiated_inside_lcfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_radiated_inside_lcfs.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_radiated_outside_lcfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_radiated_outside_lcfs.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_steady.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_steady.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.power_synchrotron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.power_synchrotron.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.psi_external_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.psi_external_average.value

Value

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.q_95.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.q_95.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.r0.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.r0.value

Value

  • Units: m
  • Data Type: FLT_0D
summary.global_quantities.ratio_tau_helium_fuel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.ratio_tau_helium_fuel.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.resistance.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.resistance.value

Value

  • Units: ohm
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.tau_energy.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.tau_energy.value

Value

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.tau_energy_98.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.tau_energy_98.value

Value

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.tau_helium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.tau_helium.value

Value

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.tau_resistive.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.tau_resistive.value

Value

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.v_loop.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.v_loop.value

Value

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.global_quantities.volume.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.global_quantities.volume.value

Value

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].angle_pol.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].angle_pol.value

Value

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].angle_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].angle_tor.value

Value

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].current.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].current.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].energy_fast.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].energy_fast.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].frequency.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].frequency.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].harmonic.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].harmonic.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].polarisation.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].polarisation.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].power.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].power.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ec[:].power_launched.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ec[:].power_launched.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].current.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].current.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].e_field_plus_minus_ratio.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].e_field_plus_minus_ratio.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].energy_fast.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].energy_fast.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].frequency.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].frequency.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].harmonic.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].harmonic.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].k_perpendicular.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].k_perpendicular.value

Value

  • Units: m^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].n_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].n_tor.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].phase.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].phase.value

Value

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].power.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].power.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.ic[:].power_launched.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.ic[:].power_launched.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.lh[:].current.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.lh[:].current.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.lh[:].energy_fast.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.lh[:].energy_fast.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.lh[:].frequency.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.lh[:].frequency.value

Value

  • Units: Hz
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.lh[:].n_parallel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.lh[:].n_parallel.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.lh[:].position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.lh[:].position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.lh[:].power.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.lh[:].power.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.lh[:].power_launched.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.lh[:].power_launched.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.nbi[:].angle.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].angle.value

Value

  • Units: rad
  • Data Type: FLT_0D
summary.heating_current_drive.nbi[:].beam_current_fraction.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].beam_current_fraction.value

Value

  • Data Type: FLT_2D
  • Coordinates: ["1...3", "summary.time"]
summary.heating_current_drive.nbi[:].beam_power_fraction.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].beam_power_fraction.value

Value

  • Data Type: FLT_2D
  • Coordinates: ["1...3", "summary.time"]
summary.heating_current_drive.nbi[:].current.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].current.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.nbi[:].direction.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].direction.value

Value

  • Data Type: INT_0D
summary.heating_current_drive.nbi[:].energy.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].energy.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.nbi[:].position.phi.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].position.phi.value

Value

  • Units: rad
  • Data Type: FLT_0D
summary.heating_current_drive.nbi[:].position.r.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].position.r.value

Value

  • Units: m
  • Data Type: FLT_0D
summary.heating_current_drive.nbi[:].position.z.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].position.z.value

Value

  • Units: m
  • Data Type: FLT_0D
summary.heating_current_drive.nbi[:].power.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].power.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.nbi[:].power_launched.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].power_launched.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.nbi[:].species.a.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].species.a.value

Value

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
summary.heating_current_drive.nbi[:].species.label.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].species.label.value

Value

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].species.z_n.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].species.z_n.value

Value

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
summary.heating_current_drive.nbi[:].tangency_radius.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.nbi[:].tangency_radius.value

Value

  • Units: m
  • Data Type: FLT_0D
summary.heating_current_drive.power_additional.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_additional.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_ec.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_ec.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_ic.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_ic.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_launched_ec.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_launched_ec.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_launched_ic.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_launched_ic.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_launched_lh.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_launched_lh.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_launched_nbi.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_launched_nbi.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_launched_nbi_co_injected_ratio.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_launched_nbi_co_injected_ratio.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_launched_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_launched_total.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_lh.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_lh.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.heating_current_drive.power_nbi.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.heating_current_drive.power_nbi.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
summary.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
summary.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
summary.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
summary.ids_properties.occurrence

N/A

  • Data Type: INT_0D
summary.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
summary.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
summary.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
summary.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
summary.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
summary.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
summary.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
summary.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
summary.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
summary.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
summary.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
summary.kicks.occurrence.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.kicks.occurrence.value

Value

  • Data Type: INT_0D
summary.limiter.material.description

Verbose description

  • Data Type: STR_0D
summary.limiter.material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
summary.limiter.material.name

Short string identifier

  • Data Type: STR_0D
summary.line_average.dn_e_dt.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.dn_e_dt.value

Value

  • Units: m^-3.s-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.isotope_fraction_hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.isotope_fraction_hydrogen.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.meff_hydrogenic.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.meff_hydrogenic.value

Value

  • Units: amu
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.line_average.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.line_average.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].flux_expansion.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].flux_expansion.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].name.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].name.value

Value

  • Data Type: STR_0D
summary.local.divertor_target[:].power_flux_peak.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].power_flux_peak.value

Value

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.divertor_target[:].zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.divertor_target[:].zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.e_field_parallel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.e_field_parallel.value

Value

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.magnetic_shear.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.magnetic_shear.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.momentum_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.momentum_tor.value

Value

  • Units: kg.m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.position.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under globalquantities/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.q.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.q.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.argon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.beryllium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.carbon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.deuterium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.helium_3.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.helium_4.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.hydrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.iron.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.krypton.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.lithium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.neon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.nitrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.oxygen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.tritium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.tungsten.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.velocity_tor.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.velocity_tor.xenon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.itb.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.itb.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.flux_expansion.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.flux_expansion.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.name.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.name.value

Value

  • Data Type: STR_0D
summary.local.limiter.power_flux_peak.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.power_flux_peak.value

Value

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.limiter.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.limiter.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.b_field.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.b_field.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.e_field_parallel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.e_field_parallel.value

Value

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.magnetic_shear.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.magnetic_shear.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.momentum_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.momentum_tor.value

Value

  • Units: kg.m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.position.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under globalquantities/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.q.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.q.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.argon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.beryllium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.carbon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.deuterium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.helium_3.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.helium_4.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.hydrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.iron.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.krypton.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.lithium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.neon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.nitrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.oxygen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.tritium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.tungsten.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.velocity_tor.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.velocity_tor.xenon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.magnetic_axis.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.magnetic_axis.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.e_field_parallel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.e_field_parallel.value

Value

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.magnetic_shear.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.magnetic_shear.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.momentum_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.momentum_tor.value

Value

  • Units: kg.m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.position.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under globalquantities/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.q.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.q.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.argon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.beryllium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.carbon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.deuterium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.helium_3.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.helium_4.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.hydrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.iron.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.krypton.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.lithium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.neon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.nitrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.oxygen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.tritium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.tungsten.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.velocity_tor.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.velocity_tor.xenon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.pedestal.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.pedestal.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.r_eff_norm_2_3.effective_helical_ripple.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.r_eff_norm_2_3.effective_helical_ripple.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.r_eff_norm_2_3.iota.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.r_eff_norm_2_3.iota.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.r_eff_norm_2_3.plateau_factor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.r_eff_norm_2_3.plateau_factor.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.e_field_parallel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.e_field_parallel.value

Value

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.magnetic_shear.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.magnetic_shear.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.momentum_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.momentum_tor.value

Value

  • Units: kg.m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.position.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under globalquantities/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.q.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.q.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.argon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.beryllium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.carbon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.deuterium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.helium_3.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.helium_4.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.hydrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.iron.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.krypton.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.lithium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.neon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.nitrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.oxygen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.tritium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.tungsten.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.velocity_tor.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.velocity_tor.xenon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.e_field_parallel.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.e_field_parallel.value

Value

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.magnetic_shear.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.magnetic_shear.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.momentum_tor.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.momentum_tor.value

Value

  • Units: kg.m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.position.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.position.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under globalquantities/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.position.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.q.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.q.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.argon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.beryllium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.carbon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.deuterium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.helium_3.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.helium_4.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.hydrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.iron.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.krypton.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.lithium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.neon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.nitrogen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.oxygen.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.tritium.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.tungsten.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.velocity_tor.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.velocity_tor.xenon.value

Value

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.local.separatrix_average.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.local.separatrix_average.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.magnetic_shear_flag.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.magnetic_shear_flag.value

Value

  • Data Type: INT_0D
summary.midplane.description

Verbose description

  • Data Type: STR_0D
summary.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
summary.midplane.name

Short string identifier

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_pedestal_top_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_pedestal_top_hfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.b_field_pedestal_top_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_pedestal_top_lfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.b_field_pol_pedestal_top_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_pol_pedestal_top_average.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.b_field_pol_pedestal_top_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_pol_pedestal_top_hfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.b_field_pol_pedestal_top_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_pol_pedestal_top_lfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.b_field_tor_pedestal_top_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_tor_pedestal_top_hfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.b_field_tor_pedestal_top_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.b_field_tor_pedestal_top_lfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.beta_pol_pedestal_top_electron_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.beta_pol_pedestal_top_electron_average.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.beta_pol_pedestal_top_electron_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.beta_pol_pedestal_top_electron_hfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.beta_pol_pedestal_top_electron_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.beta_pol_pedestal_top_electron_lfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.coulomb_factor_pedestal_top.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.coulomb_factor_pedestal_top.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.energy_thermal_pedestal_electron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.energy_thermal_pedestal_electron.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.energy_thermal_pedestal_ion.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.energy_thermal_pedestal_ion.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.n_e.d_dpsi_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.n_e.d_dpsi_norm.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.n_e.d_dpsi_norm_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.n_e.d_dpsi_norm_max.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.n_e.offset.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.n_e.offset.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.n_e.pedestal_height.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.n_e.pedestal_height.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.n_e.pedestal_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.n_e.pedestal_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.n_e.pedestal_width.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.n_e.pedestal_width.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.n_e.separatrix.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.n_e.separatrix.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.nustar_pedestal_top_electron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.nustar_pedestal_top_electron.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.parameters

Parameters of the fit

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...5"]
summary.pedestal_fits.linear.pressure_electron.d_dpsi_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.d_dpsi_norm.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.pressure_electron.d_dpsi_norm_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.d_dpsi_norm_max.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.pressure_electron.d_dpsi_norm_max_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.d_dpsi_norm_max_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.pressure_electron.offset.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.offset.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.pressure_electron.pedestal_height.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.pedestal_height.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.pressure_electron.pedestal_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.pedestal_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.pressure_electron.pedestal_width.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.pedestal_width.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.pressure_electron.separatrix.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.pressure_electron.separatrix.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.rhostar_pedestal_top_electron_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.rhostar_pedestal_top_electron_hfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.rhostar_pedestal_top_electron_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.rhostar_pedestal_top_electron_lfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.rhostar_pedestal_top_electron_magnetic_axis.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.rhostar_pedestal_top_electron_magnetic_axis.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.t_e.d_dpsi_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.t_e.d_dpsi_norm.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.t_e.d_dpsi_norm_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.t_e.d_dpsi_norm_max.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.t_e.offset.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.t_e.offset.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.t_e.pedestal_height.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.t_e.pedestal_height.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.t_e.pedestal_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.t_e.pedestal_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.t_e.pedestal_width.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.t_e.pedestal_width.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.linear.volume_inside_pedestal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.linear.volume_inside_pedestal.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.alpha_electron_pedestal_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.alpha_electron_pedestal_max.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.alpha_electron_pedestal_max_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.alpha_electron_pedestal_max_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.b_field_pedestal_top_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.b_field_pedestal_top_hfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.b_field_pedestal_top_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.b_field_pedestal_top_lfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.b_field_pol_pedestal_top_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.b_field_pol_pedestal_top_average.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.b_field_pol_pedestal_top_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.b_field_pol_pedestal_top_hfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.b_field_pol_pedestal_top_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.b_field_pol_pedestal_top_lfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.b_field_tor_pedestal_top_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.b_field_tor_pedestal_top_hfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.b_field_tor_pedestal_top_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.b_field_tor_pedestal_top_lfs.value

Value

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.beta_pol_pedestal_top_electron_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.beta_pol_pedestal_top_electron_average.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.beta_pol_pedestal_top_electron_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.beta_pol_pedestal_top_electron_hfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.beta_pol_pedestal_top_electron_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.beta_pol_pedestal_top_electron_lfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.coulomb_factor_pedestal_top.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.coulomb_factor_pedestal_top.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.energy_thermal_pedestal_electron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.energy_thermal_pedestal_electron.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.energy_thermal_pedestal_ion.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.energy_thermal_pedestal_ion.value

Value

  • Units: J
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.d_dpsi_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.d_dpsi_norm.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.d_dpsi_norm_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.d_dpsi_norm_max.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.d_dpsi_norm_max_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.d_dpsi_norm_max_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.offset.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.offset.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.pedestal_height.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.pedestal_height.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.pedestal_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.pedestal_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.pedestal_width.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.pedestal_width.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.n_e.separatrix.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.n_e.separatrix.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.nustar_pedestal_top_electron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.nustar_pedestal_top_electron.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.parameters

Parameters of the fit

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...5"]
summary.pedestal_fits.mtanh.pressure_electron.d_dpsi_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.d_dpsi_norm.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.pressure_electron.d_dpsi_norm_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.d_dpsi_norm_max.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.pressure_electron.d_dpsi_norm_max_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.d_dpsi_norm_max_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.pressure_electron.offset.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.offset.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.pressure_electron.pedestal_height.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.pedestal_height.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.pressure_electron.pedestal_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.pedestal_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.pressure_electron.pedestal_width.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.pedestal_width.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.pressure_electron.separatrix.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.pressure_electron.separatrix.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.rhostar_pedestal_top_electron_hfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.rhostar_pedestal_top_electron_hfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.rhostar_pedestal_top_electron_lfs.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.rhostar_pedestal_top_electron_lfs.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.rhostar_pedestal_top_electron_magnetic_axis.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.rhostar_pedestal_top_electron_magnetic_axis.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.stability.alpha_experimental.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.stability.alpha_experimental.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.stability.bootstrap_current_hager.alpha_critical.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.stability.bootstrap_current_hager.alpha_critical.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.stability.bootstrap_current_hager.alpha_ratio.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.stability.bootstrap_current_hager.alpha_ratio.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.stability.bootstrap_current_hager.t_e_pedestal_top_critical.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.stability.bootstrap_current_hager.t_e_pedestal_top_critical.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.stability.bootstrap_current_sauter.alpha_critical.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.stability.bootstrap_current_sauter.alpha_critical.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.stability.bootstrap_current_sauter.alpha_ratio.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.stability.bootstrap_current_sauter.alpha_ratio.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.stability.bootstrap_current_sauter.t_e_pedestal_top_critical.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.stability.bootstrap_current_sauter.t_e_pedestal_top_critical.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.t_e.d_dpsi_norm.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.t_e.d_dpsi_norm.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.t_e.d_dpsi_norm_max.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.t_e.d_dpsi_norm_max.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.t_e.d_dpsi_norm_max_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.t_e.d_dpsi_norm_max_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.t_e.offset.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.t_e.offset.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.t_e.pedestal_height.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.t_e.pedestal_height.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.t_e.pedestal_position.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.t_e.pedestal_position.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.t_e.pedestal_width.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.t_e.pedestal_width.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pedestal_fits.mtanh.volume_inside_pedestal.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pedestal_fits.mtanh.volume_inside_pedestal.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.pellets.occurrence.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.pellets.occurrence.value

Value

  • Data Type: INT_0D
summary.plasma_duration.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.plasma_duration.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.rmps.occurrence.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.rmps.occurrence.value

Value

  • Data Type: INT_0D
summary.runaways.current.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.runaways.current.value

Value

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.runaways.particles.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.runaways.particles.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.heat_flux_e_decay_length.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.heat_flux_e_decay_length.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.heat_flux_i_decay_length.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.heat_flux_i_decay_length.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.n_e_decay_length.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.n_e_decay_length.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.n_i_total_decay_length.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.n_i_total_decay_length.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.power_radiated.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.power_radiated.value

Value

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.pressure_neutral.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.pressure_neutral.value

Value

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.t_e_decay_length.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.t_e_decay_length.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.scrape_off_layer.t_i_average_decay_length.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.scrape_off_layer.t_i_average_decay_length.value

Value

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.stationary_phase_flag.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.stationary_phase_flag.value

Value

  • Data Type: INT_1D
  • Coordinates: ["summary.time"]
summary.tag.comment

Any comment describing the content of the tagged list of entries

  • Data Type: STR_0D
summary.tag.name

Name of the tag

  • Data Type: STR_0D
summary.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
summary.time_breakdown.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.time_breakdown.value

Value

  • Units: s
  • Data Type: FLT_0D
summary.time_width

In case the time-dependent quantities of this IDS are averaged over a time interval, this node is the width of this time interval (empty otherwise). By convention, the time interval starts at time-time_width and ends at time.

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.dn_e_dt.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.dn_e_dt.value

Value

  • Units: m^-3.s-1
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.isotope_fraction_hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.isotope_fraction_hydrogen.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.meff_hydrogenic.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.meff_hydrogenic.value

Value

  • Units: amu
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_e.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.argon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.argon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.beryllium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.beryllium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.carbon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.carbon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.deuterium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.deuterium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.helium_3.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.helium_3.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.helium_4.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.helium_4.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.hydrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.hydrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.iron.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.iron.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.krypton.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.krypton.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.lithium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.lithium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.neon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.neon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.nitrogen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.nitrogen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.oxygen.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.oxygen.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.tritium.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.tritium.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.tungsten.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.tungsten.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i.xenon.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i.xenon.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.n_i_total.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.n_i_total.value

Value

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.t_e.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.t_e.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.t_i_average.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.t_i_average.value

Value

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.volume_average.zeff.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.volume_average.zeff.value

Value

  • Data Type: FLT_1D
  • Coordinates: ["summary.time"]
summary.wall.evaporation.source

Source of the data (any comment describing the origin of the data : code, path to diagnostic signals, processing method, ...)

  • Data Type: STR_0D
summary.wall.evaporation.value

Value

  • Data Type: STR_0D
summary.wall.material.description

Verbose description

  • Data Type: STR_0D
summary.wall.material.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
summary.wall.material.name

Short string identifier

  • Data Type: STR_0D
temporary.code.commit

Unique commit reference of software

  • Data Type: STR_0D
temporary.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
temporary.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
temporary.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
temporary.code.library[:].name

Name of software

  • Data Type: STR_0D
temporary.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
temporary.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
temporary.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
temporary.code.name

Name of software generating IDS

  • Data Type: STR_0D
temporary.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["temporary.time"]
temporary.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
temporary.code.repository

URL of software repository

  • Data Type: STR_0D
temporary.code.version

Unique version (tag) of software

  • Data Type: STR_0D
temporary.constant_float0d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_float0d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_float0d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_float0d[:].value

Value

  • Data Type: FLT_0D
temporary.constant_float1d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_float1d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_float1d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_float1d[:].value

Value

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.constant_float2d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_float2d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_float2d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_float2d[:].value

Value

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
temporary.constant_float3d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_float3d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_float3d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_float3d[:].value

Value

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "1...N"]
temporary.constant_float4d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_float4d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_float4d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_float4d[:].value

Value

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["1...N", "1...N", "1...N", "1...N"]
temporary.constant_float5d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_float5d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_float5d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_float5d[:].value

Value

  • Units: mixed
  • Data Type: FLT_5D
  • Coordinates: ["1...N", "1...N", "1...N", "1...N", "1...N"]
temporary.constant_float6d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_float6d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_float6d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_float6d[:].value

Value

  • Units: mixed
  • Data Type: FLT_6D
  • Coordinates: ["1...N", "1...N", "1...N", "1...N", "1...N", "1...N"]
temporary.constant_integer0d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_integer0d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_integer0d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_integer0d[:].value

Value

  • Data Type: INT_0D
temporary.constant_integer1d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_integer1d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_integer1d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_integer1d[:].value

Value

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
temporary.constant_integer2d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_integer2d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_integer2d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_integer2d[:].value

Value

  • Data Type: INT_2D
  • Coordinates: ["1...N", "1...N"]
temporary.constant_integer3d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_integer3d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_integer3d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_integer3d[:].value

Value

  • Data Type: INT_3D
  • Coordinates: ["1...N", "1...N", "1...N"]
temporary.constant_string0d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_string0d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_string0d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_string0d[:].value

Value

  • Data Type: STR_0D
temporary.constant_string1d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.constant_string1d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.constant_string1d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.constant_string1d[:].value

Value

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
temporary.dynamic_float1d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_float1d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_float1d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_float1d[:].value.data

Data

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["temporary.dynamic_float1d[:].value.time"]
temporary.dynamic_float1d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_float2d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_float2d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_float2d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_float2d[:].value.data

Data

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "temporary.dynamic_float2d[:].value.time"]
temporary.dynamic_float2d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_float3d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_float3d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_float3d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_float3d[:].value.data

Data

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "temporary.dynamic_float3d[:].value.time"]
temporary.dynamic_float3d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_float4d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_float4d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_float4d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_float4d[:].value.data

Data

  • Units: mixed
  • Data Type: FLT_4D
  • Coordinates: ["1...N", "1...N", "1...N", "temporary.dynamic_float4d[:].value.time"]
temporary.dynamic_float4d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_float5d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_float5d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_float5d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_float5d[:].value.data

Data

  • Units: mixed
  • Data Type: FLT_5D
  • Coordinates: ["1...N", "1...N", "1...N", "1...N", "temporary.dynamic_float5d[:].value.time"]
temporary.dynamic_float5d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_float6d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_float6d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_float6d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_float6d[:].value.data

Data

  • Units: mixed
  • Data Type: FLT_6D
  • Coordinates: ["1...N", "1...N", "1...N", "1...N", "1...N", "temporary.dynamic_float6d[:].value.time"]
temporary.dynamic_float6d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_integer1d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_integer1d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_integer1d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_integer1d[:].value.data

Data

  • Data Type: INT_1D
  • Coordinates: ["temporary.dynamic_integer1d[:].value.time"]
temporary.dynamic_integer1d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_integer2d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_integer2d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_integer2d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_integer2d[:].value.data

Data

  • Data Type: INT_2D
  • Coordinates: ["1...N", "temporary.dynamic_integer2d[:].value.time"]
temporary.dynamic_integer2d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.dynamic_integer3d[:].identifier.description

Verbose description

  • Data Type: STR_0D
temporary.dynamic_integer3d[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.dynamic_integer3d[:].identifier.name

Short string identifier

  • Data Type: STR_0D
temporary.dynamic_integer3d[:].value.data

Data

  • Data Type: INT_3D
  • Coordinates: ["1...N", "1...N", "temporary.dynamic_integer3d[:].value.time"]
temporary.dynamic_integer3d[:].value.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
temporary.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
temporary.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
temporary.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
temporary.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
temporary.ids_properties.occurrence

N/A

  • Data Type: INT_0D
temporary.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
temporary.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
temporary.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
temporary.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
temporary.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
temporary.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
temporary.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
temporary.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
temporary.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
temporary.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
temporary.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
temporary.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.b_field_tor_vacuum_r.data

Data

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["tf.b_field_tor_vacuum_r.time"]
tf.b_field_tor_vacuum_r.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.code.commit

Unique commit reference of software

  • Data Type: STR_0D
tf.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
tf.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
tf.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
tf.code.library[:].name

Name of software

  • Data Type: STR_0D
tf.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
tf.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
tf.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
tf.code.name

Name of software generating IDS

  • Data Type: STR_0D
tf.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["tf.time"]
tf.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
tf.code.repository

URL of software repository

  • Data Type: STR_0D
tf.code.version

Unique version (tag) of software

  • Data Type: STR_0D
tf.coil[:].conductor[:].cross_section.delta_phi

Toroidal angles (relative to a reference point)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].cross_section.delta_r"]
tf.coil[:].conductor[:].cross_section.delta_r

Major radii (relative to a reference point)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].conductor[:].cross_section.delta_z

Heights (relative to a reference point)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].cross_section.delta_r"]
tf.coil[:].conductor[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].current.time"]
tf.coil[:].conductor[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].conductor[:].elements.centres.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.centres.r"]
tf.coil[:].conductor[:].elements.centres.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].conductor[:].elements.centres.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.centres.r"]
tf.coil[:].conductor[:].elements.end_points.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.end_points.r"]
tf.coil[:].conductor[:].elements.end_points.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].conductor[:].elements.end_points.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.end_points.r"]
tf.coil[:].conductor[:].elements.intermediate_points.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.intermediate_points.r"]
tf.coil[:].conductor[:].elements.intermediate_points.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].conductor[:].elements.intermediate_points.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.intermediate_points.r"]
tf.coil[:].conductor[:].elements.names

Name or description of every element

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
tf.coil[:].conductor[:].elements.start_points.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.start_points.r"]
tf.coil[:].conductor[:].elements.start_points.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].conductor[:].elements.start_points.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.start_points.r"]
tf.coil[:].conductor[:].elements.types

Type of every element: 1: line segment, its ends are given by the start and end points; index = 2: arc of a circle; index = 3: full circle

  • Data Type: INT_1D
  • Coordinates: ["tf.coil[:].conductor[:].elements.names"]
tf.coil[:].conductor[:].resistance

conductor resistance

  • Units: Ohm
  • Data Type: FLT_0D
tf.coil[:].conductor[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].conductor[:].voltage.time"]
tf.coil[:].conductor[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].current.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].current.time"]
tf.coil[:].current.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coil[:].identifier

Alphanumeric identifier of coil used for convenience

  • Data Type: STR_0D
tf.coil[:].name

Name of the coil

  • Data Type: STR_0D
tf.coil[:].resistance

Coil resistance

  • Units: Ohm
  • Data Type: FLT_0D
tf.coil[:].turns

Number of total turns in a toroidal field coil. May be a fraction when describing the coil connections.

  • Data Type: FLT_0D
tf.coil[:].voltage.data

Data

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["tf.coil[:].voltage.time"]
tf.coil[:].voltage.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.coils_n

Number of coils around the torus, in case is_periodic = 1

  • Data Type: INT_0D
tf.delta_b_field_tor_vacuum_r.data

Data

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["tf.delta_b_field_tor_vacuum_r.time"]
tf.delta_b_field_tor_vacuum_r.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].a_field_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["tf.field_map[:].a_field_r[:].values", "1...N"]
tf.field_map[:].a_field_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
tf.field_map[:].a_field_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
tf.field_map[:].a_field_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].a_field_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["tf.field_map[:].a_field_tor[:].values", "1...N"]
tf.field_map[:].a_field_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
tf.field_map[:].a_field_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
tf.field_map[:].a_field_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].a_field_z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["tf.field_map[:].a_field_z[:].values", "1...N"]
tf.field_map[:].a_field_z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
tf.field_map[:].a_field_z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
tf.field_map[:].a_field_z[:].values

One scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].b_field_r[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["tf.field_map[:].b_field_r[:].values", "1...N"]
tf.field_map[:].b_field_r[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
tf.field_map[:].b_field_r[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
tf.field_map[:].b_field_r[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].b_field_tor[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["tf.field_map[:].b_field_tor[:].values", "1...N"]
tf.field_map[:].b_field_tor[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
tf.field_map[:].b_field_tor[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
tf.field_map[:].b_field_tor[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].b_field_z[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: FLT_2D
  • Coordinates: ["tf.field_map[:].b_field_z[:].values", "1...N"]
tf.field_map[:].b_field_z[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
tf.field_map[:].b_field_z[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
tf.field_map[:].b_field_z[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].grid.grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["tf.field_map[:].grid.grid_subset[:].element"]
tf.field_map[:].grid.grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["tf.field_map[:].grid.grid_subset[:].element", "1...N", "1...N"]
tf.field_map[:].grid.grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["tf.field_map[:].grid.grid_subset[:].element", "1...N", "1...N"]
tf.field_map[:].grid.grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
tf.field_map[:].grid.grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
tf.field_map[:].grid.grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
tf.field_map[:].grid.grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
tf.field_map[:].grid.grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
tf.field_map[:].grid.grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
tf.field_map[:].grid.grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
tf.field_map[:].grid.grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["tf.field_map[:].grid.grid_subset[:].element"]
tf.field_map[:].grid.grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["tf.field_map[:].grid.grid_subset[:].element", "1...N", "1...N"]
tf.field_map[:].grid.grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["tf.field_map[:].grid.grid_subset[:].element", "1...N", "1...N"]
tf.field_map[:].grid.identifier.description

Verbose description

  • Data Type: STR_0D
tf.field_map[:].grid.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
tf.field_map[:].grid.identifier.name

Short string identifier

  • Data Type: STR_0D
tf.field_map[:].grid.path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: 'wall:0/descriptionggd(1)/gridggd', means that the grid is located in the wall IDS, occurrence 0, with ids path 'descriptionggd(1)/gridggd'. See the link below for more details about IDS paths

  • Data Type: STR_0D
tf.field_map[:].grid.space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].grid.space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
tf.field_map[:].grid.space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
tf.field_map[:].grid.space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
tf.field_map[:].grid.space[:].identifier.description

Verbose description

  • Data Type: STR_0D
tf.field_map[:].grid.space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
tf.field_map[:].grid.space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
tf.field_map[:].grid.space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
tf.field_map[:].grid.space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
tf.field_map[:].grid.space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
tf.field_map[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
tf.field_map[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].grid.space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].grid.space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
tf.field_map[:].grid.space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
tf.field_map[:].grid.space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
tf.field_map[:].time

Time

  • Units: s
  • Data Type: FLT_0D
tf.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
tf.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
tf.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
tf.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
tf.ids_properties.occurrence

N/A

  • Data Type: INT_0D
tf.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
tf.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
tf.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
tf.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
tf.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
tf.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
tf.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
tf.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
tf.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
tf.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
tf.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
tf.is_periodic

Flag indicating whether coils are described one by one in the coil() structure (flag=0) or whether the coil structure represents only coils having different characteristics (flag = 1, n_coils must be filled in that case). In the latter case, the coil() sequence is repeated periodically around the torus.

  • Data Type: INT_0D
tf.latency

Upper bound of the delay between input command received from the RT network and actuator starting to react. Applies globally to the system described by this IDS unless specific latencies (e.g. channel-specific or antenna-specific) are provided at a deeper level in the IDS structure.

  • Units: s
  • Data Type: FLT_0D
tf.r0

Reference major radius of the device (from the official description of the device). This node is the placeholder for this official machine description quantity (typically the middle of the vessel at the equatorial midplane, although the exact definition may depend on the device)

  • Units: m
  • Data Type: FLT_0D
tf.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
thomson_scattering.channel[:].delta_position.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["thomson_scattering.channel[:].delta_position.time"]
thomson_scattering.channel[:].delta_position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["thomson_scattering.channel[:].delta_position.time"]
thomson_scattering.channel[:].delta_position.time

Time for the R,Z,phi coordinates

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
thomson_scattering.channel[:].delta_position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["thomson_scattering.channel[:].delta_position.time"]
thomson_scattering.channel[:].distance_separatrix_midplane.data

Data

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["thomson_scattering.channel[:].distance_separatrix_midplane.time"]
thomson_scattering.channel[:].distance_separatrix_midplane.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
thomson_scattering.channel[:].identifier

ID of the channel

  • Data Type: STR_0D
thomson_scattering.channel[:].n_e.data

Data

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["thomson_scattering.channel[:].n_e.time"]
thomson_scattering.channel[:].n_e.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
thomson_scattering.channel[:].name

Name of the channel

  • Data Type: STR_0D
thomson_scattering.channel[:].position.phi

Toroidal angle (oriented counter-clockwise when viewing from above)

  • Units: rad
  • Data Type: FLT_0D
thomson_scattering.channel[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_0D
thomson_scattering.channel[:].position.z

Height

  • Units: m
  • Data Type: FLT_0D
thomson_scattering.channel[:].t_e.data

Data

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["thomson_scattering.channel[:].t_e.time"]
thomson_scattering.channel[:].t_e.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
thomson_scattering.code.commit

Unique commit reference of software

  • Data Type: STR_0D
thomson_scattering.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
thomson_scattering.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
thomson_scattering.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
thomson_scattering.code.library[:].name

Name of software

  • Data Type: STR_0D
thomson_scattering.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
thomson_scattering.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
thomson_scattering.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
thomson_scattering.code.name

Name of software generating IDS

  • Data Type: STR_0D
thomson_scattering.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["thomson_scattering.time"]
thomson_scattering.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
thomson_scattering.code.repository

URL of software repository

  • Data Type: STR_0D
thomson_scattering.code.version

Unique version (tag) of software

  • Data Type: STR_0D
thomson_scattering.equilibrium_id.data_entry.machine

Name of the experimental device to which this data is related

  • Data Type: STR_0D
thomson_scattering.equilibrium_id.data_entry.pulse

Pulse number

  • Data Type: INT_0D
thomson_scattering.equilibrium_id.data_entry.pulse_type

Type of the data entry, e.g. "pulse", "simulation", ...

  • Data Type: STR_0D
thomson_scattering.equilibrium_id.data_entry.run

Run number

  • Data Type: INT_0D
thomson_scattering.equilibrium_id.data_entry.user

Username

  • Data Type: STR_0D
thomson_scattering.equilibrium_id.name

IDS name

  • Data Type: STR_0D
thomson_scattering.equilibrium_id.occurrence

IDS occurrence

  • Data Type: INT_0D
thomson_scattering.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
thomson_scattering.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
thomson_scattering.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
thomson_scattering.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
thomson_scattering.ids_properties.occurrence

N/A

  • Data Type: INT_0D
thomson_scattering.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
thomson_scattering.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
thomson_scattering.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
thomson_scattering.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
thomson_scattering.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
thomson_scattering.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
thomson_scattering.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
thomson_scattering.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
thomson_scattering.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
thomson_scattering.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
thomson_scattering.latency

Upper bound of the delay between physical information received by the detector and data available on the real-time (RT) network.

  • Units: s
  • Data Type: FLT_0D
thomson_scattering.midplane.description

Verbose description

  • Data Type: STR_0D
thomson_scattering.midplane.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
thomson_scattering.midplane.name

Short string identifier

  • Data Type: STR_0D
thomson_scattering.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.boundary_conditions_1d[:].current.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].current.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].current.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].current.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].current.value

Value of the boundary condition. For ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].electrons.energy.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.energy.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.energy.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.energy.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.energy.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].electrons.particles.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.particles.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.particles.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.particles.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].electrons.particles.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].energy_ion_total.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].energy_ion_total.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].energy_ion_total.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].energy_ion_total.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].energy_ion_total.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].ion[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].energy.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].energy.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].energy.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].energy.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].energy.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].particles.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].particles.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].particles.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].particles.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].particles.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].energy.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].energy.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].energy.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].energy.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].energy.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].is_neutral

Flag specifying if this state corresponds to a neutral (1) or not (0)

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].particles.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].particles.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].particles.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].particles.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].particles.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].ion[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].momentum_tor.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].momentum_tor.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_1d[:].momentum_tor.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_1d[:].momentum_tor.rho_tor_norm

Position, in normalised toroidal flux, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed.

  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_1d[:].momentum_tor.value

Value of the boundary condition. For ID = 1 to 4, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.boundary_conditions_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].current[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].current[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].current[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].current[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].current[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].current[:].values

List of vector components, one list per element in the grid subset. First dimenstion: element index. Second dimension: vector component index (for ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3)

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].electrons.energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.energy[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.energy[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.energy[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.energy[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.energy[:].values

List of vector components, one list per element in the grid subset. First dimenstion: element index. Second dimension: vector component index (for ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3)

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].electrons.particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.particles[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.particles[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.particles[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.particles[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].electrons.particles[:].values

List of vector components, one list per element in the grid subset. First dimenstion: element index. Second dimension: vector component index (for ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3)

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["transport_solver_numerics.boundary_conditions_ggd[:].grid.grid_subset[:].element", "1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: 'wall:0/descriptionggd(1)/gridggd', means that the grid is located in the wall IDS, occurrence 0, with ids path 'descriptionggd(1)/gridggd'. See the link below for more details about IDS paths

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].grid.space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].energy[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].energy[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].energy[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].energy[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].energy[:].values

List of vector components, one list per element in the grid subset. First dimenstion: element index. Second dimension: vector component index (for ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3)

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].particles[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].particles[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].particles[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].particles[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].particles[:].values

List of vector components, one list per element in the grid subset. First dimenstion: element index. Second dimension: vector component index (for ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3)

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].energy[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].energy[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].energy[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].energy[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].energy[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].energy[:].values

List of vector components, one list per element in the grid subset. First dimenstion: element index. Second dimension: vector component index (for ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3)

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].is_neutral

Flag specifying if this state corresponds to a neutral (1) or not (0)

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].particles[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].particles[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].particles[:].identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].particles[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].particles[:].identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].particles[:].values

List of vector components, one list per element in the grid subset. First dimenstion: element index. Second dimension: vector component index (for ID = 1 to 3, only the first position in the vector is used. For ID = 5, all three positions are used, meaning respectively a1, a2, a3)

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].ion[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.boundary_conditions_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
transport_solver_numerics.code.commit

Unique commit reference of software

  • Data Type: STR_0D
transport_solver_numerics.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
transport_solver_numerics.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
transport_solver_numerics.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
transport_solver_numerics.code.library[:].name

Name of software

  • Data Type: STR_0D
transport_solver_numerics.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
transport_solver_numerics.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
transport_solver_numerics.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
transport_solver_numerics.code.name

Name of software generating IDS

  • Data Type: STR_0D
transport_solver_numerics.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["transport_solver_numerics.time"]
transport_solver_numerics.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
transport_solver_numerics.code.repository

URL of software repository

  • Data Type: STR_0D
transport_solver_numerics.code.version

Unique version (tag) of software

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].current.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].current.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].current.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].electrons.energy.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].electrons.energy.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].electrons.energy.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].electrons.particles.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].electrons.particles.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].electrons.particles.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].energy_ion_total.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].energy_ion_total.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].energy_ion_total.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].energy.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].energy.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].energy.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].particles.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].particles.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].particles.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].energy.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].energy.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].energy.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].is_neutral

Flag specifying if this state corresponds to a neutral (1) or not (0)

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].particles.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].particles.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].particles.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].ion[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.convergence.equations[:].time

Time

  • Units: s
  • Data Type: FLT_0D
transport_solver_numerics.convergence.time_step.data

Data

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.convergence.time_step.time"]
transport_solver_numerics.convergence.time_step.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.derivatives_1d[:].d2_drho_tor_norm2.n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].d2_drho_tor_norm2.pressure_ion_total

Total thermal ion pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].d2psi_drho_tor2

Second derivative of the poloidal flux profile with respect to the toroidal flux coordinate

  • Units: Wb.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].d_drho_tor_norm.n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].d_drho_tor_norm.pressure_ion_total

Total thermal ion pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].d_dt.n_i_total_over_n_e

Ratio of total ion density (sum over species and charge states) over electron density. (thermal+non-thermal)

  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].d_dt.pressure_ion_total

Total thermal ion pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].d_dvolume_drho_tor_dt

Partial derivative with respect to time of the derivative of the volume with respect to the toroidal flux coordinate

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].dpsi_drho_tor

Derivative of the poloidal flux profile with respect to the toroidal flux coordinate

  • Units: Wb.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].dpsi_dt

Derivative of the poloidal flux profile with respect to time

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].dpsi_dt_cphi

Derivative of the poloidal flux profile with respect to time, at constant toroidal flux

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].dpsi_dt_crho_tor_norm

Derivative of the poloidal flux profile with respect to time, at constant normalised toroidal flux coordinate

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].drho_tor_dt

Partial derivative of the toroidal flux coordinate profile with respect to time

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.pressure

Pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.velocity_pol

Poloidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d2_drho_tor_norm2.velocity_tor

Toroidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.pressure

Pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.velocity_pol

Poloidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_drho_tor_norm.velocity_tor

Toroidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.pressure

Pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.velocity_pol

Poloidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].electrons.d_dt.velocity_tor

Toroidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.derivatives_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.pressure

Pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.pressure_fast_parallel

Fast (non-thermal) parallel pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.velocity_pol

Poloidal velocity (average over charge states when multiple charge states are considered)

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d2_drho_tor_norm2.velocity_tor

Toroidal velocity (average over charge states when multiple charge states are considered)

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.pressure

Pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.pressure_fast_parallel

Fast (non-thermal) parallel pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.velocity_pol

Poloidal velocity (average over charge states when multiple charge states are considered)

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_drho_tor_norm.velocity_tor

Toroidal velocity (average over charge states when multiple charge states are considered)

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.density_fast

Density of fast (non-thermal) particles (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.pressure

Pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.pressure_fast_parallel

Fast (non-thermal) parallel pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure (average over charge states when multiple charge states are considered)

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.velocity_pol

Poloidal velocity (average over charge states when multiple charge states are considered)

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].d_dt.velocity_tor

Toroidal velocity (average over charge states when multiple charge states are considered)

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
transport_solver_numerics.derivatives_1d[:].ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.pressure

Pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.velocity_pol

Poloidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d2_drho_tor_norm2.velocity_tor

Toroidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.pressure

Pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.velocity_pol

Poloidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_drho_tor_norm.velocity_tor

Toroidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.density_fast

Density of fast (non-thermal) particles

  • Units: m^-3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.pressure

Pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.pressure_fast_parallel

Fast (non-thermal) parallel pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.pressure_fast_perpendicular

Fast (non-thermal) perpendicular pressure

  • Units: Pa
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.temperature

Temperature

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.velocity_pol

Poloidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].d_dt.velocity_tor

Toroidal velocity

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.derivatives_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].is_neutral

Flag specifying if this state corresponds to a neutral (1) or not (0)

  • Data Type: INT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].ion[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
transport_solver_numerics.derivatives_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
transport_solver_numerics.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
transport_solver_numerics.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.occurrence

N/A

  • Data Type: INT_0D
transport_solver_numerics.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
transport_solver_numerics.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
transport_solver_numerics.primary_coordinate.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.primary_coordinate.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.primary_coordinate.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.restart_files[:].descriptions

Descriptions of the restart files

  • Data Type: STR_1D
  • Coordinates: ["transport_solver_numerics.restart_files[:].names"]
transport_solver_numerics.restart_files[:].names

Names of the restart files

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.restart_files[:].time

Time

  • Units: s
  • Data Type: FLT_0D
transport_solver_numerics.solver.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.solver.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.solver.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].control_parameters.integer0d[:].name

Name of the control parameter

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].control_parameters.integer0d[:].value

Value of the control parameter

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].control_parameters.real0d[:].name

Name of the control parameter

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].control_parameters.real0d[:].value

Value of the control parameter

  • Units: mixed
  • Data Type: FLT_0D
transport_solver_numerics.solver_1d[:].d_dvolume_drho_tor_dt

Partial derivative with respect to time of the derivative of the volume with respect to the toroidal flux coordinate

  • Units: m^2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].drho_tor_dt

Partial derivative of the toroidal flux coordinate profile with respect to time

  • Units: m.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].boundary_condition[:].position

Position, in terms of the primary coordinate, at which the boundary condition is imposed. Outside this position, the value of the data are considered to be prescribed (in case of a single boundary condition).

  • Units: mixed
  • Data Type: FLT_0D
transport_solver_numerics.solver_1d[:].equation[:].boundary_condition[:].type.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].equation[:].boundary_condition[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].equation[:].boundary_condition[:].type.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].equation[:].boundary_condition[:].value

Value of the boundary condition. For type/index = 1 to 3, only the first position in the vector is used. For type/index = 5, all three positions are used, meaning respectively a1, a2, a3.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...3"]
transport_solver_numerics.solver_1d[:].equation[:].coefficient[:].profile

Radial profile of the numerical coefficient

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].computation_mode.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].equation[:].computation_mode.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].equation[:].computation_mode.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].equation[:].convergence.delta_relative.expression

Expression used by the solver to calculate the relative deviation

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].equation[:].convergence.delta_relative.value

Value of the relative deviation

  • Data Type: FLT_0D
transport_solver_numerics.solver_1d[:].equation[:].convergence.iterations_n

Number of iterations carried out in the convergence loop

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.d2_dr2

Second order radial derivative with respect to the primary coordinate

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.d_dr

Radial derivative with respect to the primary coordinate

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.d_dt

Time derivative

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.d_dt_cphi

Derivative with respect to time, at constant toroidal flux (for current diffusion equation)

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.d_dt_cr

Derivative with respect to time, at constant primary coordinate coordinate (for current diffusion equation)

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.identifier.description

Verbose description

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.identifier.name

Short string identifier

  • Data Type: STR_0D
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.ion_index

If the primary quantity is related to a ion species, index of the corresponding species in the coreprofiles/profiles1d/ion array

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.neutral_index

If the primary quantity is related to a neutral species, index of the corresponding species in the coreprofiles/profiles1d/neutral array

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.profile

Profile of the primary quantity

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].equation[:].primary_quantity.state_index

If the primary quantity is related to a particular state (of an ion or a neutral species), index of the corresponding state in the coreprofiles/profiles1d/ion (or neutral)/state array

  • Data Type: INT_0D
transport_solver_numerics.solver_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
transport_solver_numerics.solver_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
transport_solver_numerics.solver_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.solver_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.solver_1d[:].grid.rho_tor_norm"]
transport_solver_numerics.solver_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
transport_solver_numerics.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.time_step.data

Data

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.time_step.time"]
transport_solver_numerics.time_step.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.time_step_average.data

Data

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.time_step_average.time"]
transport_solver_numerics.time_step_average.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.time_step_min.data

Data

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.time_step_min.time"]
transport_solver_numerics.time_step_min.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
transport_solver_numerics.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["transport_solver_numerics.time"]
transport_solver_numerics.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
turbulence.code.commit

Unique commit reference of software

  • Data Type: STR_0D
turbulence.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
turbulence.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
turbulence.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
turbulence.code.library[:].name

Name of software

  • Data Type: STR_0D
turbulence.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
turbulence.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
turbulence.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
turbulence.code.name

Name of software generating IDS

  • Data Type: STR_0D
turbulence.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["turbulence.time"]
turbulence.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
turbulence.code.repository

URL of software repository

  • Data Type: STR_0D
turbulence.code.version

Unique version (tag) of software

  • Data Type: STR_0D
turbulence.grid_2d[:].dim1

First dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
turbulence.grid_2d[:].dim2

Second dimension values

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
turbulence.grid_2d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
turbulence.grid_2d_type.description

Verbose description

  • Data Type: STR_0D
turbulence.grid_2d_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
turbulence.grid_2d_type.name

Short string identifier

  • Data Type: STR_0D
turbulence.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
turbulence.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
turbulence.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
turbulence.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
turbulence.ids_properties.occurrence

N/A

  • Data Type: INT_0D
turbulence.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
turbulence.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
turbulence.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
turbulence.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
turbulence.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
turbulence.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
turbulence.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
turbulence.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
turbulence.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
turbulence.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
turbulence.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
turbulence.profiles_2d[:].electrons.density

Density (thermal+non-thermal)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].electrons.density_thermal

Density of thermal particles

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].electrons.temperature

Temperature

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].ion[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].ion[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
turbulence.profiles_2d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
turbulence.profiles_2d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
turbulence.profiles_2d[:].ion[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
turbulence.profiles_2d[:].ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
turbulence.profiles_2d[:].ion[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed), volume averaged over plasma radius

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
turbulence.profiles_2d[:].neutral[:].density

Density (thermal+non-thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].neutral[:].density_thermal

Density (thermal) (sum over charge states when multiple charge states are considered)

  • Units: m^-3
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
turbulence.profiles_2d[:].neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
turbulence.profiles_2d[:].neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
turbulence.profiles_2d[:].neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
turbulence.profiles_2d[:].neutral[:].label

String identifying ion (e.g. H+, D+, T+, He+2, C+, ...)

  • Data Type: STR_0D
turbulence.profiles_2d[:].neutral[:].temperature

Temperature (average over charge states when multiple charge states are considered)

  • Units: eV
  • Data Type: FLT_2D
  • Coordinates: ["turbulence.grid_2d[:].dim1", "turbulence.grid_2d[:].dim2"]
turbulence.profiles_2d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
turbulence.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.code.commit

Unique commit reference of software

  • Data Type: STR_0D
wall.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
wall.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
wall.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
wall.code.library[:].name

Name of software

  • Data Type: STR_0D
wall.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
wall.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
wall.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
wall.code.name

Name of software generating IDS

  • Data Type: STR_0D
wall.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["wall.time"]
wall.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
wall.code.repository

URL of software repository

  • Data Type: STR_0D
wall.code.version

Unique version (tag) of software

  • Data Type: STR_0D
wall.description_2d[:].limiter.type.description

Verbose description

  • Data Type: STR_0D
wall.description_2d[:].limiter.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_2d[:].limiter.type.name

Short string identifier

  • Data Type: STR_0D
wall.description_2d[:].limiter.unit[:].closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
wall.description_2d[:].limiter.unit[:].component_type.description

Verbose description

  • Data Type: STR_0D
wall.description_2d[:].limiter.unit[:].component_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_2d[:].limiter.unit[:].component_type.name

Short string identifier

  • Data Type: STR_0D
wall.description_2d[:].limiter.unit[:].identifier

Identifier of this unit. Although the details may be machine-specific, a tree-like syntax must be followed, listing first top level components, then going down to finer element description. The tree levels are separated by a /, using a number of levels relevant to the granularity of the description. Example : ic_antenna/a1/bumpers refers to the bumpers of the a1 IC antenna

  • Data Type: STR_0D
wall.description_2d[:].limiter.unit[:].name

Name of the limiter unit

  • Data Type: STR_0D
wall.description_2d[:].limiter.unit[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_2d[:].limiter.unit[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].limiter.unit[:].outline.r"]
wall.description_2d[:].limiter.unit[:].phi_extensions

Simplified description of toroidal angle extensions of the unit, by a list of zones defined by their centre and full width (in toroidal angle). In each of these zones, the unit outline remains the same. Leave this node empty for an axisymmetric unit. The first dimension gives the centre and full width toroidal angle values for the unit. The second dimension represents the toroidal occurrences of the unit countour (i.e. the number of toroidal zones).

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "1...N"]
wall.description_2d[:].limiter.unit[:].resistivity

Resistivity of the limiter unit

  • Units: ohm.m
  • Data Type: FLT_0D
wall.description_2d[:].mobile.type.description

Verbose description

  • Data Type: STR_0D
wall.description_2d[:].mobile.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_2d[:].mobile.type.name

Short string identifier

  • Data Type: STR_0D
wall.description_2d[:].mobile.unit[:].closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
wall.description_2d[:].mobile.unit[:].name

Name of the mobile unit

  • Data Type: STR_0D
wall.description_2d[:].mobile.unit[:].outline[:].r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_2d[:].mobile.unit[:].outline[:].time

Time

  • Units: s
  • Data Type: FLT_0D
wall.description_2d[:].mobile.unit[:].outline[:].z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].mobile.unit[:].outline[:].r"]
wall.description_2d[:].mobile.unit[:].phi_extensions

Simplified description of toroidal angle extensions of the unit, by a list of zones defined by their centre and full width (in toroidal angle). In each of these zones, the unit outline remains the same. Leave this node empty for an axisymmetric unit. The first dimension gives the centre and full width toroidal angle values for the unit. The second dimension represents the toroidal occurrences of the unit countour (i.e. the number of toroidal zones).

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "1...N"]
wall.description_2d[:].mobile.unit[:].resistivity

Resistivity of the mobile unit

  • Units: ohm.m
  • Data Type: FLT_0D
wall.description_2d[:].type.description

Verbose description

  • Data Type: STR_0D
wall.description_2d[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_2d[:].type.name

Short string identifier

  • Data Type: STR_0D
wall.description_2d[:].vessel.type.description

Verbose description

  • Data Type: STR_0D
wall.description_2d[:].vessel.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_2d[:].vessel.type.name

Short string identifier

  • Data Type: STR_0D
wall.description_2d[:].vessel.unit[:].annular.centreline.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
wall.description_2d[:].vessel.unit[:].annular.centreline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_2d[:].vessel.unit[:].annular.centreline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].vessel.unit[:].annular.centreline.r"]
wall.description_2d[:].vessel.unit[:].annular.outline_inner.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
wall.description_2d[:].vessel.unit[:].annular.outline_inner.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_2d[:].vessel.unit[:].annular.outline_inner.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].vessel.unit[:].annular.outline_inner.r"]
wall.description_2d[:].vessel.unit[:].annular.outline_outer.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
wall.description_2d[:].vessel.unit[:].annular.outline_outer.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_2d[:].vessel.unit[:].annular.outline_outer.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].vessel.unit[:].annular.outline_outer.r"]
wall.description_2d[:].vessel.unit[:].annular.resistivity

Resistivity of the vessel unit

  • Units: ohm.m
  • Data Type: FLT_0D
wall.description_2d[:].vessel.unit[:].annular.thickness

Thickness of the vessel layer in the perpendicular direction to the centreline. Thickness(i) is the thickness of the layer between centreline/r(i),z(i) and centreline/r(i+1),z(i+1)

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].vessel.unit[:].annular.centreline.r"]
wall.description_2d[:].vessel.unit[:].element[:].j_tor.data

Data

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].vessel.unit[:].element[:].j_tor.time"]
wall.description_2d[:].vessel.unit[:].element[:].j_tor.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_2d[:].vessel.unit[:].element[:].name

Name of the block element

  • Data Type: STR_0D
wall.description_2d[:].vessel.unit[:].element[:].outline.closed

Flag identifying whether the contour is closed (1) or open (0)

  • Data Type: INT_0D
wall.description_2d[:].vessel.unit[:].element[:].outline.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_2d[:].vessel.unit[:].element[:].outline.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_2d[:].vessel.unit[:].element[:].outline.r"]
wall.description_2d[:].vessel.unit[:].element[:].resistance

Resistance of the block element

  • Units: Ohm
  • Data Type: FLT_0D
wall.description_2d[:].vessel.unit[:].element[:].resistivity

Resistivity of the block element

  • Units: ohm.m
  • Data Type: FLT_0D
wall.description_2d[:].vessel.unit[:].identifier

Identifier of the unit

  • Data Type: STR_0D
wall.description_2d[:].vessel.unit[:].name

Name of the unit

  • Data Type: STR_0D
wall.description_ggd[:].component[:].identifiers

Identifiers of the components (described in the various gridsubsets). Although the details may be machine-specific, a tree-like syntax must be followed, listing first top level components, then going down to finer element description. The tree levels are separated by a /, using a number of levels relevant to the granularity of the description. Example : icantenna/a1/bumpers refers to the bumpers of the a1 IC antenna

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].component[:].time

Time

  • Units: s
  • Data Type: FLT_0D
wall.description_ggd[:].component[:].type[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].component[:].type[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].component[:].type[:].identifier.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].component[:].type[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].component[:].type[:].identifier.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].a_field[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].a_field[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].a_field[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].a_field[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].a_field[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].ggd[:].a_field[:].r"]
wall.description_ggd[:].ggd[:].a_field[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].a_field[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: T.m
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].ggd[:].a_field[:].r"]
wall.description_ggd[:].ggd[:].a_field[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T.m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].e_field[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].e_field[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].e_field[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].e_field[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].e_field[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].ggd[:].e_field[:].r"]
wall.description_ggd[:].ggd[:].e_field[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].e_field[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].ggd[:].e_field[:].r"]
wall.description_ggd[:].ggd[:].e_field[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.current.emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.current.emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.current.emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.current.emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.current.emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.current.incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.current.incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.current.incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.current.incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.current.incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.electrons.incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.kinetic.neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.radiation.emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.radiation.incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.radiation.incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].energy_fluxes.recombination.neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].j_total[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].j_total[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].j_total[:].r

Component along the major radius axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].j_total[:].r_coefficients

Interpolation coefficients for the component along the major radius axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].j_total[:].toroidal

Toroidal component, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].ggd[:].j_total[:].r"]
wall.description_ggd[:].ggd[:].j_total[:].toroidal_coefficients

Interpolation coefficients for the toroidal component, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].j_total[:].z

Component along the height axis, one scalar value is provided per element in the grid subset.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].ggd[:].j_total[:].r"]
wall.description_ggd[:].ggd[:].j_total[:].z_coefficients

Interpolation coefficients for the component along the height axis, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.electrons.emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.electrons.incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.electrons.incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].emitted[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].emitted[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].emitted[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].emitted[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].emitted[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].incident[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m^-2.s^-1
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].incident[:].values", "1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].incident[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].incident[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].incident[:].values

One scalar value is provided per element in the grid subset.

  • Units: m^-2.s^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].particle_fluxes.neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].phi_potential[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].phi_potential[:].values", "1...N"]
wall.description_ggd[:].ggd[:].phi_potential[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].phi_potential[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].phi_potential[:].values

One scalar value is provided per element in the grid subset.

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].power_density[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: W.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].power_density[:].values", "1...N"]
wall.description_ggd[:].ggd[:].power_density[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].power_density[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].power_density[:].values

One scalar value is provided per element in the grid subset.

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].psi[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Wb
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].psi[:].values", "1...N"]
wall.description_ggd[:].ggd[:].psi[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].psi[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].psi[:].values

One scalar value is provided per element in the grid subset.

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].recycling.ion[:].coefficient[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].recycling.ion[:].coefficient[:].values", "1...N"]
wall.description_ggd[:].ggd[:].recycling.ion[:].coefficient[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].coefficient[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].coefficient[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].recycling.ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].label

String identifying ion (e.g. H, D, T, He, C, D2, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].multiple_states_flag

Multiple states calculation flag : 0-Only the 'ion' level is considered and the 'state' array of structure is empty; 1-Ion states are considered and are described in the 'state' array of structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].neutral_index

Index of the corresponding neutral species in the ../../neutral array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].coefficient[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].coefficient[:].values", "1...N"]
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].coefficient[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].coefficient[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].coefficient[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].z_max

Maximum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].state[:].z_min

Minimum Z of the charge state bundle

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].coefficient[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].recycling.neutral[:].coefficient[:].values", "1...N"]
wall.description_ggd[:].ggd[:].recycling.neutral[:].coefficient[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].coefficient[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].coefficient[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].recycling.neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].ion_index

Index of the corresponding ion species in the ../../ion array

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].label

String identifying neutral (e.g. H, D, T, He, C, ...)

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].multiple_states_flag

Multiple states calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].coefficient[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].coefficient[:].values", "1...N"]
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].coefficient[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].coefficient[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].coefficient[:].values

One scalar value is provided per element in the grid subset.

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].label

String identifying state

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].neutral_type.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].neutral_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].neutral_type.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].recycling.neutral[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
wall.description_ggd[:].ggd[:].resistivity[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: Ohm.m
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].resistivity[:].values", "1...N"]
wall.description_ggd[:].ggd[:].resistivity[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].resistivity[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].resistivity[:].values

One scalar value is provided per element in the grid subset.

  • Units: Ohm.m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].temperature[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: K
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].temperature[:].values", "1...N"]
wall.description_ggd[:].ggd[:].temperature[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].temperature[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].temperature[:].values

One scalar value is provided per element in the grid subset.

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
wall.description_ggd[:].ggd[:].v_biasing[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].ggd[:].v_biasing[:].values", "1...N"]
wall.description_ggd[:].ggd[:].v_biasing[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].v_biasing[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].ggd[:].v_biasing[:].values

One scalar value is provided per element in the grid subset.

  • Units: V
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].grid_ggd[:].grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].grid_ggd[:].grid_subset[:].element"]
wall.description_ggd[:].grid_ggd[:].grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["wall.description_ggd[:].grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
wall.description_ggd[:].grid_ggd[:].grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["wall.description_ggd[:].grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
wall.description_ggd[:].grid_ggd[:].grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["wall.description_ggd[:].grid_ggd[:].grid_subset[:].element"]
wall.description_ggd[:].grid_ggd[:].grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["wall.description_ggd[:].grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
wall.description_ggd[:].grid_ggd[:].grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["wall.description_ggd[:].grid_ggd[:].grid_subset[:].element", "1...N", "1...N"]
wall.description_ggd[:].grid_ggd[:].identifier.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].identifier.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: IDS::wall/0/descriptionggd(1)/gridggd, means that the grid is located in the wall IDS, occurrence 0, with relative path descriptionggd(1)/gridggd, using Fortran index convention (here : first index of the array)

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].grid_ggd[:].space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].space[:].identifier.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
wall.description_ggd[:].grid_ggd[:].space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].grid_ggd[:].time

Time

  • Units: s
  • Data Type: FLT_0D
wall.description_ggd[:].material[:].grid_subset[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].material[:].grid_subset[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].material[:].grid_subset[:].identifiers.descriptions

Verbose description

  • Data Type: STR_1D
  • Coordinates: ["wall.description_ggd[:].material[:].grid_subset[:].identifiers.names"]
wall.description_ggd[:].material[:].grid_subset[:].identifiers.indices

Integer identifiers (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_1D
  • Coordinates: ["wall.description_ggd[:].material[:].grid_subset[:].identifiers.names"]
wall.description_ggd[:].material[:].grid_subset[:].identifiers.names

Short string identifiers

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].material[:].time

Time

  • Units: s
  • Data Type: FLT_0D
wall.description_ggd[:].thickness[:].grid_subset[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["wall.description_ggd[:].thickness[:].grid_subset[:].values", "1...N"]
wall.description_ggd[:].thickness[:].grid_subset[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
wall.description_ggd[:].thickness[:].grid_subset[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
wall.description_ggd[:].thickness[:].grid_subset[:].values

One scalar value is provided per element in the grid subset.

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.description_ggd[:].thickness[:].time

Time

  • Units: s
  • Data Type: FLT_0D
wall.description_ggd[:].type.description

Verbose description

  • Data Type: STR_0D
wall.description_ggd[:].type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.description_ggd[:].type.name

Short string identifier

  • Data Type: STR_0D
wall.first_wall_enclosed_volume

Volume available to gas or plasma enclosed by the first wall contour

  • Units: m^3
  • Data Type: FLT_0D
wall.first_wall_power_flux_peak.data

Data

  • Units: W.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["wall.first_wall_power_flux_peak.time"]
wall.first_wall_power_flux_peak.time

Time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.first_wall_surface_area

First wall surface area

  • Units: m^2
  • Data Type: FLT_0D
wall.global_quantities.current_tor

Toroidal current flowing in the vacuum vessel

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.electrons.gas_puff

Gas puff rate (in equivalent electrons)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.electrons.particle_flux_from_plasma

Particle flux from the plasma (in equivalent electrons)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.electrons.particle_flux_from_wall

Particle flux from the wall corresponding to the conversion into various neutral types (first dimension: 1: cold; 2: thermal; 3: fast), in equivalent electrons

  • Units: s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...3", "wall.time"]
wall.global_quantities.electrons.power_inner_target

Electron power on the inner target

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.electrons.power_outer_target

Electron power on the inner target

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.electrons.pumping_speed

Pumped particle flux (in equivalent electrons)

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.neutral[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.global_quantities.neutral[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.global_quantities.neutral[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.global_quantities.neutral[:].gas_puff

Gas puff rate for that species

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.neutral[:].incident_species[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
wall.global_quantities.neutral[:].incident_species[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
wall.global_quantities.neutral[:].incident_species[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
wall.global_quantities.neutral[:].incident_species[:].energies

Array of energies of this incident species, on which the sputteringphysicalcoefficient is tabulated

  • Units: eV
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
wall.global_quantities.neutral[:].incident_species[:].label

String identifying the incident species (e.g. H, D, CD4, ...)

  • Data Type: STR_0D
wall.global_quantities.neutral[:].incident_species[:].sputtering_chemical_coefficient

Effective coefficient of chemical sputtering for various neutral types (first dimension: 1: cold; 2: thermal; 3: fast), due to this incident species

  • Data Type: FLT_2D
  • Coordinates: ["1...3", "wall.time"]
wall.global_quantities.neutral[:].incident_species[:].sputtering_physical_coefficient

Effective coefficient of physical sputtering for various neutral types (first dimension: 1: cold; 2: thermal; 3: fast), due to this incident species and for various energies (second dimension)

  • Data Type: FLT_3D
  • Coordinates: ["1...3", "wall.global_quantities.neutral[:].incident_species[:].energies", "wall.time"]
wall.global_quantities.neutral[:].label

String identifying the species (e.g. H, D, CD4, ...)

  • Data Type: STR_0D
wall.global_quantities.neutral[:].particle_flux_from_plasma

Particle flux from the plasma for that species

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.neutral[:].particle_flux_from_wall

Particle flux from the wall corresponding to the conversion into various neutral types (first dimension: 1: cold; 2: thermal; 3: fast)

  • Units: s^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...3", "wall.time"]
wall.global_quantities.neutral[:].pumping_speed

Pumped particle flux for that species

  • Units: s^-1
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.neutral[:].recycling_energy_coefficient

Energy recycling coefficient corresponding to the conversion into various neutral types (first dimension: 1: cold; 2: thermal; 3: fast)

  • Data Type: FLT_2D
  • Coordinates: ["1...3", "wall.time"]
wall.global_quantities.neutral[:].recycling_particles_coefficient

Particle recycling coefficient corresponding to the conversion into various neutral types (first dimension: 1: cold; 2: thermal; 3: fast)

  • Data Type: FLT_2D
  • Coordinates: ["1...3", "wall.time"]
wall.global_quantities.neutral[:].wall_inventory

Wall inventory, i.e. cumulated exchange of neutral species between plasma and wall from t = 0, positive if a species has gone to the wall, for that species

  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_black_body

Black body radiated power emitted from the wall (emissivity is included)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_conducted

Power conducted by the plasma onto the wall

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_convected

Power convected by the plasma onto the wall

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_currents

Power deposited on the wall due to electric currents (positive means power is deposited on the target)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_density_inner_target_max

Maximum power density on the inner target

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_density_outer_target_max

Maximum power density on the outer target

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_incident

Total power incident on the wall. This power is split in the various physical categories listed below

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_inner_target_ion_total

Total ion (summed over ion species) power on the inner target

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_neutrals

Net power from neutrals on the wall (positive means power is deposited on the wall)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_radiated

Net radiated power from plasma onto the wall (incident-reflected)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_recombination_neutrals

Power deposited on the wall due to recombination of neutrals into a ground state (e.g. molecules)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_recombination_plasma

Power deposited on the wall due to recombination of plasma ions

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.power_to_cooling

Power to cooling systems

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.global_quantities.temperature

Wall temperature

  • Units: K
  • Data Type: FLT_1D
  • Coordinates: ["wall.time"]
wall.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
wall.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
wall.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
wall.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
wall.ids_properties.occurrence

N/A

  • Data Type: INT_0D
wall.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
wall.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
wall.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
wall.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
wall.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
wall.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
wall.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
wall.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
wall.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
wall.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
wall.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
wall.temperature_reference.data

Reference temperature

  • Units: K
  • Data Type: FLT_0D
wall.temperature_reference.description

Description of how the reference temperature is defined : for which object, at which location, ...

  • Data Type: STR_0D
wall.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
waves.code.commit

Unique commit reference of software

  • Data Type: STR_0D
waves.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
waves.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
waves.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
waves.code.library[:].name

Name of software

  • Data Type: STR_0D
waves.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
waves.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
waves.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
waves.code.name

Name of software generating IDS

  • Data Type: STR_0D
waves.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["waves.time"]
waves.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
waves.code.repository

URL of software repository

  • Data Type: STR_0D
waves.code.version

Unique version (tag) of software

  • Data Type: STR_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].e_field.minus.imaginary

Imaginary part

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].e_field.minus.real

Real part

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].e_field.parallel.imaginary

Imaginary part

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].e_field.parallel.real

Real part

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].e_field.plus.imaginary

Imaginary part

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].e_field.plus.real

Real part

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].electrons.power

Power absorbed along the beam by the species

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].power

Power absorbed along the beam by the species

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].state[:].power

Power absorbed along the beam by the species

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].length

Ray/beam curvilinear length

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].beam_tracing[:].beam[:].phase.angle

Rotation angle for the phase ellipse

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].phase.curvature

Inverse curvature radii for the phase ellipse, positive/negative for divergent/convergent beams, in the horizontal direction (first index of the first coordinate) and in the vertical direction (second index of the first coordinate)

  • Units: m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].position.phi

Toroidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].position.psi

Poloidal flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].position.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].position.theta

Poloidal angle

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].position.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].power_flow_norm.parallel

Normalized power flow in the direction parallel to the magnetic field

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].power_flow_norm.perpendicular

Normalized power flow in the direction perpendicular to the magnetic field

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].power_initial

Initial power in the ray/beam

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].beam_tracing[:].beam[:].spot.angle

Rotation angle for the spot ellipse

  • Units: rad
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].spot.size

Size of the spot ellipse: distance between the central ray and the peripheral rays in the horizontal (first index of the first coordinate) and vertical direction (second index of the first coordinate)

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...2", "waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.k_r

Wave vector component in the major radius direction

  • Units: m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.k_r_norm

Normalized wave vector component in the major radius direction = k_r / norm(k)

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.k_tor

Wave vector component in the toroidal direction

  • Units: m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.k_tor_norm

Normalized wave vector component in the toroidal direction = k_tor / norm(k)

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.k_z

Wave vector component in the vertical direction

  • Units: m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.k_z_norm

Normalized wave vector component in the vertical direction = k_z / norm(k)

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.n_parallel

Parallel refractive index

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.n_perpendicular

Perpendicular refractive index

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.n_tor

Toroidal wave number, contains a single value if varyingntor = 0 to avoid useless repetition constant values. The wave vector toroidal component is defined as ktor = ntor grad phi where phi is the toroidal angle so that a positive ntor means a wave propagating in the positive phi direction

  • Data Type: INT_1D
  • Coordinates: ["coherent_wave[:].beam_tracing[:].beam[:].length"]
waves.coherent_wave[:].beam_tracing[:].beam[:].wave_vector.varying_n_tor

Flag telling whether n_tor is constant along the ray path (0) or varying (1)

  • Data Type: INT_0D
waves.coherent_wave[:].beam_tracing[:].time

Time

  • Units: s
  • Data Type: FLT_0D
waves.coherent_wave[:].full_wave[:].b_field.bi_normal[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].b_field.bi_normal[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].b_field.bi_normal[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].b_field.bi_normal[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].b_field.bi_normal[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].b_field.normal[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].b_field.normal[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].b_field.normal[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].b_field.normal[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].b_field.normal[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].b_field.parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: T
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].b_field.parallel[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].b_field.parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].b_field.parallel[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].b_field.parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: T
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].e_field.bi_normal[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].e_field.bi_normal[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].e_field.bi_normal[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.bi_normal[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.bi_normal[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].e_field.minus[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].e_field.minus[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].e_field.minus[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.minus[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.minus[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].e_field.normal[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].e_field.normal[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].e_field.normal[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.normal[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.normal[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].e_field.parallel[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].e_field.parallel[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].e_field.parallel[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.parallel[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.parallel[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].e_field.plus[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: CPX_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].e_field.plus[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].e_field.plus[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.plus[:].grid_subset_index

Index of the grid subset the data is provided on

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].e_field.plus[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: CPX_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].base[:].jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element"]
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].base[:].tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element", "1...N", "1...N"]
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].base[:].tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element", "1...N", "1...N"]
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].dimension

Space dimension of the grid subset elements, using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element[:].object[:].dimension

Dimension of the object - using the convention 1=nodes, 2=edges, 3=faces, 4=cells/volumes

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element[:].object[:].index

Object index

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element[:].object[:].space

Index of the space from which that object is taken

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].identifier.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].identifier.name

Short string identifier

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].metric.jacobian

Metric Jacobian

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element"]
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].metric.tensor_contravariant

Contravariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element", "1...N", "1...N"]
waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].metric.tensor_covariant

Covariant metric tensor, given on each element of the subgrid (first dimension)

  • Units: mixed
  • Data Type: FLT_3D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].grid.grid_subset[:].element", "1...N", "1...N"]
waves.coherent_wave[:].full_wave[:].grid.identifier.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.identifier.name

Short string identifier

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.path

Path of the grid, including the IDS name, in case of implicit reference to a gridggd node described in another IDS. To be filled only if the grid is not described explicitly in this gridggd structure. Example syntax: 'wall:0/descriptionggd(1)/gridggd', means that the grid is located in the wall IDS, occurrence 0, with ids path 'descriptionggd(1)/gridggd'. See the link below for more details about IDS paths

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].coordinates_type

Type of coordinates describing the physical space, for every coordinate of the space. The size of this node therefore defines the dimension of the space. The meaning of these predefined integer constants can be found in the Data Dictionary under utilities/coordinate_identifier.xml

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].grid.space[:].geometry_type.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].geometry_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].geometry_type.name

Short string identifier

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].identifier.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].identifier.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].identifier.name

Short string identifier

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].geometry_content.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].geometry_content.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].geometry_content.name

Short string identifier

  • Data Type: STR_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].index

Index of this (n-1)-dimensional boundary object

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].object[:].boundary[:].neighbours

List of indices of the n-dimensional objects adjacent to the given n-dimensional object. An object can possibly have multiple neighbours on a boundary

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].object[:].geometry

Geometry data associated with the object, its detailed content is defined by ../../geometry_content. Its dimension depends on the type of object, geometry and coordinate considered.

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].object[:].geometry_2d

2D geometry data associated with the object. Its dimension depends on the type of object, geometry and coordinate considered. Typically, the first dimension represents the object coordinates, while the second dimension would represent the values of the various degrees of freedom of the finite element attached to the object.

  • Units: mixed
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].object[:].measure

Measure of the space object, i.e. physical size (length for 1d, area for 2d, volume for 3d objects,...)

  • Units: m^dimension
  • Data Type: FLT_0D
waves.coherent_wave[:].full_wave[:].grid.space[:].objects_per_dimension[:].object[:].nodes

List of nodes forming this object (indices to objectsperdimension(1)%object(:) in Fortran notation)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].k_perpendicular[:].coefficients

Interpolation coefficients, to be used for a high precision evaluation of the physical quantity with finite elements, provided per element in the grid subset (first dimension).

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].full_wave[:].k_perpendicular[:].values", "1...N"]
waves.coherent_wave[:].full_wave[:].k_perpendicular[:].grid_index

Index of the grid used to represent this quantity

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].k_perpendicular[:].grid_subset_index

Index of the grid subset the data is provided on. Corresponds to the index used in the grid subset definition: grid_subset(:)/identifier/index

  • Data Type: INT_0D
waves.coherent_wave[:].full_wave[:].k_perpendicular[:].values

One scalar value is provided per element in the grid subset.

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].full_wave[:].time

Time

  • Units: s
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].current_tor

Wave driven toroidal current from a stand alone calculation (not consistent with other sources)

  • Units: A
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].current_tor_n_tor

Wave driven toroidal current from a stand alone calculation (not consistent with other sources) per toroidal mode number

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].electrons.distribution_assumption

Assumption on the distribution function used by the wave solver to calculate the power deposition on this species: 0 = Maxwellian (linear absorption); 1 = quasi-linear (F given by a distributions IDS).

  • Data Type: INT_0D
waves.coherent_wave[:].global_quantities[:].electrons.power_fast

Wave power absorbed by the fast particle population

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].electrons.power_fast_n_tor

Wave power absorbed by the fast particle population per toroidal mode number

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].electrons.power_thermal

Wave power absorbed by the thermal particle population

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].electrons.power_thermal_n_tor

Wave power absorbed by the thermal particle population per toroidal mode number

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].frequency

Wave frequency

  • Units: Hz
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].distribution_assumption

Assumption on the distribution function used by the wave solver to calculate the power deposition on this species: 0 = Maxwellian (linear absorption); 1 = quasi-linear (F given by a distributions IDS).

  • Data Type: INT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].global_quantities[:].ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].power_fast

Wave power absorbed by the fast particle population

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].power_fast_n_tor

Wave power absorbed by the fast particle population per toroidal mode number

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].ion[:].power_thermal

Wave power absorbed by the thermal particle population

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].power_thermal_n_tor

Wave power absorbed by the thermal particle population per toroidal mode number

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].power_fast

Wave power absorbed by the fast particle population

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].power_fast_n_tor

Wave power absorbed by the fast particle population per toroidal mode number

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].power_thermal

Wave power absorbed by the thermal particle population

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].power_thermal_n_tor

Wave power absorbed by the thermal particle population per toroidal mode number

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].n_tor

Toroidal mode numbers, the wave vector toroidal component being defined as ktor = ntor grad phi where phi is the toroidal angle so that a positive n_tor means a wave propagating in the positive phi direction

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].global_quantities[:].power

Total absorbed wave power

  • Units: W
  • Data Type: FLT_0D
waves.coherent_wave[:].global_quantities[:].power_n_tor

Absorbed wave power per toroidal mode number

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].global_quantities[:].n_tor"]
waves.coherent_wave[:].global_quantities[:].time

Time

  • Units: s
  • Data Type: FLT_0D
waves.coherent_wave[:].identifier.antenna_name

Name of the antenna that launches this wave. Corresponds to the name specified in antennas/ec(i)/name, or antennas/ic(i)/name or antennas/lh(i)/name (depends of antenna/wave type) in the ANTENNAS IDS.

  • Data Type: STR_0D
waves.coherent_wave[:].identifier.index_in_antenna

Index of the wave (starts at 1), separating different waves generated from a single antenna.

  • Data Type: INT_0D
waves.coherent_wave[:].identifier.type.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].identifier.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].identifier.type.name

Short string identifier

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_1d[:].current_parallel_density

Flux surface averaged wave driven parallel current density = average(j.B) / B0, where B0 = vacuumtoroidalfield/b0.

  • Units: A.m^-2
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].current_parallel_density_n_tor

Flux surface averaged wave driven parallel current density, per toroidal mode number

  • Units: A.m^-2
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].current_tor_inside

Wave driven toroidal current, inside a flux surface

  • Units: A
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].current_tor_inside_n_tor

Wave driven toroidal current, inside a flux surface, per toroidal mode number

  • Units: A
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].e_field_n_tor[:].minus.amplitude

Amplitude

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].e_field_n_tor[:].minus.phase

Phase

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].e_field_n_tor[:].parallel.amplitude

Amplitude

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].e_field_n_tor[:].parallel.phase

Phase

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].e_field_n_tor[:].plus.amplitude

Amplitude

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].e_field_n_tor[:].plus.phase

Phase

  • Units: V.m^-1
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_density_fast

Flux surface averaged absorbed wave power density on the fast species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_density_fast_n_tor

Flux surface averaged absorbed wave power density on the fast species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_density_thermal

Flux surface averaged absorbed wave power density on the thermal species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_density_thermal_n_tor

Flux surface averaged absorbed wave power density on the thermal species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_inside_fast

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_inside_fast_n_tor

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density), per toroidal mode number

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_inside_thermal

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].electrons.power_inside_thermal_n_tor

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density), per toroidal mode number

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].grid.psi_boundary

Value of the poloidal magnetic flux at the plasma boundary (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].grid.psi_magnetic_axis

Value of the poloidal magnetic flux at the magnetic axis (useful to normalize the psi array values when the radial grid doesn't go from the magnetic axis to the plasma boundary)

  • Units: Wb
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].grid.rho_pol_norm

Normalised poloidal flux coordinate = sqrt((psi(rho)-psi(magneticaxis)) / (psi(LCFS)-psi(magneticaxis)))

  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].grid.rho_tor

Toroidal flux coordinate. rhotor = sqrt(bfluxtor/(pib0)) ~ sqrt(pir^2b0/(pib0)) ~ r [m]. The toroidal field used in its definition is indicated under vacuumtoroidal_field/b0

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation, see timeslice/boundary/bfluxpolnorm in the equilibrium IDS)

  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].profiles_1d[:].grid.surface

Surface area of the toroidal flux surface

  • Units: m^2
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].power_density_fast

Flux surface averaged absorbed wave power density on the fast species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].power_density_fast_n_tor

Flux surface averaged absorbed wave power density on the fast species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].power_density_thermal

Flux surface averaged absorbed wave power density on the thermal species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].power_density_thermal_n_tor

Flux surface averaged absorbed wave power density on the thermal species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].power_inside_fast

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].power_inside_fast_n_tor

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density), per toroidal mode number

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].power_inside_thermal

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].power_inside_thermal_n_tor

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density), per toroidal mode number

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_density_fast

Flux surface averaged absorbed wave power density on the fast species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_density_fast_n_tor

Flux surface averaged absorbed wave power density on the fast species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_density_thermal

Flux surface averaged absorbed wave power density on the thermal species

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_density_thermal_n_tor

Flux surface averaged absorbed wave power density on the thermal species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_inside_fast

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_inside_fast_n_tor

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density), per toroidal mode number

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_inside_thermal

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].power_inside_thermal_n_tor

Absorbed wave power on thermal species inside a flux surface (cumulative volume integral of the absorbed power density), per toroidal mode number

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_1d[:].k_perpendicular

Perpendicular wave vector, averaged over the flux surface, where the averaged is weighted with the power deposition density, such that kperpendicular = ave(kperpendicular.powerdensity) / ave(powerdensity), for every flux surface and every toroidal number

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].n_tor

Toroidal mode numbers, the wave vector toroidal component being defined as ktor = ntor grad phi where phi is the toroidal angle so that a positive n_tor means a wave propagating in the positive phi direction

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].profiles_1d[:].power_density

Flux surface averaged total absorbed wave power density (electrons + ion + fast populations)

  • Units: W.m^-3
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].power_density_n_tor

Flux surface averaged absorbed wave power density per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].power_inside

Total absorbed wave power (electrons + ion + fast populations) inside a flux surface (cumulative volume integral of the absorbed power density)

  • Units: W
  • Data Type: FLT_1D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm"]
waves.coherent_wave[:].profiles_1d[:].power_inside_n_tor

Total absorbed wave power (electrons + ion + fast populations) inside a flux surface (cumulative volume integral of the absorbed power density), per toroidal mode number

  • Units: W
  • Data Type: FLT_2D
  • Coordinates: ["waves.coherent_wave[:].profiles_1d[:].grid.rho_tor_norm", "waves.coherent_wave[:].profiles_1d[:].n_tor"]
waves.coherent_wave[:].profiles_1d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_2d[:].e_field_n_tor[:].minus.amplitude

Amplitude

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].e_field_n_tor[:].minus.phase

Phase

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].e_field_n_tor[:].parallel.amplitude

Amplitude

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].e_field_n_tor[:].parallel.phase

Phase

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].e_field_n_tor[:].plus.amplitude

Amplitude

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].e_field_n_tor[:].plus.phase

Phase

  • Units: V.m^-1
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].electrons.power_density_fast

Absorbed wave power density on the fast species

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].electrons.power_density_fast_n_tor

Absorbed wave power density on the fast species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "waves.coherent_wave[:].profiles_2d[:].n_tor"]
waves.coherent_wave[:].profiles_2d[:].electrons.power_density_thermal

Absorbed wave power density on the thermal species

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].electrons.power_density_thermal_n_tor

Absorbed wave power density on the thermal species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "waves.coherent_wave[:].profiles_2d[:].n_tor"]
waves.coherent_wave[:].profiles_2d[:].grid.area

Cross-sectional area of the flux surface

  • Units: m^2
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.psi

Poloidal magnetic flux

  • Units: Wb
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.r

Major radius

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.rho_tor

Toroidal flux coordinate. The toroidal field used in its definition is indicated under vacuumtoroidalfield/b0

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.rho_tor_norm

Normalised toroidal flux coordinate. The normalizing value for rhotornorm, is the toroidal flux coordinate at the equilibrium boundary (LCFS or 99.x % of the LCFS in case of a fixed boundary equilibium calculation)

  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.theta_geometric

Geometrical poloidal angle

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.theta_straight

Straight field line poloidal angle

  • Units: rad
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.type.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_2d[:].grid.type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].profiles_2d[:].grid.type.name

Short string identifier

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_2d[:].grid.volume

Volume enclosed inside the magnetic surface

  • Units: m^3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].grid.z

Height

  • Units: m
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].ion[:].element[:].a

Mass of atom

  • Units: Atomic Mass Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].element[:].atoms_n

Number of atoms of this element in the molecule

  • Data Type: INT_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].element[:].z_n

Nuclear charge

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].label

String identifying the species (e.g. H+, D+, T+, He+2, C+, D2, DT, CD4, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].multiple_states_flag

Multiple state calculation flag : 0-Only one state is considered; 1-Multiple states are considered and are described in the state structure

  • Data Type: INT_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].power_density_fast

Absorbed wave power density on the fast species

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].ion[:].power_density_fast_n_tor

Absorbed wave power density on the fast species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "waves.coherent_wave[:].profiles_2d[:].n_tor"]
waves.coherent_wave[:].profiles_2d[:].ion[:].power_density_thermal

Absorbed wave power density on the thermal species

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].ion[:].power_density_thermal_n_tor

Absorbed wave power density on the thermal species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "waves.coherent_wave[:].profiles_2d[:].n_tor"]
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].electron_configuration

Configuration of atomic orbitals of this state, e.g. 1s2-2s1

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].label

String identifying charge state (e.g. C+, C+2 , C+3, C+4, C+5, C+6, ...)

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].power_density_fast

Absorbed wave power density on the fast species

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].power_density_fast_n_tor

Absorbed wave power density on the fast species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "waves.coherent_wave[:].profiles_2d[:].n_tor"]
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].power_density_thermal

Absorbed wave power density on the thermal species

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].power_density_thermal_n_tor

Absorbed wave power density on the thermal species, per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "waves.coherent_wave[:].profiles_2d[:].n_tor"]
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].vibrational_level

Vibrational level (can be bundled)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].vibrational_mode

Vibrational mode of this state, e.g. "A_g". Need to define, or adopt a standard nomenclature.

  • Data Type: STR_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].z_max

Maximum Z of the charge state bundle (equal to z_min if no bundle)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].state[:].z_min

Minimum Z of the charge state bundle (zmin = zmax = 0 for a neutral)

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_2d[:].ion[:].z_ion

Ion charge (of the dominant ionisation state; lumped ions are allowed).

  • Units: Elementary Charge Unit
  • Data Type: FLT_0D
waves.coherent_wave[:].profiles_2d[:].n_tor

Toroidal mode numbers, the wave vector toroidal component being defined as ktor = ntor grad phi where phi is the toroidal angle so that a positive n_tor means a wave propagating in the positive phi direction

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
waves.coherent_wave[:].profiles_2d[:].power_density

Total absorbed wave power density (electrons + ion + fast populations)

  • Units: W.m^-3
  • Data Type: FLT_2D
  • Coordinates: ["1...N", "1...N"]
waves.coherent_wave[:].profiles_2d[:].power_density_n_tor

Absorbed wave power density per toroidal mode number

  • Units: W.m^-3
  • Data Type: FLT_3D
  • Coordinates: ["1...N", "1...N", "waves.coherent_wave[:].profiles_2d[:].n_tor"]
waves.coherent_wave[:].profiles_2d[:].time

Time

  • Units: s
  • Data Type: FLT_0D
waves.coherent_wave[:].wave_solver_type.description

Verbose description

  • Data Type: STR_0D
waves.coherent_wave[:].wave_solver_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.coherent_wave[:].wave_solver_type.name

Short string identifier

  • Data Type: STR_0D
waves.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
waves.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
waves.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
waves.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
waves.ids_properties.occurrence

N/A

  • Data Type: INT_0D
waves.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
waves.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
waves.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
waves.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
waves.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
waves.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
waves.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
waves.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
waves.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
waves.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
waves.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
waves.magnetic_axis.r

Major radius

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["waves.time"]
waves.magnetic_axis.z

Height

  • Units: m
  • Data Type: FLT_1D
  • Coordinates: ["waves.time"]
waves.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
waves.vacuum_toroidal_field.b0

Vacuum toroidal field at R0 [T]; Positive sign means anti-clockwise when viewing from above. The product R0B0 must be consistent with the btorvacuum_r field of the tf IDS.

  • Units: T
  • Data Type: FLT_1D
  • Coordinates: ["waves.time"]
waves.vacuum_toroidal_field.r0

Reference major radius where the vacuum toroidal magnetic field is given (usually a fixed position such as the middle of the vessel at the equatorial midplane)

  • Units: m
  • Data Type: FLT_0D
workflow.code.commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.code.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.code.library[:].commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.code.library[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.code.library[:].name

Name of software

  • Data Type: STR_0D
workflow.code.library[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
workflow.code.library[:].repository

URL of software repository

  • Data Type: STR_0D
workflow.code.library[:].version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.code.name

Name of software generating IDS

  • Data Type: STR_0D
workflow.code.output_flag

Output flag : 0 means the run is successful, other values mean some difficulty has been encountered, the exact meaning is then code specific. Negative values mean the result shall not be used.

  • Data Type: INT_1D
  • Coordinates: ["workflow.time"]
workflow.code.parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
workflow.code.repository

URL of software repository

  • Data Type: STR_0D
workflow.code.version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.ids_properties.comment

Any comment describing the content of this IDS

  • Data Type: STR_0D
workflow.ids_properties.creation_date

Date at which this data has been produced

  • Data Type: STR_0D
workflow.ids_properties.homogeneous_time

This node must be filled (with 0, 1, or 2) for the IDS to be valid. If 1, the time of this IDS is homogeneous, i.e. the time values for this IDS are stored in the time node just below the root of this IDS. If 0, the time values are stored in the various time fields at lower levels in the tree. In the case only constant or static nodes are filled within the IDS, homogeneous_time must be set to 2

  • Data Type: INT_0D
workflow.ids_properties.name

User-defined name for this IDS occurrence

  • Data Type: STR_0D
workflow.ids_properties.occurrence

N/A

  • Data Type: INT_0D
workflow.ids_properties.occurrence_type.description

Verbose description

  • Data Type: STR_0D
workflow.ids_properties.occurrence_type.index

Integer identifier (enumeration index within a list). Private identifier values must be indicated by a negative index.

  • Data Type: INT_0D
workflow.ids_properties.occurrence_type.name

Short string identifier

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_get.commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_get.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_get.name

Name of software used

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_get.repository

URL of software repository

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_get.version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_put.commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_put.description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_put.name

Name of software used

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_put.repository

URL of software repository

  • Data Type: STR_0D
workflow.ids_properties.plugins.infrastructure_put.version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].get_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].get_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].get_operation[:].name

Name of software used

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].get_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].get_operation[:].repository

URL of software repository

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].get_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the plugin applies to the whole IDS.

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].put_operation[:].commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].put_operation[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].put_operation[:].name

Name of software used

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].put_operation[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].put_operation[:].repository

URL of software repository

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].put_operation[:].version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].readback[:].commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].readback[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].readback[:].name

Name of software used

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].readback[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].readback[:].repository

URL of software repository

  • Data Type: STR_0D
workflow.ids_properties.plugins.node[:].readback[:].version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.ids_properties.provenance.node[:].path

Path of the node within the IDS, following the syntax given in the link below. If empty, means the provenance information applies to the whole IDS.

  • Data Type: STR_0D
workflow.ids_properties.provenance.node[:].sources

List of sources used to import or calculate this node, identified as explained below. In case the node is the result of of a calculation / data processing, the source is an input to the process described in the "code" structure at the root of the IDS. The source can be an IDS (identified by a URI or a persitent identifier, see syntax in the link below) or non-IDS data imported directly from an non-IMAS database (identified by the command used to import the source, or the persistent identifier of the data source). Often data are obtained by a chain of processes, however only the last process input are recorded here. The full chain of provenance has then to be reconstructed recursively from the provenance information contained in the data sources.

  • Data Type: STR_1D
  • Coordinates: ["1...N"]
workflow.ids_properties.provider

Name of the person in charge of producing this data

  • Data Type: STR_0D
workflow.ids_properties.version_put.access_layer

Version of Access Layer used to PUT this IDS

  • Data Type: STR_0D
workflow.ids_properties.version_put.access_layer_language

Programming language of the Access Layer high level API used to PUT this IDS

  • Data Type: STR_0D
workflow.ids_properties.version_put.data_dictionary

Version of Data Dictionary used to PUT this IDS

  • Data Type: STR_0D
workflow.time

Generic time

  • Units: s
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
workflow.time_loop.component[:].commit

Unique commit reference of software

  • Data Type: STR_0D
workflow.time_loop.component[:].description

Short description of the software (type, purpose)

  • Data Type: STR_0D
workflow.time_loop.component[:].name

Name of software used

  • Data Type: STR_0D
workflow.time_loop.component[:].parameters

List of the code specific parameters in XML format

  • Data Type: STR_0D
workflow.time_loop.component[:].repository

URL of software repository

  • Data Type: STR_0D
workflow.time_loop.component[:].version

Unique version (tag) of software

  • Data Type: STR_0D
workflow.time_loop.time_end

Termination time for the workflow main time loop

  • Units: s
  • Data Type: FLT_0D
workflow.time_loop.workflow_cycle[:].component[:].control_float

Array of real workflow control parameters used by this component (component specific)

  • Units: mixed
  • Data Type: FLT_1D
  • Coordinates: ["1...N"]
workflow.time_loop.workflow_cycle[:].component[:].control_integer

Array of integer workflow control parameters used by this component (component specific)

  • Data Type: INT_1D
  • Coordinates: ["1...N"]
workflow.time_loop.workflow_cycle[:].component[:].execution_mode

Component execution mode for current workflow cycle. 0 means the component is not executed and the workflow uses results from previous workflow cycle. 1 means the component is executed for this workflow cycle.

  • Data Type: INT_0D
workflow.time_loop.workflow_cycle[:].component[:].index

Index of the component in the ../../../component array

  • Data Type: INT_0D
workflow.time_loop.workflow_cycle[:].component[:].time_interval_elapsed

Simulation time interval for which this component has last computed its results

  • Units: s
  • Data Type: FLT_0D
workflow.time_loop.workflow_cycle[:].component[:].time_interval_request

Simulation time interval for which this component is requested to compute its results

  • Units: s
  • Data Type: FLT_0D
workflow.time_loop.workflow_cycle[:].time

Time

  • Units: s
  • Data Type: FLT_0D