Workspace

class pyarts.workspace.Workspace[source]

A wrapper for the C++ workspace object

__init__(*args, **kwargs)

Overloaded function.

__init__(self: pyarts.arts._Workspace, verbosity: int = 0, agenda_verbosity: int = 0) -> None

Default workspace

__init__(self: pyarts.arts._Workspace, arg0: pyarts.arts._Workspace) -> None

Shallowly copy another workspace

Methods

`AbsInputFromAtmFields`(self[, abs_p, abs_t, ...])	Initialises the WSVs `abs_p`, `abs_t` and `abs_vmrs` from `p_grid`, `t_field` and `vmr_field`.
`AbsorptionLinesCreate`(self, name[, desc, value])	Create new `AbsorptionLines` on the workspace
`AbsorptionLinesSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`AgendaCreate`(self, name[, desc, value])	Create new `Agenda` on the workspace
`AgendaExecute`(self, a[, verbosity])	Execute an agenda.
`AgendaExecuteExclusive`(self, a[, verbosity])	Execute an agenda exclusively.
`AngularGridsSetFluxCalc`(self[, za_grid, ...])	Sets the angular grids for the calculation of radiation fluxes.
`AntennaMultiBeamsToPencilBeams`(self[, ...])	Maps a multi-beam case to a matching pencil beam case.
`AntennaOff`(self[, antenna_dim, mblock_dlos, ...])	Sets some antenna related variables
`Append`(self, output, input[, dimension, ...])	Append one workspace variable to another.
`ArrayOfAbsorptionLinesCreate`(self, name[, ...])	Create new `ArrayOfAbsorptionLines` on the workspace
`ArrayOfAbsorptionLinesSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfAgendaCreate`(self, name[, desc, value])	Create new `ArrayOfAgenda` on the workspace
`ArrayOfAgendaExecute`(self, ...)	Execute an agenda from an ArrayOfAgenda.
`ArrayOfArrayOfAbsorptionLinesCreate`(self, name)	Create new `ArrayOfArrayOfAbsorptionLines` on the workspace
`ArrayOfArrayOfAbsorptionLinesSet`(self, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfGriddedField1Create`(self, name)	Create new `ArrayOfArrayOfGriddedField1` on the workspace
`ArrayOfArrayOfGriddedField1Set`(self, output, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfGriddedField2Create`(self, name)	Create new `ArrayOfArrayOfGriddedField2` on the workspace
`ArrayOfArrayOfGriddedField2Set`(self, output, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfGriddedField3Create`(self, name)	Create new `ArrayOfArrayOfGriddedField3` on the workspace
`ArrayOfArrayOfGriddedField3Set`(self, output, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfIndexCreate`(self, name[, ...])	Create new `ArrayOfArrayOfIndex` on the workspace
`ArrayOfArrayOfIndexSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfArrayOfMatrixCreate`(self, name[, ...])	Create new `ArrayOfArrayOfMatrix` on the workspace
`ArrayOfArrayOfMatrixSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfArrayOfPropagationMatrixCreate`(self, name)	Create new `ArrayOfArrayOfPropagationMatrix` on the workspace
`ArrayOfArrayOfPropagationMatrixSet`(self, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfRadiationVectorCreate`(self, name)	Create new `ArrayOfArrayOfRadiationVector` on the workspace
`ArrayOfArrayOfRadiationVectorSet`(self, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfScatteringMetaDataCreate`(self, ...)	Create new `ArrayOfArrayOfScatteringMetaData` on the workspace
`ArrayOfArrayOfScatteringMetaDataSet`(self, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfSingleScatteringDataCreate`(...)	Create new `ArrayOfArrayOfSingleScatteringData` on the workspace
`ArrayOfArrayOfSingleScatteringDataSet`(self, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfSpeciesTagCreate`(self, name[, ...])	Create new `ArrayOfArrayOfSpeciesTag` on the workspace
`ArrayOfArrayOfSpeciesTagSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfArrayOfStokesVectorCreate`(self, name)	Create new `ArrayOfArrayOfStokesVector` on the workspace
`ArrayOfArrayOfStokesVectorSet`(self, output, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfStringCreate`(self, name[, ...])	Create new `ArrayOfArrayOfString` on the workspace
`ArrayOfArrayOfStringSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfArrayOfTensor3Create`(self, name[, ...])	Create new `ArrayOfArrayOfTensor3` on the workspace
`ArrayOfArrayOfTensor3Set`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfArrayOfTensor6Create`(self, name[, ...])	Create new `ArrayOfArrayOfTensor6` on the workspace
`ArrayOfArrayOfTensor6Set`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfArrayOfTimeCreate`(self, name[, desc, ...])	Create new `ArrayOfArrayOfTime` on the workspace
`ArrayOfArrayOfTimeSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfArrayOfTransmissionMatrixCreate`(self, ...)	Create new `ArrayOfArrayOfTransmissionMatrix` on the workspace
`ArrayOfArrayOfTransmissionMatrixSet`(self, ...)	Sets a workspace variable to the given value.
`ArrayOfArrayOfVectorCreate`(self, name[, ...])	Create new `ArrayOfArrayOfVector` on the workspace
`ArrayOfArrayOfVectorSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfCIARecordCreate`(self, name[, desc, value])	Create new `ArrayOfCIARecord` on the workspace
`ArrayOfCIARecordSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfGriddedField1Create`(self, name[, ...])	Create new `ArrayOfGriddedField1` on the workspace
`ArrayOfGriddedField1Set`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfGriddedField2Create`(self, name[, ...])	Create new `ArrayOfGriddedField2` on the workspace
`ArrayOfGriddedField2Set`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfGriddedField3Create`(self, name[, ...])	Create new `ArrayOfGriddedField3` on the workspace
`ArrayOfGriddedField3Set`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfGriddedField4Create`(self, name[, ...])	Create new `ArrayOfGriddedField4` on the workspace
`ArrayOfGriddedField4Set`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfGriddedFieldGetNames`(self, names, ...)	Get the names of all GriddedFields stored in an Array.
`ArrayOfIndexCreate`(self, name[, desc, value])	Create new `ArrayOfIndex` on the workspace
`ArrayOfIndexLinSpace`(self, output, start, ...)	Initializes an ArrayOfIndex with linear spacing.
`ArrayOfIndexSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`ArrayOfIndexSetConstant`(self, output, ...)	Creates an ArrayOfIndex of length `nelem`, with all values identical.
`ArrayOfJacobianTargetCreate`(self, name[, ...])	Create new `ArrayOfJacobianTarget` on the workspace
`ArrayOfJacobianTargetSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfMatrixCreate`(self, name[, desc, value])	Create new `ArrayOfMatrix` on the workspace
`ArrayOfMatrixSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfPpathCreate`(self, name[, desc, value])	Create new `ArrayOfPpath` on the workspace
`ArrayOfPpathSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`ArrayOfPropagationMatrixCreate`(self, name[, ...])	Create new `ArrayOfPropagationMatrix` on the workspace
`ArrayOfPropagationMatrixSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfQuantumIdentifierCreate`(self, name[, ...])	Create new `ArrayOfQuantumIdentifier` on the workspace
`ArrayOfQuantumIdentifierFromLines`(self, ...)	Sets an ArrayOfQuantumIdentifier to all levels in `abs_lines_per_species` with defined quantum numbers
`ArrayOfQuantumIdentifierSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfRadiationVectorCreate`(self, name[, ...])	Create new `ArrayOfRadiationVector` on the workspace
`ArrayOfRadiationVectorSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfRetrievalQuantityCreate`(self, name[, ...])	Create new `ArrayOfRetrievalQuantity` on the workspace
`ArrayOfRetrievalQuantitySet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfScatteringMetaDataCreate`(self, name)	Create new `ArrayOfScatteringMetaData` on the workspace
`ArrayOfScatteringMetaDataSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfSingleScatteringDataCreate`(self, name)	Create new `ArrayOfSingleScatteringData` on the workspace
`ArrayOfSingleScatteringDataSet`(self, output, ...)	Sets a workspace variable to the given value.
`ArrayOfSparseCreate`(self, name[, desc, value])	Create new `ArrayOfSparse` on the workspace
`ArrayOfSparseSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfSpeciesTagCreate`(self, name[, desc, ...])	Create new `ArrayOfSpeciesTag` on the workspace
`ArrayOfSpeciesTagSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfStokesVectorCreate`(self, name[, ...])	Create new `ArrayOfStokesVector` on the workspace
`ArrayOfStokesVectorSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfStringCreate`(self, name[, desc, value])	Create new `ArrayOfString` on the workspace
`ArrayOfStringSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfSunCreate`(self, name[, desc, value])	Create new `ArrayOfSun` on the workspace
`ArrayOfSunSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`ArrayOfTelsemAtlasCreate`(self, name[, desc, ...])	Create new `ArrayOfTelsemAtlas` on the workspace
`ArrayOfTelsemAtlasSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfTensor3Create`(self, name[, desc, value])	Create new `ArrayOfTensor3` on the workspace
`ArrayOfTensor3Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfTensor4Create`(self, name[, desc, value])	Create new `ArrayOfTensor4` on the workspace
`ArrayOfTensor4Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfTensor5Create`(self, name[, desc, value])	Create new `ArrayOfTensor5` on the workspace
`ArrayOfTensor5Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfTensor6Create`(self, name[, desc, value])	Create new `ArrayOfTensor6` on the workspace
`ArrayOfTensor6Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfTensor7Create`(self, name[, desc, value])	Create new `ArrayOfTensor7` on the workspace
`ArrayOfTensor7Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfTimeCreate`(self, name[, desc, value])	Create new `ArrayOfTime` on the workspace
`ArrayOfTimeNLinSpace`(self, output, ...)	Creates a time array with length `nelem`, equally spaced between the given end values.
`ArrayOfTimeSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`ArrayOfTimeSetConstant`(self, output, ...)	Creates an ArrayOfTime and sets all elements to the specified value.
`ArrayOfTransmissionMatrixCreate`(self, name)	Create new `ArrayOfTransmissionMatrix` on the workspace
`ArrayOfTransmissionMatrixSet`(self, output, value)	Sets a workspace variable to the given value.
`ArrayOfVectorCreate`(self, name[, desc, value])	Create new `ArrayOfVector` on the workspace
`ArrayOfVectorSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`ArrayOfXsecRecordCreate`(self, name[, desc, ...])	Create new `ArrayOfXsecRecord` on the workspace
`ArrayOfXsecRecordSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`AtmFieldPRegrid`(self, output, input, ...[, ...])	Interpolates the input field along the pressure dimension from `p_grid_old` to to `p_grid_new`.
`AtmFieldPerturb`(self, perturbed_field, ...)	Adds a perturbation to an atmospheric field.
`AtmFieldPerturbAtmGrids`(self, ...)	As `AtmFieldPerturb()`, but perturbation follows the atmospheric grids.
`AtmFieldsAndParticleBulkPropFieldFromCompact`(self)	Extract pressure grid and atmospheric fields from `atm_fields_compact`.
`AtmFieldsCalc`(self[, t_field, z_field, ...])	Interpolation of raw atmospheric T, z, VMR, and NLTE T/r fields to calculation grids.
`AtmFieldsCalcExpand1D`(self[, t_field, ...])	Interpolation of 1D raw atmospheric fields to create 2D or 3D homogeneous atmospheric fields.
`AtmFieldsExpand1D`(self[, t_field, z_field, ...])	Maps a 1D case to 2D or 3D homogeneous atmospheric fields.
`AtmFieldsExtract1D`(self[, atmosphere_dim, ...])	Converts 2D or 3D homogeneous atmospheric fields to a 1D case.
`AtmFieldsRefinePgrid`(self, p_grid, ...)	Refines the pressure grid and regrids the clearsky atmospheric fields accordingly.
`AtmRawRead`(self, t_field_raw, ...)	Reads atmospheric data from a scenario.
`AtmWithNLTERawRead`(self, t_field_raw, ...)	Reads atmospheric data from a scenario.
`AtmosphereSet1D`(self[, atmosphere_dim, ...])	Sets the atmospheric dimension to 1D.
`AtmosphereSet2D`(self[, atmosphere_dim, ...])	Sets the atmospheric dimension to be 2D.
`AtmosphereSet3D`(self[, atmosphere_dim, ...])	Sets the atmospheric dimension to 3D.
`CIAInfo`(self, catalogpath, cia_tags[, verbosity])	Display information about the given CIA tags.
`CIARecordCreate`(self, name[, desc, value])	Create new `CIARecord` on the workspace
`CIARecordReadFromFile`(self, cia_record, ...)	Reads CIARecord from Hitran-style file.
`CIARecordSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`CallbackFunctionCreate`(self, name[, desc, value])	Create new `CallbackFunction` on the workspace
`CallbackFunctionExecute`(self, function[, ...])	Execute any code in Arts
`CallbackFunctionSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`CheckUnique`(self[, abs_lines, verbosity])	Checks that `abs_lines` contains only unique absorption lines
`Compare`(self, var1, ...)	Checks the consistency between two variables.
`CompareRelative`(self, var1, var2, maxabsreldiff)	Checks the consistency between two variables by their relative values.
`Copy`(self, output, input[, verbosity])	Copy a workspace variable.
`CovarianceMatrixCreate`(self, name[, desc, value])	Create new `CovarianceMatrix` on the workspace
`CovarianceMatrixSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`DOAngularGridsSet`(self, doit_za_grid_size, ...)	Sets the angular grids for Discrete Ordinate type scattering calculations.
`DOBatchCalc`(self[, dobatch_cloudbox_field, ...])	Performs batch calculations for radiation fields.
`Delete`(self, v[, verbosity])	Deletes a workspace variable.
`DiagonalMatrix`(self, output, v[, verbosity])	Create a diagonal matrix from a vector.
`DoitCalc`(self[, cloudbox_field, ...])	Main DOIT method.
`DoitGetIncoming`(self[, cloudbox_field, ...])	Calculates incoming radiation field of the cloudbox by repeated radiative transfer calculations.
`DoitGetIncoming1DAtm`(self[, cloudbox_field, ...])	As `DoitGetIncoming()` but assumes clear sky part to be 1D.
`DoitInit`(self[, doit_scat_field, ...])	Initialises variables for DOIT scattering calculations.
`DoitScatteringDataPrepare`(self[, ...])	Prepares single scattering data for a DOIT scattering calculation.
`DoitWriteIterationFields`(self, ...)	Writes DOIT iteration fields.
`Duration`(self, duration, start, end[, verbosity])	Sets the seconds between two times.
`EnergyLevelMapCreate`(self, name[, desc, value])	Create new `EnergyLevelMap` on the workspace
`EnergyLevelMapSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`Error`(self, msg[, verbosity])	Issues an error and exits ARTS.
`Exit`(self[, verbosity])	Stops the execution and exits ARTS.
`Extract`(self, needle, haystack, index[, ...])	Extracts an element from an array.
`ExtractFromMetaSingleScatSpecies`(self, ...)	Extract (numeric) parameters from scat_meta of a single scattering species.
`FastemStandAlone`(self, emissivity, ...)	Stand-alone usage of FASTEM.
`FieldFromGriddedField`(self, output, ...)	Extract the data from a GriddedField.
`FlagOff`(self, flag[, verbosity])	Sets an index variable that acts as an on/off flag to 0.
`FlagOn`(self, flag[, verbosity])	Sets an index variable that acts as an on/off flag to 1.
`Flatten`(self, output, input[, verbosity])	Flattens an ArrayOfArray<T> to Array<T> or an Array of matpack-types to a larger dimension matpack (if dimensions agree)
`ForLoop`(self, forloop_agenda, ...)	A simple for-loop.
`FrequencyFromCGSAngularWavenumber`(self, ...)	Convert from angular wavenumber [cm^-1] to frequency [Hz].
`FrequencyFromCGSKayserWavenumber`(self, ...)	Convert from Kayser wavenumber [cm^-1] to frequency [Hz].
`FrequencyFromWavelength`(self, frequency, ...)	Convert from wavelength [m] to frequency [Hz].
`GasAbsLookupCreate`(self, name[, desc, value])	Create new `GasAbsLookup` on the workspace
`GasAbsLookupSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`GetEnvironmentVariable`(self, output, input)	Copy the contents of an environment variable to an ARTS String or Index.
`GetNumberOfThreads`(self, nthreads[, verbosity])	Returns the number of threads used by ARTS.
`GridPosCreate`(self, name[, desc, value])	Create new `GridPos` on the workspace
`GridPosSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`GriddedField1Create`(self, name[, desc, value])	Create new `GriddedField1` on the workspace
`GriddedField1Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`GriddedField2Create`(self, name[, desc, value])	Create new `GriddedField2` on the workspace
`GriddedField2Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`GriddedField3Create`(self, name[, desc, value])	Create new `GriddedField3` on the workspace
`GriddedField3Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`GriddedField4Create`(self, name[, desc, value])	Create new `GriddedField4` on the workspace
`GriddedField4Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`GriddedField5Create`(self, name[, desc, value])	Create new `GriddedField5` on the workspace
`GriddedField5Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`GriddedField6Create`(self, name[, desc, value])	Create new `GriddedField6` on the workspace
`GriddedField6Set`(self, output, value[, ...])	Sets a workspace variable to the given value.
`GriddedFieldGetName`(self, name, griddedfield)	Get the name of a GriddedField.
`GriddedFieldLatLonExpand`(self, output, input)	Expands the latitude and longitude grid of the GriddedField to [-90, 90] and [0,360], respectively.
`GriddedFieldLatLonRegrid`(self, output, ...)	Interpolates the input field along the latitude and longitude dimensions to `lat_true` and `lon_true`.
`GriddedFieldPRegrid`(self, output, ...)	Interpolates the input field along the pressure dimension to `p_grid`.
`GriddedFieldZToPRegrid`(self, output, ...)	Interpolates the input field along the vertical dimension to `p_grid`.
`HitranRelaxationMatrixDataCreate`(self, name)	Create new `HitranRelaxationMatrixData` on the workspace
`HitranRelaxationMatrixDataSet`(self, output, ...)	Sets a workspace variable to the given value.
`HydrotableCalc`(self, hydrotable, ...)	Creates a look-up table of scattering properties.
`INCLUDE`(self[, verbosity])	Includes the contents of another controlfile.
`Ignore`(self, input[, verbosity])	Ignore a workspace variable.
`IndexAdd`(self, output, input, value[, verbosity])	Adds a Index and a value (output = input + value).
`IndexCreate`(self, name[, desc, value])	Create new `Index` on the workspace
`IndexDivide`(self, output, input, value[, ...])	Integer division of a Index and a value (output = input / value).
`IndexMultiply`(self, output, input, value[, ...])	Multiplies a Index and a value (output = input * value).
`IndexNumberOfAtmosphericPoints`(self, n[, ...])	Counts number of points in the atmosphere.
`IndexSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`IndexSetToLast`(self, nelem, ...)	Set an Index to point towards last position of array-type variables.
`IndexStepDown`(self, output, input[, verbosity])	Performas: output = input - 1
`IndexStepUp`(self, output, input[, verbosity])	Performas: output = input + 1
`IndexSubtract`(self, output, input, value[, ...])	Subtracts a Index value (output = input - value).
`InterpAtmFieldToPosition`(self, output, ...)	Point interpolation of atmospheric fields.
`InterpGriddedField2ToPosition`(self, output, ...)	Latitude and longitude interpolation of a GriddedField2.
`InterpSurfaceFieldToPosition`(self, output, ...)	Point interpolation of surface fields.
`InterpSurfaceTypeMask`(self, surface_type[, ...])	Interpolation of surface type mask.
`IntersectionGeometricalWithAltitude`(self, ...)	Calculates the geometrical intersection with an altitude.
`JacobianTargetCreate`(self, name[, desc, value])	Create new `JacobianTarget` on the workspace
`JacobianTargetSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`LocalTimeOffset`(self, dt[, verbosity])	Sets the seconds between localtime and gmtime representation of now().
`MCAntennaCreate`(self, name[, desc, value])	Create new `MCAntenna` on the workspace
`MCAntennaSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`MCGeneral`(self[, y, mc_iteration_count, ...])	A generalised 3D reversed Monte Carlo radiative algorithm, that allows for 2D antenna patterns, surface reflection and arbitrary sensor positions.
`MCRadar`(self[, y, mc_error, mc_antenna, ...])	A radar 3D foward Monte Carlo radiative algorithm, that allows for 2D antenna patterns and arbitrary sensor positions.
`MCSetSeedFromTime`(self[, mc_seed, verbosity])	Sets the value of mc_seed from system time
`MagFieldsCalc`(self[, mag_u_field, ...])	Interpolation of raw magnetic fields to calculation grids.
`MagFieldsCalcExpand1D`(self[, mag_u_field, ...])	Interpolation of 1D raw atmospheric fields to create 2D or 3D homogeneous magnetic fields.
`MagFieldsCalcIGRF`(self[, mag_u_field, ...])	Computes the magnetic field from part of the IGRF13 magnetic field model
`MagFieldsFromAltitudeRawCalc`(self[, ...])	Regrids the rawfield by lat-lon and interpolates to z_field.
`MagRawRead`(self, mag_u_field_raw, ...)	Reads magnetic field data from a scenario.
`MapOfErrorCorrectedSuddenDataCreate`(self, name)	Create new `MapOfErrorCorrectedSuddenData` on the workspace
`MapOfErrorCorrectedSuddenDataSet`(self, ...)	Sets a workspace variable to the given value.
`Matrix1ColFromVector`(self, output, v[, ...])	Forms a matrix containing one column from a vector.
`Matrix1RowFromVector`(self, output, v[, ...])	Forms a matrix containing one row from a vector.
`Matrix2ColFromVectors`(self, output, v1, v2)	Forms a matrix containing two columns from two vectors.
`Matrix2RowFromVectors`(self, output, v1, v2)	Forms a matrix containing two rows from two vectors.
`Matrix3ColFromVectors`(self, output, v1, v2, v3)	Forms a matrix containing three columns from three vectors.
`Matrix3RowFromVectors`(self, output, v1, v2, v3)	Forms a matrix containing three rows from three vectors.
`MatrixAdd`(self, output, input, value[, ...])	Adds a scalar to all elements of a matrix.
`MatrixCBR`(self, output, pyarts.arts.Matrix], ...)	Sets a matrix to hold cosmic background radiation (CBR).
`MatrixCopySparse`(self, output, input[, ...])	Creates a matrix by copying a variable of type Sparse.
`MatrixCreate`(self, name[, desc, value])	Create new `Matrix` on the workspace
`MatrixDivide`(self, output, input, value[, ...])	Divides all elements of a matrix with the specified value.
`MatrixExtractFromTensor3`(self, output, ...)	Extracts a Matrix from a Tensor3.
`MatrixFromCovarianceMatrix`(self, output, input)	Turns a covariance matrix into a Matrix.
`MatrixGaussian`(self, Y, pyarts.arts.Matrix], ...)	Fills a matrix with a Gaussian function.
`MatrixIdentity`(self, output, n[, value, ...])	Returns the identity matrix.
`MatrixMatrixMultiply`(self, Y, M, X[, verbosity])	Multiply a Matrix with another Matrix and store the result in the result Matrix.
`MatrixMultiply`(self, output, input, value[, ...])	Multiplies all elements of a matrix with the specified value.
`MatrixPlanck`(self, output, ...)	Sets a matrix to hold blackbody radiation.
`MatrixReshapeTensor3`(self, output, input[, ...])	Creates a matrix as reshaped version of a tenor3.
`MatrixSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`MatrixSetConstant`(self, output, ...)	Creates a matrix and sets all elements to the specified value.
`MatrixSubtract`(self, output, input, value[, ...])	Subtracts a scalar from all elements of a matrix.
`MatrixUnitIntensity`(self, output, ...)	Sets a matrix to hold unpolarised radiation with unit intensity.
`NumericAdd`(self, output, input, value[, ...])	Adds a Numeric and a value (output = input + value).
`NumericClip`(self, output, ...)	Clipping of a Numeric.
`NumericCreate`(self, name[, desc, value])	Create new `Numeric` on the workspace
`NumericDivide`(self, output, input, value[, ...])	Divides a Numeric with a value (output = input / value).
`NumericFromVector`(self, output, input, op[, ...])	Derivs a Numeric from a vector, following selected operation.
`NumericMultiply`(self, output, input, value)	Multiplies a Numeric with a value (output = input * value).
`NumericSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`NumericSubtract`(self, output, input, value)	Subtracts a Numeric value (output = input - value).
`OEM`(self, x, pyarts.arts.Vector]] = self.x, ...)	Inversion by the so called optimal estimation method (OEM).
`OptimizeDoitPressureGrid`(self[, p_grid, ...])	Optimization of the pressure grid for RT calculation.
`PFromZSimple`(self, p_grid, z_grid[, verbosity])	Simple conversion from altitude to pressure.
`PlanetSet`(self, g0_agenda, ...)	Sets `g0_agenda`, `refellipsoid`, `molarmass_dry_air`, and `planet_rotation_period` to default values
`PpathCreate`(self, name[, desc, value])	Create new `Ppath` on the workspace
`PpathSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`PredefinedModelDataCreate`(self, name[, ...])	Create new `PredefinedModelData` on the workspace
`PredefinedModelDataSet`(self, output, value)	Sets a workspace variable to the given value.
`Print`(self, input[, level, verbosity])	Prints a variable on the screen.
`PrintPhysicalConstants`(self[, verbosity])	Prints (most) physical constants used in ARTS.
`PrintWorkspace`(self[, only_allocated, ...])	Prints a list of the workspace variables.
`PropagationMatrixCreate`(self, name[, desc, ...])	Create new `PropagationMatrix` on the workspace
`PropagationMatrixSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`QuantumIdentifierCreate`(self, name[, desc, ...])	Create new `QuantumIdentifier` on the workspace
`QuantumIdentifierSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`RT4Calc`(self[, cloudbox_field, za_grid, ...])	Interface to the PolRadTran RT4 scattering solver (by F.
`RT4CalcWithRT4Surface`(self[, ...])	As RT4Calc except for using RT4's proprietary surface type handling.
`RT4Test`(self, out_rad[, datapath, verbosity])	RT4 validation test.
`RadarOnionPeelingTableCalc`(self, invtable, ...)	Creates a radar inversion table.
`RadiationFieldSpectralIntegrate`(self, ...)	Integrates fields like `spectral_irradiance_field` or `spectral_radiance_field` over frequency.
`RadiationVectorCreate`(self, name[, desc, value])	Create new `RadiationVector` on the workspace
`RadiationVectorSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`RationalAdd`(self, output, input, value[, ...])	Adds a Rational and a value (output = input + value).
`RationalCreate`(self, name[, desc, value])	Create new `Rational` on the workspace
`RationalDivide`(self, output, input, value[, ...])	Divides a Rational with a value (output = input / value).
`RationalMultiply`(self, output, input, value)	Multiplies a Rational with a value (output = input * value).
`RationalSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`RationalSubtract`(self, output, input, value)	Subtracts a Rational value (output = input - value).
`ReadARTSCAT`(self, abs_lines, ...)	Reads an old ArrayOfLineRecord ARTSCAT file
`ReadArrayOfARTSCAT`(self, abs_lines, ...)	Reads an old Array<ArrayOfLineRecord> ARTSCAT file.
`ReadHITRAN`(self, abs_lines, ...)	Reads a HITRAN .par file.
`ReadJPL`(self, abs_lines, ...)	Reads a JPL file.
`ReadLBLRTM`(self, abs_lines, ...)	Reads a LBLRTM file.
`ReadNetCDF`(self, output, filename[, verbosity])	Reads a workspace variable from a NetCDF file.
`ReadSplitARTSCAT`(self, abs_lines, ...)	Reads several old ArrayOfLineRecord ARTSCAT file
`ReadXML`(self, output[, filename, verbosity])	Reads a workspace variable from an XML file.
`ReadXMLIndexed`(self, output[, file_index, ...])	As `ReadXML()`, but reads indexed file names.
`ReadXsecData`(self, xsec_fit_data, ...)	Reads HITRAN Crosssection coefficients
`Reduce`(self, o, i[, verbosity])	Reduces a larger class to a smaller class of same size.
`ScatElementsPndAndScatAdd`(self, ...)	Adds single scattering data and particle number density for individual scattering elements.
`ScatElementsSelect`(self, scat_data_raw, ...)	Allows to limit considered scattering elements according to size.
`ScatElementsToabs_speciesAdd`(self, ...)	Appends scattering elements to `abs_species` including reading single scattering data and corresponding pnd field.
`ScatSpeciesExtendTemperature`(self[, ...])	Extends valid temperature range of single scattering data.
`ScatSpeciesInit`(self[, scat_species, ...])	Initializes the scattering species related data variables.
`ScatSpeciesMerge`(self[, pnd_field, ...])	Merges single scattering data of all scattering elements into one element of bulk properties.
`ScatSpeciesPndAndScatAdd`(self, ...)	Adds single scattering data and particle number densities for one scattering species.
`ScatSpeciesScatAndMetaRead`(self, ...)	Reads single scattering data and scattering meta data for one scattering species.
`ScatSpeciesSizeMassInfo`(self, ...)	Derives size and mass information for a scattering species.
`ScatteringMetaDataCreate`(self, name[, desc, ...])	Create new `ScatteringMetaData` on the workspace
`ScatteringMetaDataSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`Select`(self, needles, haystack, needleindexes)	Method to select some elements from one array and copy them to a new array.
`SetNumberOfThreads`(self, nthreads[, verbosity])	Change the number of threads used by ARTS.
`SingleScatteringDataCreate`(self, name[, ...])	Create new `SingleScatteringData` on the workspace
`SingleScatteringDataSet`(self, output, value)	Sets a workspace variable to the given value.
`Sleep`(self, time[, verbosity])	Sleeps for a number of seconds
`SparseCreate`(self, name[, desc, value])	Create new `Sparse` on the workspace
`SparseIdentity`(self, output, n[, value, ...])	Returns a sparse dentity matrix.
`SparseSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`SparseSparseMultiply`(self, M, M1, M2[, ...])	Multiplies a Sparse with another Sparse, result stored in Sparse.
`SpeciesIsotopologueRatiosCreate`(self, name)	Create new `SpeciesIsotopologueRatios` on the workspace
`SpeciesIsotopologueRatiosSet`(self, output, value)	Sets a workspace variable to the given value.
`SpectralRadianceProfileOperatorCreate`(self, name)	Create new `SpectralRadianceProfileOperator` on the workspace
`SpectralRadianceProfileOperatorSet`(self, ...)	Sets a workspace variable to the given value.
`StokesVectorCreate`(self, name[, desc, value])	Create new `StokesVector` on the workspace
`StokesVectorSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`StringCreate`(self, name[, desc, value])	Create new `String` on the workspace
`StringJoin`(self, output, in1, in2[, in3, ...])	Concatenate two or more strings.
`StringSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`SurfaceBlackbody`(self[, surface_los, ...])	Blackbody surface, with support for Jacobian calculations.
`SurfaceDummy`(self[, dsurface_rmatrix_dx, ...])	Dummy method for `iy_surface_agenda`.
`SurfaceFastem`(self, surface_los, ...)	FASTEM sea surface microwave emissivity parametrization.
`SurfaceFlatScalarReflectivity`(self, ...)	Piecewise linear scalar surface reflectivity.
`SurfaceTessem`(self[, surface_los, ...])	TESSEM sea surface microwave emissivity parametrization.
`TMatrixTest`(self[, verbosity])	T-Matrix validation test.
`TangentPointExtract`(self, tan_pos[, ppath, ...])	Finds the tangent point of a propagation path.
`TangentPointPrint`(self[, ppath, level, ...])	Prints information about the tangent point of a propagation path.
`TelsemAtlasCreate`(self, name[, desc, value])	Create new `TelsemAtlas` on the workspace
`TelsemAtlasSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Tensor3Add`(self, output, input, value[, ...])	Adds a scalar value to all elements of a tensor3.
`Tensor3Create`(self, name[, desc, value])	Create new `Tensor3` on the workspace
`Tensor3ExtractFromTensor4`(self, output, ...)	Extracts a Tensor3 from a Tensor4.
`Tensor3FromVector`(self, output, v[, verbosity])	Forms a Tensor3 of size nx1x1 from a vector of length n.
`Tensor3Multiply`(self, output, input, value)	Multiplies all elements of a tensor with the specified value.
`Tensor3Set`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Tensor3SetConstant`(self, output, ...)	Creates a tensor and sets all elements to the specified value.
`Tensor4Add`(self, output, input, value[, ...])	Adds a scalar value to all elements of a tensor4.
`Tensor4Create`(self, name[, desc, value])	Create new `Tensor4` on the workspace
`Tensor4Multiply`(self, output, input, value)	Multiplies all elements of a tensor with the specified value.
`Tensor4Set`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Tensor4SetConstant`(self, output, ...)	Creates a tensor and sets all elements to the specified value.
`Tensor5Create`(self, name[, desc, value])	Create new `Tensor5` on the workspace
`Tensor5Multiply`(self, output, input, value)	Multiplies all elements of a tensor with the specified value.
`Tensor5Set`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Tensor5SetConstant`(self, output, ...)	Creates a tensor and sets all elements to the specified value.
`Tensor6Create`(self, name[, desc, value])	Create new `Tensor6` on the workspace
`Tensor6Multiply`(self, output, input, value)	Multiplies all elements of a tensor with the specified value.
`Tensor6Set`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Tensor6SetConstant`(self, output, ...)	Creates a tensor and sets all elements to the specified value.
`Tensor7Create`(self, name[, desc, value])	Create new `Tensor7` on the workspace
`Tensor7Multiply`(self, output, input, value)	Multiplies all elements of a tensor with the specified value.
`Tensor7Set`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Tensor7SetConstant`(self, output, ...)	Creates a tensor and sets all elements to the specified value.
`TessemNNCreate`(self, name[, desc, value])	Create new `TessemNN` on the workspace
`TessemNNReadAscii`(self, tessem_nn, filename)	Reads the initialization data for the TESSEM NeuralNet from an ASCII file.
`TessemNNSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Test`(self[, verbosity])	A dummy method that can be used for test purposes.
`TestArrayOfAgenda`(self[, test_agenda_array, ...])	A method that is used for the TestArrayOfAgenda test case.
`TestTessem`(self, outvalues, net, invalues[, ...])	Example method for TESSEM2.
`TimeCreate`(self, name[, desc, value])	Create new `Time` on the workspace
`TimeSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`TimerCreate`(self, name[, desc, value])	Create new `Timer` on the workspace
`TimerSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`Touch`(self, input[, verbosity])	As `Ignore()` but for agenda output.
`TransmissionMatrixCreate`(self, name[, desc, ...])	Create new `TransmissionMatrix` on the workspace
`TransmissionMatrixSet`(self, output, value[, ...])	Sets a workspace variable to the given value.
`Trapz`(self, output, x, y[, verbosity])	Intregrates a vector of over its grid range
`VectorAdd`(self, output, input, value[, ...])	Adds a scalar to all elements of a vector.
`VectorAddElementwise`(self, c, a, b[, verbosity])	Element-wise addition of two vectors.
`VectorClip`(self, output, ...)	Clipping of a vector.
`VectorCreate`(self, name[, desc, value])	Create new `Vector` on the workspace
`VectorCrop`(self, output, input[, min_value, ...])	Keeps only values of a vector inside the specified range.
`VectorDivide`(self, output, input, value[, ...])	Divides all elements of a vector with the same value.
`VectorDivideElementwise`(self, c, a, b[, ...])	Element-wise division of two vectors.
`VectorExtractFromMatrix`(self, output, input, ...)	Extracts a Vector from a Matrix.
`VectorFlip`(self, output, input[, verbosity])	Flips a vector.
`VectorGaussian`(self, y, x[, x0, si, fwhm, ...])	Fills a vector with a Gaussian function.
`VectorInsertGridPoints`(self, output, input, ...)	Insert some additional points into a grid.
`VectorLinSpace`(self, output, start, stop, step)	Initializes a vector with linear spacing.
`VectorLogSpace`(self, output, start, stop, step)	Initializes a vector with logarithmic spacing.
`VectorMatrixMultiply`(self, y, M, x[, verbosity])	Multiply a Vector with a Matrix and store the result in another Vector.
`VectorMultiply`(self, output, input, value[, ...])	Multiplies all elements of a vector with the same value.
`VectorMultiplyElementwise`(self, c, a, b[, ...])	Element-wise multiplication of two vectors.
`VectorNLinSpace`(self, output, ...)	Creates a vector with length `nelem`, equally spaced between the given end values.
`VectorNLinSpaceVector`(self, output, ...)	As `VectorNLinSpace()` but end points taken from a vector.
`VectorNLogSpace`(self, output, ...)	Creates a vector with length `nelem`, equally logarithmically spaced between the given end values.
`VectorPower`(self, output, input, power[, ...])	Calculates the power of each element in a vector.
`VectorReshapeMatrix`(self, output, input[, ...])	Converts a Matrix to a Vector.
`VectorSet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`VectorSetConstant`(self, output, ...)	Creates a vector and sets all elements to the specified value.
`VectorSparseMultiply`(self, y, M, x[, verbosity])	Multiply a Vector with a Sparse and store the result in another Vector.
`VectorSubtract`(self, output, input, value[, ...])	Subtracts a scalar from all elements of a vector.
`VectorSubtractElementwise`(self, c, a, b[, ...])	Element-wise subtraction of two vectors.
`VectorZtanToZa1D`(self, v_za, ...)	Converts a set of geometrical tangent altitudes to zenith angles.
`VectorZtanToZaRefr1D`(self, v_za, ...)	Converts a set of true tangent altitudes to zenith angles.
`VerbosityCreate`(self, name[, desc, value])	Create new `Verbosity` on the workspace
`VerbositySet`(self, output, value[, verbosity])	Sets a workspace variable to the given value.
`WMRFSelectChannels`(self[, f_grid, ...])	Select some channels for WMRF calculation.
`Wigner3Init`(self[, wigner_initialized, ...])	Initialize the wigner 3 tables
`Wigner3Unload`(self[, wigner_initialized, ...])	Unloads the wigner 3 tables
`Wigner6Init`(self[, wigner_initialized, ...])	Initialize the wigner 3 and 6 tables
`Wigner6Unload`(self[, wigner_initialized, ...])	Unloads the wigner 3 and 6 tables
`WignerFastInfoPrint`(self[, ...])	Prints the fast wigner table information if compiled with this option
`WindFieldsCalc`(self[, wind_u_field, ...])	Interpolation of raw wind fields to calculation grids.
`WindFieldsCalcExpand1D`(self[, wind_u_field, ...])	Interpolation of 1D raw atmospheric fields to create 2D or 3D homogeneous wind fields.
`WindRawRead`(self, wind_u_field_raw, ...)	Reads wind field data from a scenario.
`WriteBuiltinPartitionFunctionsXML`(self, ...)	Writes all the builtin partition functions to file.
`WriteMolTau`(self, f_grid, ...)	Writes a 'molecular_tau_file' as required for libRadtran.
`WriteNetCDF`(self, input[, filename, verbosity])	Writes a workspace variable to a NetCDF file.
`WriteNetCDFIndexed`(self, file_index, ...)	As `WriteNetCDF()`, but creates indexed file names.
`WriteXML`(self, output_file_format, ...)	Writes a workspace variable to an XML file.
`WriteXMLIndexed`(self, output_file_format, ...)	As `WriteXML()`, but creates indexed file names.
`ZFromPSimple`(self, z_grid, p_grid[, verbosity])	Simple conversion from pressure to altitude.
`__init__`(args, *kwargs)	Overloaded function.
`abs_cia_dataAddCIARecord`(self, abs_cia_data, ...)	Takes CIARecord as input and appends the results in the appropriate place.
`abs_cia_dataReadFromCIA`(self, abs_cia_data, ...)	Read data from a CIA data file for all CIA molecules defined in `abs_species`.
`abs_cia_dataReadFromXML`(self[, ...])	Read data from a CIA XML file and check that all CIA tags defined in `abs_species` are present in the file.
`abs_cia_dataReadSpeciesSplitCatalog`(self, ...)	Reads a species split CIA dataset.
`abs_hitran_relmat_dataReadHitranRelmatDataAndLines`(...)	Reads HITRAN line mixing data from a basedir
`abs_linesAdaptOnTheFlyLineMixing`(self, ...)	Adapts the line-catalog from using `ecs_data` data to.
`abs_linesBaseParameterMatchingLevel`(self, ...)	Set parameter of all levels in `abs_lines` that match with `QuantumIdentifier`.
`abs_linesBaseParameterMatchingLevels`(self, ...)	See `abs_linesBaseParameterMatchingLevel()`
`abs_linesBaseParameterMatchingLines`(self, ...)	Set parameter of all lines in `abs_lines` that match with `QuantumIdentifier`.
`abs_linesChangeBaseParameterForMatchingLevel`(...)	Change parameter of all levels in `abs_lines` that match with `QuantumIdentifier`.
`abs_linesChangeBaseParameterForMatchingLevels`(...)	See `abs_linesChangeBaseParameterForMatchingLevel()`
`abs_linesChangeBaseParameterForMatchingLines`(...)	Change parameter of all lines in `abs_lines` that match with `QuantumIdentifier`.
`abs_linesCompact`(self[, abs_lines, f_grid, ...])	Removes lines that are unimportant because of their cutoff frequency range
`abs_linesCutoff`(self, abs_lines, ...)	Sets cutoff type and magnitude for all lines.
`abs_linesCutoffMatch`(self, abs_lines, ...)	As `abs_linesCutoff()` but for matching bands
`abs_linesDeleteBadF0`(self, abs_lines, ...)	Deletes all lines in `abs_lines` that have bad central frequencies
`abs_linesEmptyBroadeningParameters`(self[, ...])	Sets a broadening parameter to empty if it is effectively empty
`abs_linesFlatten`(self[, abs_lines, verbosity])	Makes `abs_lines` with the same ID share lines
`abs_linesKeepBand`(self, abs_lines, ...)	Keep only `qid`-match band lines in `abs_lines`
`abs_linesLineShapeModelParametersMatchingLines`(...)	Sets line shape model data parameter in matching lines.
`abs_linesLineShapeType`(self, abs_lines, ...)	Sets shape calculations type for all lines.
`abs_linesLineShapeTypeMatch`(self, abs_lines, ...)	As `abs_linesLineShapeType()` but for matching bands
`abs_linesLinemixingLimit`(self, abs_lines, ...)	Sets line mixing limit for all lines.
`abs_linesLinemixingLimitMatch`(self, ...)	See `abs_linesLinemixingLimit()` for values
`abs_linesManualMirroring`(self[, abs_lines, ...])	Makes a copy of all lines at negative frequency setting themto manual mirroring mode
`abs_linesMirroring`(self, abs_lines, ...)	Sets mirroring type for all lines.
`abs_linesMirroringMatch`(self, abs_lines, ...)	As `abs_linesMirroring()` but for matching bands
`abs_linesNormalization`(self, abs_lines, ...)	Sets normalization type for all lines
`abs_linesNormalizationMatch`(self, abs_lines, ...)	As `abs_linesNormalization()` but for matching bands
`abs_linesPopulation`(self, abs_lines, ...)	Sets population type for all lines.
`abs_linesPopulationMatch`(self, abs_lines, ...)	As `abs_linesPopulation()` but for matching bands
`abs_linesReadSpeciesSplitCatalog`(self, ...)	Reads a catalog of absorption lines files in a directory
`abs_linesRemoveBand`(self, abs_lines, ...)	Removes `qid` band from `abs_lines`
`abs_linesRemoveEmptyBands`(self[, abs_lines, ...])	Removes emtpy bands from `abs_lines`
`abs_linesRemoveLines`(self[, abs_lines, ...])	Remove lines `abs_lines` outside of specifications
`abs_linesRemoveLinesFromSpecies`(self, ...)	As `abs_linesRemoveLines()` but only for bands of the given species.
`abs_linesReplaceBands`(self, abs_lines, ...)	Replace all bands in `abs_lines` that match with bands in `replacing_bands`.
`abs_linesReplaceLines`(self, abs_lines, ...)	Replace all lines in `abs_lines` that match with lines in replacement_lines.
`abs_linesSort`(self[, abs_lines, option, ...])	Sorts first the lines then the bands by smallest first
`abs_linesT0`(self, abs_lines, ...)	Sets reference temperature for all lines.
`abs_linesT0Match`(self, abs_lines, ...)	Sets reference temperature
`abs_linesTurnOffLineMixing`(self[, ...])	Sets all line mixing parameters to emtpy.
`abs_linesWriteSpeciesSplitCatalog`(self, ...)	Writes a split catalog, AbsorptionLines by AbsorptionLines.
`abs_linesZeemanCoefficients`(self, abs_lines, ...)	Sets the Zeeman coefficients of the lines by user input
`abs_lines_per_speciesAdaptHitranLineMixing`(...)	Adapts the line-catalog from using `abs_hitran_relmat_data` to.
`abs_lines_per_speciesAdaptOnTheFlyLineMixing`(...)	Calls `abs_linesAdaptOnTheFlyLineMixing()` for each internal array
`abs_lines_per_speciesBaseParameterMatchingLevel`(...)	See `abs_linesBaseParameterMatchingLevel()`
`abs_lines_per_speciesBaseParameterMatchingLevels`(...)	See `abs_linesBaseParameterMatchingLevel()`
`abs_lines_per_speciesChangeBaseParameterForMatchingLevel`(...)	See `abs_linesChangeBaseParameterForMatchingLevel()`
`abs_lines_per_speciesChangeBaseParameterForMatchingLevels`(...)	See `abs_linesChangeBaseParameterForMatchingLevel()`
`abs_lines_per_speciesChangeBaseParameterForMatchingLines`(...)	See `abs_linesChangeBaseParameterForMatchingLines()`
`abs_lines_per_speciesChangeBaseParameterForSpecies`(...)	See `abs_linesChangeBaseParameterForMatchingLines()` but for single species
`abs_lines_per_speciesCompact`(self[, ...])	See `abs_linesCompact()`
`abs_lines_per_speciesCreateFromLines`(self[, ...])	Split lines up into the different species.
`abs_lines_per_speciesCutoff`(self, ...)	As `abs_linesCutoff()` but for `abs_lines_per_species`
`abs_lines_per_speciesCutoffMatch`(self, ...)	As `abs_lines_per_speciesCutoff()` but for matching bands
`abs_lines_per_speciesCutoffSpecies`(self, ...)	As `abs_lines_per_speciesCutoff()` but for matching `abs_species`
`abs_lines_per_speciesFlatten`(self[, ...])	Calls `abs_linesFlatten()` per internal set of bands
`abs_lines_per_speciesLineShapeModelParametersMatchingLines`(...)	See `abs_linesLineShapeModelParametersMatchingLines()`
`abs_lines_per_speciesLineShapeType`(self, ...)	As `abs_linesLineShapeType()` but for `abs_lines_per_species`
`abs_lines_per_speciesLineShapeTypeMatch`(...)	As `abs_lines_per_speciesLineShapeType()` but for matching bands
`abs_lines_per_speciesLineShapeTypeSpecies`(...)	As `abs_lines_per_speciesLineShapeType()` but for matching `abs_species`
`abs_lines_per_speciesLinemixingLimit`(self, ...)	See `abs_linesLinemixingLimit()`
`abs_lines_per_speciesLinemixingLimitMatch`(...)	See `abs_linesLinemixingLimit()` for values
`abs_lines_per_speciesLinemixingLimitSpecies`(...)	See `abs_linesLinemixingLimit()` but for single species
`abs_lines_per_speciesManualMirroring`(self[, ...])	Makes a copy of all lines at negative frequency setting them.
`abs_lines_per_speciesManualMirroringSpecies`(...)	Calls `abs_linesManualMirroring()` for given species in `abs_species`
`abs_lines_per_speciesMirroring`(self, ...)	As `abs_linesMirroring()` but for `abs_lines_per_species`
`abs_lines_per_speciesMirroringMatch`(self, ...)	As `abs_lines_per_speciesMirroring()` but for matching bands
`abs_lines_per_speciesMirroringSpecies`(self, ...)	As `abs_lines_per_speciesMirroring()` but for matching `abs_species`
`abs_lines_per_speciesNormalization`(self, ...)	As `abs_linesNormalization()` but for `abs_lines_per_species`
`abs_lines_per_speciesNormalizationMatch`(...)	As `abs_lines_per_speciesNormalization()` but for matching bands
`abs_lines_per_speciesNormalizationSpecies`(...)	As `abs_lines_per_speciesNormalization()` but for matching `abs_species`
`abs_lines_per_speciesPopulation`(self, ...)	As `abs_linesPopulation()` but for `abs_lines_per_species`
`abs_lines_per_speciesPopulationMatch`(self, ...)	As `abs_lines_per_speciesPopulation()` but for matching bands
`abs_lines_per_speciesPopulationNlteField`(self)	Turns on NTLE calculations.
`abs_lines_per_speciesPopulationSpecies`(self, ...)	As `abs_lines_per_speciesPopulation()` but for matching `abs_species`
`abs_lines_per_speciesReadSpeciesSplitCatalog`(...)	See `abs_linesReadSpeciesSplitCatalog()` but only for `abs_species`
`abs_lines_per_speciesRemoveLines`(self[, ...])	Repeats `abs_linesRemoveLines()` for all inner arrays
`abs_lines_per_speciesRemoveLinesFromSpecies`(...)	Repeats `abs_linesRemoveLinesFromSpecies()` for all inner arrays
`abs_lines_per_speciesSetEmpty`(self[, ...])	Empties `abs_lines_per_species` at the correct size.
`abs_lines_per_speciesT0`(self, ...)	See `abs_linesT0()`
`abs_lines_per_speciesT0Match`(self, ...)	Sets reference temperature
`abs_lines_per_speciesT0Species`(self, ...)	See `abs_linesT0()` but for single species
`abs_lines_per_speciesTurnOffLineMixing`(self)	Sets all line mixing parameters to emtpy.
`abs_lines_per_speciesWriteSpeciesSplitCatalog`(...)	See `abs_linesWriteSpeciesSplitCatalog()`
`abs_lines_per_speciesZeemanCoefficients`(...)	See `abs_linesZeemanCoefficients()`
`abs_lookupAdapt`(self[, abs_lookup, ...])	Adapts a gas absorption lookup table to the current calculation.
`abs_lookupCalc`(self[, abs_lookup, ...])	Creates a gas absorption lookup table.
`abs_lookupInit`(self[, abs_lookup, verbosity])	Creates an empty gas absorption lookup table.
`abs_lookupSetup`(self[, abs_p, abs_t, ...])	Set up input parameters for abs_lookupCalc.
`abs_lookupSetupBatch`(self, abs_p, ...)	Set up input parameters for abs_lookupCalc for batch calculations.
`abs_lookupSetupWide`(self[, abs_p, abs_t, ...])	Set up input parameters for abs_lookupCalc for a wide range of atmospheric conditions.
`abs_nlteFromRaw`(self, abs_nlte, ...)	Sets NLTE values manually
`abs_speciesAdd`(self, abs_species, ...)	Adds species tag groups to the list of absorption species.
`abs_speciesAdd2`(self, abs_species, ...)	Adds a species tag group to the list of absorption species and jacobian quantities.
`abs_speciesDefineAll`(self[, abs_species, ...])	Sets `abs_species` [i][0] to all species in ARTS
`abs_speciesDefineAllInScenario`(self, ...)	Define one tag group for each species known to ARTS and included in an atmospheric scenario.
`abs_speciesInit`(self[, abs_species, verbosity])	Sets `abs_species` to be empty.
`abs_speciesSet`(self, abs_species, ...)	Set up a list of absorption species tag groups.
`abs_vecAddGas`(self[, abs_vec, ...])	Add gas absorption to first element of absorption vector.
`antenna_responseGaussian`(self, ...)	Sets up a Gaussian antenna response.
`antenna_responseGaussianConstant`(self, ...)	Sets up a Gaussian antenna response, with no frequency variation.
`antenna_responseGaussianEffectiveSize`(self, ...)	Sets up Gaussian antenna responses.
`atm_fields_compactAddConstant`(self, ...)	Adds a constant field to atm_fields_compact.
`atm_fields_compactAddSpecies`(self, ...)	Adds a field to atm_fields_compact, with interpolation.
`atm_fields_compactCleanup`(self, ...)	Removes unrealistically small or erroneous data from `atm_fields_compact` (or other GriddedField4 data)
`atm_fields_compactCreateFromField`(self, ...)	Initiates `atm_fields_compact` from a field.
`atm_fields_compactFromMatrix`(self, ...)	Sets `atm_fields_compact` from 1D fields given in form of a matrix.
`atm_gridsFromZRaw`(self[, p_grid, lat_grid, ...])	Calls `p_gridFromZRaw()`, `lat_gridFromZRaw()` and `lon_gridFromZRaw()`
`atmfields_checkedCalc`(self[, ...])	Checks consistency of (clear sky) atmospheric fields.
`atmgeom_checkedCalc`(self[, atmgeom_checked, ...])	Checks consistency of geometric considerations of the atmosphere.
`avkCalc`(self[, avk, dxdy, jacobian, verbosity])	Calculate the averaging kernel matrix.
`backend_channel_responseFlat`(self, ...)	Sets up a rectangular channel response.
`backend_channel_responseGaussian`(self, ...)	Sets up a Gaussian backend channel response.
`backend_channel_responseGaussianConstant`(...)	Sets up a single Gaussian backend channel response.
`batch_atm_fields_compactAddConstant`(self, ...)	Adds a constant field to batch_atm_fields_compact.
`batch_atm_fields_compactAddSpecies`(self, ...)	Adds a field to `batch_atm_fields_compact`, with interpolation.
`batch_atm_fields_compactCleanup`(self, ...)	Removes unrealistically small or erroneous data from each data field of `batch_atm_fields_compact` (or other AerrayOfGriddedField4 data)
`batch_atm_fields_compactFromArrayOfMatrix`(...)	Expand batch of 1D atmospheric state matrices to batch_atm_fields_compact.
`cloudboxOff`(self[, cloudbox_on, ...])	Deactivates the cloud box.
`cloudboxSetAutomatically`(self, cloudbox_on, ...)	Sets the cloud box to encompass the cloud given by the entries in `particle_field`.
`cloudboxSetFullAtm`(self[, cloudbox_on, ...])	Sets the cloudbox to cover the full atmosphere.
`cloudboxSetManually`(self, cloudbox_on, ...)	Sets the cloud box to encompass the given positions.
`cloudboxSetManuallyAltitude`(self, ...)	Sets the cloud box to encompass the given positions.
`cloudbox_checkedCalc`(self[, ...])	Checks consistency and validity of the cloudbox governing variables.
`cloudbox_fieldCrop`(self[, cloudbox_field, ...])	Extracts a part of an existing `cloudbox_field`.
`cloudbox_fieldDisort`(self[, cloudbox_field, ...])	Interface to the DISORT scattering solver (by Stamnes et al.).
`cloudbox_fieldDisortWithARTSSurface`(self[, ...])	Interface to the DISORT scattering solver (by Stamnes et al.).
`cloudbox_fieldInterp2Azimuth`(self, ...)	Reinterpolate a `cloudbox_field` with azimuthal dependency.
`cloudbox_fieldSetClearsky`(self[, ...])	Interpolate clearsky field on all gridpoints in cloudbox.
`cloudbox_fieldSetConst`(self, cloudbox_field, ...)	This method sets the initial field inside the cloudbox to a constant value.
`cloudbox_fieldSetConstPerFreq`(self, ...)	This method sets the initial field inside the cloudbox to a constant value per frequency slice.
`cloudbox_fieldSetFromPrecalc`(self, ...)	Sets the initial cloudbox intensity field `cloudbox_field` from a precalculated field.
`cloudbox_fieldUpdate1D`(self[, ...])	RT calculation in cloudbox with fixed scattering integral (1D).
`cloudbox_fieldUpdateSeq1D`(self[, ...])	RT calculation in cloudbox with fixed scattering integral.
`cloudbox_fieldUpdateSeq1DPP`(self[, ...])	RT calculation in cloudbox with fixed scattering integral.
`cloudbox_fieldUpdateSeq3D`(self[, ...])	RT calculation in cloudbox with fixed scattering integral.
`cloudbox_field_monoIterate`(self[, ...])	Iterative solution of the VRTE (DOIT method).
`cloudbox_field_monoOptimizeReverse`(self[, ...])	Interpolate `cloudbox_field_mono` back to the original p_grid.
`cloudbox_field_monoSetConst`(self, ...)	This method sets the initial field inside the cloudbox to a constant value.
`collision_coefficientsFromSplitFiles`(self[, ...])	Reads `collision_coefficients` and `collision_line_identifiers` from files.
`complex_refr_indexConstant`(self, ...)	Set complex refractive index to a constant value.
`complex_refr_indexIceMatzler06`(self, ...)	Refractive index of ice following Matzler06 parameterization.
`complex_refr_indexTemperatureConstant`(self, ...)	Set frequency dependent complex refractive index.
`complex_refr_indexWaterLiebe93`(self, ...)	Complex refractive index of liquid water according to Liebe 1993.
`complex_refr_indexWaterVisibleNIRHarvey98`(...)	Refractive index of water and steam for the optical and near infrared.
`covmat1D`(self, output, pyarts.arts.Matrix, ...)	Create 1D covariance matrix.
`covmat1DMarkov`(self, output, out_inverse, ...)	Create Markov Process Covariance Matrix.
`covmatDiagonal`(self, output, out_inverse, vars)	Sets the matrix in covmat_block to a diagonal matrix with the variances provided in `vars` as diagonal elements.
`covmat_seAddBlock`(self, covmat_se, ...)	Add a block to the measurement covariance matrix `covmat_se`
`covmat_seAddInverseBlock`(self, covmat_se, ...)	Add the inverse of a block to covariance matrix `covmat_se`
`covmat_seSet`(self, covmat_se, ...)	Set covmat_se to a given matrix.
`covmat_soCalc`(self[, covmat_so, dxdy, ...])	Calculates the covariance matrix describing the error due to uncertainties in the observation system.
`covmat_ssCalc`(self[, covmat_ss, avk, ...])	Calculates the covariance matrix describing the error due to smoothing.
`covmat_sxAddBlock`(self, covmat_sx, ...)	Add a block to the a priori covariance matrix `covmat_sx`
`covmat_sxAddInverseBlock`(self, covmat_sx, ...)	Add the inverse of a block in covariance matrix `covmat_sx`
`covmat_sxExtractSqrtDiagonal`(self, x_norm[, ...])	Extract the square root of the diagonal of the state space covariance matrix.
`covmat_sxSet`(self, covmat_sx, ...)	Set covmat_sx to a given matrix.
`create_variable`(self, group, name[, desc])	Creates a workspace variable
`diameter_maxFromDiameter_volume_equ`(self, ...)	Calculates maximum and area equivalent diameters from volume equivalent diameter.
`diameter_volume_equFromDiameter_max`(self, ...)	Converts from maximum to volume equivalent diameter.
`dlosDiffOfLos`(self, dlos, ref_los, other_los)	Derives the difference betwenn zenith and azimuth angles.
`dlosGauss`(self, dlos, ...)	Gives a `dlos` suitable for a circular Gaussian response.
`dlosUniform`(self, dlos, ...)	Gives `dlos` a rectangular coverage, with uniform spacing.
`dobatch_calc_agendaSet`(self, ...)	Sets `dobatch_calc_agenda` to a default value
`doit_conv_flagAbs`(self, doit_conv_flag, ...)	DOIT convergence test (maximum absolute difference).
`doit_conv_flagAbsBT`(self, doit_conv_flag, ...)	DOIT convergence test (maximum absolute difference in Rayleigh Jeans BT)
`doit_conv_flagLsq`(self, doit_conv_flag, ...)	DOIT convergence test (least squares).
`doit_conv_test_agendaSet`(self, ...)	Sets `doit_conv_test_agenda` to a default value
`doit_mono_agendaSet`(self, doit_mono_agenda, ...)	Sets `doit_mono_agenda` to a default value
`doit_rte_agendaSet`(self, doit_rte_agenda, ...)	Sets `doit_rte_agenda` to a default value
`doit_scat_fieldCalc`(self[, doit_scat_field, ...])	Calculates the scattering integral field in the DOIT module.
`doit_scat_fieldCalcLimb`(self[, ...])	Calculates the scattering integral field in the DOIT module (limb).
`doit_scat_field_agendaSet`(self, ...)	Sets `doit_scat_field_agenda` to a default value
`doit_za_grid_optCalc`(self, doit_za_grid_opt, ...)	Zenith angle grid optimization for scattering calculation.
`doit_za_interpSet`(self[, doit_za_interp, ...])	Define interpolation method for zenith angle dimension.
`ecs_dataAddMakarov2020`(self[, ecs_data, ...])	Sets the O2-66 microwave band data for ECS.
`ecs_dataAddMeanAir`(self, ecs_data, ...)	Sets ECS data for air from other data if available.
`ecs_dataAddRodrigues1997`(self[, ecs_data, ...])	Sets the CO2-626, CO2-636, and CO2-628 IR band data for ECS.
`ecs_dataAddSpeciesData`(self, ecs_data, ...)	Sets ECS data for one set of species and quantum identifiers.
`ecs_dataAddTran2006`(self[, ecs_data, ...])	Sets the O2-66 visible band data for ECS.
`ecs_dataAddTran2011`(self[, ecs_data, ...])	Sets the CO2-626, CO2-636, and CO2-628 IR band data for ECS.
`ecs_dataInit`(self[, ecs_data, verbosity])	Resets/initializes the ECS data.
`execute_controlfile`(self, file)	Execute a .arts file
`ext_matAddGas`(self[, ext_mat, ...])	Add gas absorption to all diagonal elements of extinction matrix.
`f_gridFromAbsorptionLines`(self, f_grid, ...)	Sets `f_grid` to a grid relative to `abs_lines_per_species`
`f_gridFromGasAbsLookup`(self[, f_grid, ...])	Sets `f_grid` to the frequency grid of `abs_lookup`.
`f_gridFromSensorAMSU`(self[, f_grid, ...])	Automatically calculate f_grid to match the sensor.
`f_gridFromSensorAMSUgeneric`(self, f_grid, ...)	Automatcially calculate f_grid to match the sensor.
`f_gridFromSensorHIRS`(self[, f_grid, ...])	Automatically calculate f_grid to match the sensor.
`f_gridMetMM`(self, f_grid, ...)	Sets `f_grid` and associated variables match MetMM settings.
`forloop_agendaSet`(self, forloop_agenda, ...)	Sets `forloop_agenda` to a default value
`g0Earth`(self[, g0, lat, verbosity])	Gravity at zero altitude on Earth.
`g0Io`(self[, g0, verbosity])	Gravity at zero altitude on Io.
`g0Jupiter`(self[, g0, verbosity])	Gravity at zero altitude on Jupiter.
`g0Mars`(self[, g0, verbosity])	Gravity at zero altitude on Mars.
`g0Venus`(self[, g0, verbosity])	Gravity at zero altitude on Venus.
`g0_agendaSet`(self, g0_agenda, ...)	Sets `g0_agenda` to a default value
`gas_scatteringOff`(self[, gas_scattering_do, ...])	Deactivates the gas_scattering within radiative transfer calculations.
`gas_scattering_agendaSet`(self[, ...])	Sets `gas_scattering_agenda` to a default value
`gas_scattering_coefAirSimple`(self[, ...])	Calculates of scattering coefficient matrix for air.
`gas_scattering_coefXsecConst`(self[, ...])	Calculates the spectrum of scattering coefficient matrices.
`gas_scattering_matIsotropic`(self[, ...])	Calculates the spectrum of normalized scattering matrices.
`gas_scattering_matRayleigh`(self[, ...])	Calculates the normalized Rayleigh scattering matrix.
`geo_posEndOfPpath`(self[, geo_pos, ppath, ...])	Sets geo-position based on `ppath`.
`geo_posLowestAltitudeOfPpath`(self[, ...])	Sets geo-position based on `ppath`.
`geo_posWherePpathPassesZref`(self, geo_pos, ...)	Sets geo-position based on `ppath`.
`heating_ratesFromIrradiance`(self[, ...])	Calculates heating rates from the `irradiance_field`.
`heating_ratesFromIrradianceSimple`(self, ...)	Calculates heating rates from the `irradiance_field`.
`inversion_iterate_agendaSet`(self, ...)	Sets `inversion_iterate_agenda` to a default value
`irradiance_fieldFromRadiance`(self[, ...])	Calculates the irradiance from the `radiance_field`.
`isotopologue_ratiosInitFromBuiltin`(self[, ...])	Initialize isotopologue ratios with default values from built-in species data.
`isotopologue_ratiosInitFromHitran`(self[, ...])	Initialize isotopologue ratios with default values from built-in Hitran species data.
`iyApplyUnit`(self[, iy, iy_aux, stokes_dim, ...])	Conversion of `iy` to other spectral units (for passive observations).
`iyCalc`(self[, iy, iy_aux, ppath, geo_pos, ...])	A single monochromatic pencil beam calculation.
`iyClearsky`(self[, iy, iy_aux, diy_dx, ...])	Standard method for radiative transfer calculations with emission and a direct (solar) source .
`iyEmissionHybrid`(self[, iy, iy_aux, diy_dx, ...])	Radiative transfer with emission and precalculated radiation field.
`iyEmissionStandard`(self[, iy, iy_aux, ...])	Standard method for radiative transfer calculations with emission.
`iyIndependentBeamApproximation`(self[, iy, ...])	Samples atmosphere along ppath and make 1D-type RT calculation.
`iyInterpCloudboxField`(self[, iy, ...])	Interpolates the intensity field of the cloud box.
`iyLoopFrequencies`(self[, iy, iy_aux, ppath, ...])	Radiative transfer calculations one frequency at the time.
`iyMC`(self[, iy, iy_aux, diy_dx, ...])	Interface to Monte Carlo part for `iy_main_agenda`.
`iyRadarSingleScat`(self[, iy, iy_aux, ...])	Simulation of radar, restricted to single scattering.
`iyReplaceFromAux`(self, iy, ...)	Change of main output variable.
`iySurfaceFastem`(self, iy, ...)	Usage of FASTEM for emissivity and reflectivity of water surfaces.
`iySurfaceFlatReflectivity`(self[, iy, ...])	This method calculates upwelling radiation for a specular flat surface.
`iySurfaceFlatReflectivityDirect`(self[, iy, ...])	This method calculates the specular reflection at a flat surface of the direct radiation with a predefined reflectivity matrix.
`iySurfaceFlatRefractiveIndex`(self[, iy, ...])	This method calculates upwelling radiation for a specular flat surface.
`iySurfaceFlatRefractiveIndexDirect`(self[, ...])	This method calculates the specular reflection at a flat surface of the direct radiation.
`iySurfaceInit`(self[, iy, f_grid, ...])	This method initialize iy.
`iySurfaceLambertian`(self[, iy, diy_dx, ...])	This method calculates upwelling radiation for a lambertian surface.
`iySurfaceLambertianDirect`(self[, iy, ...])	This method calculates the scattering of the direct radiation for a Lambertian surface.
`iySurfaceRtpropAgenda`(self[, iy, diy_dx, ...])	Interface to `surface_rtprop_agenda` for `iy_surface_agenda`.
`iySurfaceRtpropCalc`(self[, iy, diy_dx, ...])	Applies `surface_los`, `surface_rmatrix` and `surface_emission`.
`iyTransmissionStandard`(self[, iy, iy_aux, ...])	Standard method for handling transmission measurements.
`iy_cloudbox_agendaSet`(self, ...)	Sets `iy_cloudbox_agenda` to a default value
`iy_independent_beam_approx_agendaSet`(self, ...)	Sets `iy_independent_beam_approx_agenda` to a default value
`iy_loop_freqs_agendaSet`(self, ...)	Sets `iy_loop_freqs_agenda` to a default value
`iy_main_agendaSet`(self, iy_main_agenda, ...)	Sets `iy_main_agenda` to a default value
`iy_radar_agendaSet`(self, iy_radar_agenda, ...)	Sets `iy_radar_agenda` to a default value
`iy_space_agendaSet`(self[, iy_space_agenda, ...])	Sets `iy_space_agenda` to a default value
`iy_surface_agendaSet`(self[, ...])	Sets `iy_space_agenda` to a default value
`iy_transmitterMultiplePol`(self[, ...])	Transmitted signal having multiple polarisations.
`iy_transmitterSinglePol`(self[, ...])	Transmitted signal having a single polarisations.
`jacobianAddAbsSpecies`(self, ...)	Includes an absorption species in the Jacobian.
`jacobianAddBasicCatalogParameter`(self, ...)	Includes a basic catalog parameter in the Jacobian.
`jacobianAddBasicCatalogParameters`(self, ...)	See `jacobianAddBasicCatalogParameter()`.
`jacobianAddFreqShift`(self[, ...])	Includes a frequency fit of shift type in the Jacobian.
`jacobianAddFreqStretch`(self[, ...])	Includes a frequency fit of stretch type in the Jacobian.
`jacobianAddMagField`(self, ...)	Includes one magnetic field component in the Jacobian.
`jacobianAddNLTE`(self, jacobian_quantities, ...)	Experimental NLTE Jacobian.
`jacobianAddNLTEs`(self, jacobian_quantities, ...)	Experimental NLTE Jacobian.
`jacobianAddPointingZa`(self[, ...])	Adds sensor pointing zenith angle off-set jacobian.
`jacobianAddPolyfit`(self, ...)	Includes polynomial baseline fit in the Jacobian.
`jacobianAddScatSpecies`(self, ...)	Includes a scattering species in the Jacobian.
`jacobianAddShapeCatalogParameter`(self, ...)	Adds a line shape parameter to the Jacobian calculations.
`jacobianAddShapeCatalogParameters`(self, ...)	See `jacobianAddShapeCatalogParameter()` for information on the GIN parameters
`jacobianAddSinefit`(self, ...)	Includes sinusoidal baseline fit in the Jacobian.
`jacobianAddSpecialSpecies`(self, ...)	Includes a special absorption species in the Jacobian.
`jacobianAddSurfaceQuantity`(self, ...)	Includes a surface quantity in the Jacobian.
`jacobianAddTemperature`(self, ...)	Includes atmospheric temperatures in the Jacobian.
`jacobianAddWind`(self, jacobian_quantities, ...)	Includes one atmospheric wind component in the Jacobian.
`jacobianAdjustAndTransform`(self[, jacobian, ...])	Applies adjustments and transformations on `jacobian`.
`jacobianCalcDoNothing`(self[, jacobian, ...])	This function doesn't do anything.
`jacobianCalcFreqShift`(self[, jacobian, ...])	Calculates frequency shift jacobians by interpolation of `iyb`.
`jacobianCalcFreqStretch`(self[, jacobian, ...])	Calculates frequency stretch jacobians by interpolation of `iyb`.
`jacobianCalcPointingZaInterp`(self[, ...])	Calculates zenith angle pointing deviation jacobians by inter-extrapolation of `iyb`.
`jacobianCalcPointingZaRecalc`(self[, ...])	Calculates zenith angle pointing deviation jacobians by recalulation of `iyb`.
`jacobianCalcPolyfit`(self, jacobian, ...)	Calculates jacobians for polynomial baseline fit.
`jacobianCalcSinefit`(self, jacobian, ...)	Calculates jacobians for sinusoidal baseline fit.
`jacobianClose`(self[, jacobian_do, ...])	Closes the array of retrieval quantities and prepares for calculation of the Jacobian matrix.
`jacobianFromTwoY`(self, jacobian, ...)	Sets `jacobian` based on the difference vetween two measurement vectors.
`jacobianFromYbatch`(self, jacobian, ...)	Sets `jacobian` based on perturbation calcuations.
`jacobianInit`(self[, jacobian_quantities, ...])	Initialises the variables connected to the Jacobian matrix.
`jacobianOff`(self[, jacobian_do, ...])	Makes mandatory initialisation of some jacobian variables.
`jacobianSetAffineTransformation`(self, ...)	Adds an affine transformation of the last element of `jacobian_quantities`.
`jacobianSetFuncTransformation`(self, ...)	Sets the functional transformation of the last element of `jacobian_quantities`.
`jacobian_agendaSet`(self, jacobian_agenda, ...)	Sets `jacobian_agenda` to a default value
`lat_gridFromRawField`(self, lat_grid, ...)	Sets `lat_grid` according to given raw atmospheric field's lat_grid.
`lat_gridFromZRaw`(self[, lat_grid, ...])	Sets `lat_grid` according to input atmosphere's `z_field_raw`
`lbl_checkedCalc`(self[, lbl_checked, ...])	Checks that the line-by-line parameters are OK.
`line_irradianceCalcForSingleSpeciesNonOverlappingLinesPseudo2D`(...)	Computes the line irradiance and line transmission
`lon_gridFromRawField`(self, lon_grid, ...)	Sets `lon_grid` according to given raw atmospheric field's lat_grid.
`lon_gridFromZRaw`(self[, lon_grid, ...])	Sets `lon_grid` according to input atmosphere's `z_field_raw`
`losAddLosAndDlos`(self, new_los, ref_los, dlos)	Adds zenith and azimuth angles.
`main_agendaSet`(self, main_agenda, ...)	Calling this is - and always will be - an error
`mblock_dlosFrom1dAntenna`(self, mblock_dlos, ...)	Sets `mblock_dlos` based on a 1D gaussian antenna response.
`mc_antennaSetGaussian`(self, mc_antenna, ...)	Makes mc_antenna (used by MCGeneral) a 2D Gaussian pattern.
`mc_antennaSetGaussianByFWHM`(self, ...)	Makes mc_antenna (used by MCGeneral) a 2D Gaussian pattern.
`mc_antennaSetPencilBeam`(self[, mc_antenna, ...])	Makes mc_antenna (used by MCGeneral) a pencil beam.
`met_profile_calc_agendaSet`(self, ...)	Sets `met_profile_calc_agenda` to a default value
`nbooksGet`(self, nbooks, ...)	Retrieve nbooks from given variable and store the value in the workspace variable `nbooks`
`ncolsGet`(self, ncols, ...)	Retrieve ncols from given variable and store the value in the workspace variable `ncols`
`nelemGet`(self, nelem, ...)	Retrieve nelem from given variable and store the value in the variable `nelem`.
`nlibrariesGet`(self, nlibraries, ...)	Retrieve nlibraries from given variable and store the value in the workspace variable `nlibraries`
`nlteOff`(self[, nlte_do, nlte_field, ...])	Disable Non-LTE calculations.
`nlte_fieldForSingleSpeciesNonOverlappingLines`(...)	NLTE field for a simple setup.
`nlte_fieldFromRaw`(self, nlte_field, ...)	Sets NLTE values manually
`nlte_fieldLteExternalPartitionFunction`(self)	Turns on NTLE calculations.
`nlte_fieldLteInternalPartitionFunction`(self)	Turns on NTLE calculations.
`nlte_fieldRescalePopulationLevels`(self, ...)	Rescale NLTE field to expected total distribution amongst levels
`npagesGet`(self, npages, ...)	Retrieve npages from given variable and store the value in the workspace variable `npages`
`nrowsGet`(self, nrows, ...)	Retrieve nrows from given variable and store the value in the workspace variable `nrows`
`nshelvesGet`(self, nshelves, ...)	Retrieve nshelves from given variable and store the value in the workspace variable `nshelves`
`number_of_initialized_variables`(self)	Number of initialized variables on the workspace
`nvitrinesGet`(self, nvitrines, ...)	Retrieve nvitrines from given variable and store the value in the workspace variable `nvitrines`
`opt_prop_bulkCalc`(self[, ext_mat, abs_vec, ...])	Calculates bulk absorption extinction at one atmospheric grid point.
`opt_prop_sptFromData`(self[, ext_mat_spt, ...])	Calculates monochromatic optical properties for all scattering elements.
`opt_prop_sptFromMonoData`(self[, ...])	Calculates optical properties for the scattering elements.
`opt_prop_sptFromScat_data`(self[, ...])	Derives monochromatic optical properties for all scattering elements.
`output_file_formatSetAscii`(self[, ...])	Sets the output file format to ASCII.
`output_file_formatSetBinary`(self[, ...])	Sets the output file format to binary.
`output_file_formatSetZippedAscii`(self[, ...])	Sets the output file format to zipped ASCII.
`p_gridDensify`(self, p_grid, ...)	A simple way to make `p_grid` more dense.
`p_gridFromGasAbsLookup`(self[, p_grid, ...])	Sets `p_grid` to the pressure grid of `abs_lookup`.
`p_gridFromZRaw`(self[, p_grid, z_field_raw, ...])	Sets `p_grid` according to input atmosphere's raw z_field, derived e.g. from `AtmRawRead()`.
`p_gridRefine`(self, p_grid, ...)	Provides refined pressure grid.
`particle_bulkpropRadarOnionPeeling`(self, ...)	Inverts radar reflectivities by in an onion peeling manner.
`particle_bulkprop_fieldClip`(self, ...)	Clipping of `particle_bulkprop_field`.
`particle_bulkprop_fieldPerturb`(self, ...)	Adds a perturbation to `particle_bulkprop_field`.
`particle_bulkprop_fieldPerturbAtmGrids`(self, ...)	Adds a perturbation to `particle_bulkprop_field`.
`particle_fieldCleanup`(self, ...[, verbosity])	Removes unrealistically small or erroneous data from particle fields.
`particle_massesFromMetaData`(self[, ...])	Derives `particle_masses` from `scat_meta`.
`particle_massesFromMetaDataSingleCategory`(self)	Sets `particle_masses` based on `scat_meta` assuming all particles are of the same mass category.
`pha_matCalc`(self[, pha_mat, pha_mat_spt, ...])	Calculates the total phase matrix of all scattering elements.
`pha_mat_sptFromData`(self[, pha_mat_spt, ...])	Calculation of the phase matrix of the individual scattering elements.
`pha_mat_sptFromDataDOITOpt`(self[, ...])	Calculation of the phase matrix of the individual scattering elements.
`pha_mat_sptFromMonoData`(self[, pha_mat_spt, ...])	Calculation of the phase matrix of the individual scattering elements.
`pha_mat_sptFromScat_data`(self[, ...])	Calculation of the phase matrix of the individual scattering elements.
`pha_mat_spt_agendaSet`(self, ...)	Sets `pha_mat_spt_agenda` to a default value
`pndFromPsd`(self, pnd_data, ...)	Calculates `pnd_data` from given `psd_data` for one scattering species.
`pndFromPsdBasic`(self[, pnd_data, ...])	Calculates `pnd_data` from given `psd_data`.
`pnd_fieldCalcFromParticleBulkProps`(self[, ...])	Converts particle bulk property data to `pnd_field`.
`pnd_fieldCalcFrompnd_field_raw`(self[, ...])	Interpolation of particle number density fields to calculation grid inside cloudbox.
`pnd_fieldExpand1D`(self[, pnd_field, ...])	Maps a 1D pnd_field to a (homogeneous) 2D or 3D pnd_field.
`pnd_fieldZero`(self[, pnd_field, ...])	Sets `pnd_field` to zero.
`ppathCalc`(self[, ppath, ppath_agenda, ...])	Stand-alone calculation of propagation paths.
`ppathCalcFromAltitude`(self, ppath, ...)	Moves `rte_pos` forwards to near altitude before calling `ppathCalc()` to compute a different `ppath`.
`ppathFixedLstep`(self[, ppath, ...])	Full propagation path calculation with fixed step length.
`ppathFromRtePos2`(self[, ppath, rte_los, ...])	Determines the propagation path from `rte_pos2` to `rte_pos`.
`ppathPlaneParallel`(self[, ppath, ...])	Propagation path calculations for a plane parallel atmosphere.
`ppathStepByStep`(self[, ppath, ...])	Standard method for calculation of propagation paths.
`ppathWriteXMLPartial`(self[, ...])	WSM to only write a reduced Ppath, omitting grid positions.
`ppath_agendaSet`(self, ppath_agenda, ...)	Sets `ppath_agenda` to a default value
`ppath_fieldCalc`(self[, ppath_field, ...])	Stand-alone calculation of propagation path field from sensors.
`ppath_fieldFromDownUpLimbGeoms`(self[, ...])	Computes ppath_field from "standalone" sensors looking upwards from 0 m altitude with zenith angles range [0, 90], downwards from the top of the atmosphere covering the zenith angle range from 180 degrees to the surface tangent minus 1e-4 degrees, and through the limb covering at the same position as the downwards looking sensor covering the zenith angle range from the surface tangent plus 1e-4 degrees to 90 degrees minus 1e-4 degrees.
`ppath_stepGeometric`(self[, ppath_step, ...])	Calculates a geometrical propagation path step.
`ppath_stepRefractionBasic`(self[, ...])	Calculates a propagation path step, considering refraction by a basic approach.
`ppath_step_agendaSet`(self, ...)	Sets `ppath_step_agenda` to a default value
`ppvar_optical_depthFromPpvar_trans_cumulat`(self)	Sets `ppvar_optical_depth` according to provided transmittance data.
`predefined_model_dataAddWaterMTCKD400`(self, ...)	Sets the data for MT CKD 4.0 Water model
`predefined_model_dataInit`(self[, ...])	Initialize the predefined model data
`propmat_clearskyAddCIA`(self[, ...])	Calculate absorption coefficients per tag group for HITRAN CIA continua.
`propmat_clearskyAddFaraday`(self[, ...])	Calculates absorption matrix describing Faraday rotation.
`propmat_clearskyAddFromLookup`(self[, ...])	Extract gas absorption coefficients from lookup table.
`propmat_clearskyAddHitranLineMixingLines`(self)	Calculates gas absorption coefficients line-by-line for HITRAN line mixed data.
`propmat_clearskyAddLines`(self[, ...])	Computes the line-by-line unpolarized absorption and adds it to the diagonal of `propmat_clearsky` and derivates to other variables.
`propmat_clearskyAddOnTheFlyLineMixing`(self)	Compute the line mixing of matching lines and add it to the propagation matrix
`propmat_clearskyAddOnTheFlyLineMixingWithZeeman`(self)	Compute the line mixing of matching lines and add it to the propagation matrix Also computes Zeeman effect for all the lines in the band
`propmat_clearskyAddParticles`(self[, ...])	Calculates absorption coefficients of particles to be used in clearsky (non-cloudbox) calculations.
`propmat_clearskyAddPredefined`(self[, ...])	Adds all of the predefined models in `abs_species` to the propmat_clearsky
`propmat_clearskyAddScaledSpecies`(self, ...)	Adds a scaled target species absorption to `propmat_clearsky` and `nlte_source`
`propmat_clearskyAddXsecFit`(self[, ...])	Calculate absorption cross sections per tag group for HITRAN xsec species.
`propmat_clearskyAddZeeman`(self[, ...])	Calculates Zeeman-affected polarized propagation matrix and its derivatives.
`propmat_clearskyForceNegativeToZero`(self[, ...])	Sets `propmat_clearsky` to match zero attenuation if negative value.
`propmat_clearskyInit`(self[, ...])	Initialize `propmat_clearsky`, `nlte_source`, and their derivatives to zeroes.
`propmat_clearskyZero`(self[, ...])	Sets `propmat_clearsky` to match zero attenuation.
`propmat_clearsky_agendaAuto`(self[, ...])	Sets the `propmat_clearsky_agenda` automatically
`propmat_clearsky_agendaGUI`(self[, ...])	Opens a GUI for running the propagation matrix agenda
`propmat_clearsky_agendaSet`(self, ...)	Sets `propmat_clearsky_agenda` to a default value
`propmat_clearsky_agenda_checkedCalc`(self[, ...])	Checks if the `propmat_clearsky_agenda` contains all necessary methods to calculate all the species in `abs_species`.
`propmat_clearsky_fieldCalc`(self, ...)	Calculate (vector) gas absorption coefficients for all points in the atmosphere.
`psdAbelBoutle12`(self[, psd_data, ...])	Abel and Boutle [2012] particle size distribution for rain.
`psdDelanoeEtAl14`(self, psd_data, ...)	Normalized PSD as proposed in Delanoë et al. ((2014)),.
`psdFieldEtAl07`(self, psd_data, ...)	The Field et al. [2007] particle size distribution for snow and cloud ice.
`psdFieldEtAl19`(self, psd_data, ...)	The Field [2019] particle size distribution for hail.
`psdMcFarquaharHeymsfield97`(self[, psd_data, ...])	McFarquahar and Heymsfield [1997] particle size distribution for cloud ice.
`psdMilbrandtYau05`(self, psd_data, ...)	Calculates `psd_data` and `dpsd_data_dx` following Milbrandt and Yau (2005) two moment particle size distribution for cloud water, cloud ice, rain, snow, graupel and hail, which is used in the GEM model.
`psdModifiedGamma`(self, psd_data, ...)	Modified gamma distribution PSD using n0, mu, la and ga as parameters.
`psdModifiedGammaMass`(self, psd_data, ...)	Modified gamma distribution (MGD) PSD, with mass content as input.
`psdModifiedGammaMassMeanParticleMass`(self, ...)	Modified gamma distribution PSD, with mass content and mean particle mass (Mmean) as inputs.
`psdModifiedGammaMassNtot`(self, psd_data, ...)	Modified gamma distribution PSD, with mass content and total number density (Ntot) as inputs.
`psdModifiedGammaMassSingleMoment`(self, ...)	Modified gamma distribution PSD, with mass content as input.
`psdModifiedGammaMassXmean`(self, psd_data, ...)	Modified gamma distribution PSD, with mass content and mean size (Xmean) as inputs.
`psdModifiedGammaMassXmedian`(self, psd_data, ...)	Modified gamma distribution PSD, with mass content and median size (Xmedian) as inputs.
`psdMonoDispersive`(self, psd_data, ...)	Mono-dispersive PSD, with number density given.
`psdMonoMass`(self, psd_data, ...)	Mono-dispersive PSD, with mass content given.
`psdSeifertBeheng06`(self, psd_data, ...)	Calculates `psd_data` and `dpsd_data_dx` following Seifert and Beheng (2006) two moment particle size distribution for cloud water, cloud ice, rain, snow, graupel and hail, which is used in the ICON model.
`psdWangEtAl16`(self[, psd_data, ...])	Wang et al. [2016] particle size distribution for rain.
`refellipsoidEarth`(self[, refellipsoid, ...])	Earth reference ellipsoids.
`refellipsoidEuropa`(self[, refellipsoid, ...])	Io reference ellipsoids.
`refellipsoidForAzimuth`(self, refellipsoid, ...)	Conversion of 3D ellipsoid to 1D curvature radius.
`refellipsoidGanymede`(self[, refellipsoid, ...])	Ganymede reference ellipsoids.
`refellipsoidIo`(self[, refellipsoid, model, ...])	Io reference ellipsoids.
`refellipsoidJupiter`(self[, refellipsoid, ...])	Jupiter reference ellipsoids.
`refellipsoidMars`(self[, refellipsoid, ...])	Mars reference ellipsoids.
`refellipsoidMoon`(self[, refellipsoid, ...])	Moon reference ellipsoids.
`refellipsoidOrbitPlane`(self, refellipsoid, ...)	Conversion of 3D ellipsoid to 2D orbit track geometry.
`refellipsoidSet`(self, refellipsoid, ...)	Manual setting of the reference ellipsoid.
`refellipsoidVenus`(self[, refellipsoid, ...])	Venus reference ellipsoids.
`refr_index_airFreeElectrons`(self[, ...])	Microwave refractive index due to free electrons.
`refr_index_airInfraredEarth`(self[, ...])	Calculates the IR refractive index due to gases in the Earth's atmosphere.
`refr_index_airMicrowavesEarth`(self[, ...])	Microwave refractive index in Earth's atmosphere.
`refr_index_airMicrowavesGeneral`(self[, ...])	Microwave refractive index due to gases in planetary atmospheres.
`refr_index_air_agendaSet`(self, ...)	Sets `refr_index_air_agenda` to a default value
`retrievalAddAbsSpecies`(self, covmat_sx, ...)	Adds an absorption species to the retrieval quantities.
`retrievalAddCatalogParameter`(self, ...)	Similar to `jacobianAddBasicCatalogParameter()` but also adds a corresponding block to `covmat_sx` with the given `var` as variance value.
`retrievalAddCatalogParameters`(self, ...)	Same as `jacobianAddBasicCatalogParameters()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddFreqShift`(self[, covmat_sx, ...])	Same as `jacobianAddFreqShift()` but also adds the correlation block contained in `covmat_block` and `covmat_inv_block` to `covmat_sx`.
`retrievalAddFreqStretch`(self[, covmat_sx, ...])	Same as `jacobianAddFreqShift()` but also adds the correlation block contained in `covmat_block` and `covmat_inv_block` to `covmat_sx`.
`retrievalAddMagField`(self, covmat_sx, ...)	Same as `jacobianAddMagField()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddPointingZa`(self[, covmat_sx, ...])	Same as `jacobianAddPointingZa()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddPolyfit`(self, covmat_sx, ...)	Same as `jacobianAddPolyfit()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddScatSpecies`(self, covmat_sx, ...)	Same as `jacobianAddPolyfit()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddSinefit`(self, covmat_sx, ...)	Same as `jacobianAddSinefit()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddSpecialSpecies`(self, covmat_sx, ...)	Same as `jacobianAddSpecialSpecies()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddSurfaceQuantity`(self, covmat_sx, ...)	Same as `jacobianAddSurfaceQuantity()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddTemperature`(self, covmat_sx, ...)	Same as `jacobianAddTemperature()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalAddWind`(self, covmat_sx, ...)	Same as `jacobianAddWind()` but also adds a new block to `covmat_sx` using the matrices in `covmat_block` and `covmat_inv_block`.
`retrievalDefClose`(self[, jacobian_do, ...])	Closes the definition of retrieval quantities and correlations and prepares related WSVs for the retrieval.
`retrievalDefInit`(self[, covmat_se, ...])	Begin retrieval definition section.
`retrievalErrorsExtract`(self[, retrieval_eo, ...])	Extract retrieval error from covariance matrices.
`rte_losGeometricFromRtePosToRtePos2`(self[, ...])	The geometric line-of-sight between two points.
`rte_losReverse`(self[, rte_los, ...])	Reverses the direction in `rte_los`.
`rte_losSet`(self, rte_los, ...)	Sets `rte_los` to the given angles.
`rte_posSet`(self, rte_pos, ...)	Sets `rte_pos` to the given co-ordinates.
`rte_pos_losBackwardToAltitude`(self, rte_pos, ...)	Moves `rte_pos` and `rte_los` backwards to the target altitude.
`rte_pos_losForwardToAltitude`(self, rte_pos, ...)	Moves `rte_pos` and `rte_los` forward to the target altitude.
`rte_pos_losStartOfPpath`(self[, rte_pos, ...])	Sets `rte_pos` and `rte_los` to values for last point in `ppath`.
`rte_poslosFromECEF`(self[, rte_pos, rte_los, ...])	Converts sensor position and LOS from ECEF to geocentric values.
`rte_poslosFromGeodetic`(self[, rte_pos, ...])	Converts sensor position and LOS from geodetic to geocentric values.
`rtp_nlteFromRaw`(self, rtp_nlte, ...)	Sets NLTE values manually
`scat_dataCalc`(self[, scat_data, ...])	Prepares `scat_data` for the scattering solver.
`scat_dataCheck`(self[, scat_data, ...])	Method for checking the validity and consistency of the single scattering properties in `scat_data`.
`scat_dataReduceT`(self, scat_data, ...)	Reduces temperature dimension of single scattering to a single entry.
`scat_data_checkedCalc`(self[, ...])	Checks dimensions, grids and single scattering properties of all scattering elements in `scat_data`.
`scat_data_monoCalc`(self[, scat_data_mono, ...])	Interpolates `scat_data` by frequency to give `scat_data_mono`.
`scat_data_monoExtract`(self[, ...])	Extracts data at `f_index` from `scat_data` to give `scat_data_mono`.
`scat_data_singleTmatrix`(self, ...)	A basic interface to Mishchenko's T-matrix code linked to ARTS.
`sensorOff`(self[, sensor_response, ...])	Sets sensor WSVs to obtain monochromatic pencil beam values.
`sensor_checkedCalc`(self[, sensor_checked, ...])	Checks consistency of the sensor variables.
`sensor_losGeometricFromSensorPosToOtherPositions`(...)	The geometric line-of-sight between pair of points.
`sensor_losReverse`(self[, sensor_los, ...])	Reverses the direction in `sensor_los`.
`sensor_pos_losBackwardToAltitude`(self, ...)	Moves `sensor_pos` and `sensor_los` backwards to the target altitude.
`sensor_pos_losForwardToAltitude`(self, ...)	Moves `sensor_pos` and `sensor_los` forward to the target altitude.
`sensor_poslosFromECEF`(self[, sensor_pos, ...])	Converts sensor position and LOS from ECEF to geocentric values.
`sensor_poslosFromGeodetic`(self[, ...])	Converts sensor position and LOS from geodetic to geocentric values.
`sensor_responseAntenna`(self, ...)	Includes response of the antenna.
`sensor_responseBackend`(self[, ...])	Includes response of the backend (spectrometer).
`sensor_responseBackendFrequencySwitching`(...)	Frequency switching for a pure SSB reciever.
`sensor_responseBeamSwitching`(self[, ...])	Simulation of "beam switching".
`sensor_responseFillFgrid`(self[, ...])	Polynomial frequency interpolation of spectra.
`sensor_responseFrequencySwitching`(self[, ...])	Simulation of "frequency switching".
`sensor_responseGenericAMSU`(self[, f_grid, ...])	Simplified sensor setup for an AMSU-type instrument.
`sensor_responseIF2RF`(self[, ...])	Converts sensor response variables from IF to RF.
`sensor_responseInit`(self[, sensor_response, ...])	Initialises the variables summarising the sensor response.
`sensor_responseMetMM`(self[, antenna_dim, ...])	Sensor setup for meteorological millimeter instruments.
`sensor_responseMixer`(self[, ...])	Includes response of the mixer of a heterodyne system.
`sensor_responseMixerBackendPrecalcWeights`(self)	Includes pre-calculated response covering mixer and backend.
`sensor_responseMultiMixerBackend`(self[, ...])	Handles mixer and backend parts for an instrument having multiple mixer chains.
`sensor_responsePolarisation`(self[, ...])	Extraction of non-default polarisation components.
`sensor_responseSimpleAMSU`(self[, f_grid, ...])	Simplified sensor setup for an AMSU-type instrument.
`sensor_responseStokesRotation`(self[, ...])	Includes a rotation of the Stokes H and V directions.
`sensor_responseWMRF`(self[, sensor_response, ...])	Adds WMRF weights to sensor response.
`sensor_response_agendaSet`(self, ...)	Sets `sensor_response_agenda` to a default value
`sparse_f_gridFromFrequencyGrid`(self, ...[, ...])	Outputs the sparse frequency grid in `propmat_clearskyAddLines()`
`spectral_irradiance_fieldDisort`(self[, ...])	Interface to the DISORT scattering solver (by Stamnes et al.).
`spectral_irradiance_fieldFromSpectralRadianceField`(self)	Calculates the spectral irradiance from `spectral_radiance_field`.
`spectral_radiance_fieldClearskyPlaneParallel`(...)	Clear-sky radiance field of a plane parallel atmosphere.
`spectral_radiance_fieldCopyCloudboxField`(self)	Set `spectral_radiance_field` to be a copy of `cloudbox_field`.
`spectral_radiance_fieldDisortClearsky`(self)	Interface to the DISORT scattering solver (by Stamnes et al.).
`spectral_radiance_fieldExpandCloudboxField`(self)	Uses and expands `cloudbox_field` to set `spectral_radiance_field`.
`spectral_radiance_fieldPlaneParallelSpectralRadianceOperator`(self)	Create a `spectral_radiance_field`
`spectral_radiance_profile_operatorPlaneParallel`(self)	Create a radiance profile operator
`specular_losCalc`(self[, specular_los, ...])	Calculates the specular direction of surface reflections.
`specular_losCalcNoTopography`(self[, ...])	Calculates the specular direction of surface reflections for horisontal surfaces.
`spt_calc_agendaSet`(self, spt_calc_agenda, ...)	Sets `spt_calc_agenda` to a default value
`sunsAddSingleBlackbody`(self[, suns, ...])	Adds a single blackbody to `suns`
`sunsAddSingleFromGrid`(self, suns, ...)	Extracts a sun spectrum from a field of such data and adds it to `suns`.
`sunsAddSingleFromGridAtLocation`(self, suns, ...)	Extracts a sun spectrum measured at the given location adds it to `suns`.
`sunsOff`(self[, suns_do, suns, verbosity])	Turns all calculations with suns off
`surfaceBlackbody`(self[, surface_los, ...])	Creates variables to mimic a blackbody surface.
`surfaceFastem`(self, surface_los, ...)	Usage of FASTEM together with MC and DOIT.
`surfaceFlatReflectivity`(self[, surface_los, ...])	Creates variables to mimic specular reflection by a (flat) surface where `surface_reflectivity` is specified.
`surfaceFlatRefractiveIndex`(self[, ...])	Creates variables to mimic specular reflection by a (flat) surface where the complex refractive index is specified.
`surfaceFlatRvRh`(self[, surface_los, ...])	Creates variables to mimic specular reflection by a (flat) surface where `surface_rv_rh` is specified.
`surfaceFlatRvRhEvEh`(self, surface_los, ...)	Creates variables to mimic specular reflection by a (flat) surface where `surface_rv_rh` and surface_ev_eh is specified.
`surfaceFlatScalarReflectivity`(self[, ...])	Creates variables to mimic specular reflection by a (flat) surface where `surface_scalar_reflectivity` is specified.
`surfaceLambertianSimple`(self[, surface_los, ...])	Creates variables to mimic a Lambertian surface.
`surfaceMapToLinearPolarisation`(self, ...)	Convert surface RT properties to a linear polarisation.
`surfaceTelsem`(self, surface_los, ...)	Compute surface emissivities using the TELSEM 2 model.
`surfaceTessem`(self, surface_los, ...)	TESSEM sea surface microwave emissivity parametrization.
`surface_complex_refr_indexFromGriddedField5`(...)	Extracts complex refractive index from a field of such data.
`surface_reflectivityFromGriddedField6`(self, ...)	Extracts surface reflectivities from a field of such data.
`surface_rtpropFromTypesAverage`(self[, ...])	Extracts surface RT properties by averaging.
`surface_rtpropFromTypesManual`(self, ...)	Extracts surface RT properties by manual selection of surface type.
`surface_rtpropFromTypesNearest`(self[, ...])	Extracts surface RT properties from nearest surface type.
`surface_rtpropInterpFreq`(self, f_grid, ...)	Interpolates surface RT properties in frequency.
`surface_rtprop_agendaSet`(self, ...)	Sets `surface_rtprop_agenda` to a default value
`surface_scalar_reflectivityFromGriddedField4`(...)	Extracts scalar surface reflectivities from a field of such data.
`surface_scalar_reflectivityFromSurface_rmatrix`(self)	Sets `surface_scalar_reflectivity` based on `surface_rmatrix`.
`swap`(self, ws)	Swap self with another workspace
`telsemAtlasLookup`(self, emissivities, lat, ...)	Lookup SSMI emissivities from Telsem Atlas.
`telsemStandalone`(self, emissivities, lat, ...)	Stand-alone evaluation of the Telsem model.
`telsemSurfaceTypeLandSea`(self, surface_type, ...)	TELSEM based land sea mask.
`telsem_atlasReadAscii`(self, atlas, ...[, ...])	Reads single TELSEM atlas.
`telsem_atlasesReadAscii`(self, ...)	Reads TELSEM atlas files.
`test_agendaSet`(self, test_agenda, ...)	Sets `test_agenda` to a default value
`timeNow`(self[, time, verbosity])	Sets time to system_clock::now().
`timeOffset`(self, time, ...)	Offsets time for some seconds
`timeSleep`(self[, time, verbosity])	Sleeps until time has been reached.
`time_gridOffset`(self, time_grid, ...)	Offsets a time grid by some seconds.
`time_stampsSort`(self, output, ...)	Sort `input` by `time_stamps` into `output`.
`timerStart`(self[, timer, verbosity])	Initializes the CPU timer.
`timerStop`(self[, timer, verbosity])	Stops the CPU timer.
`transmittanceFromIy_aux`(self, transmittance)	Creates a vector of transmittance values.
`verbosityInit`(self[, verbosity])	Initializes the verbosity levels.
`verbositySet`(self, verbosity, ...)	Sets the verbosity levels.
`verbositySetAgenda`(self, verbosity, ...)	Sets the verbosity level for agenda output.
`verbositySetFile`(self, verbosity, ...)	Sets the verbosity level for report file output.
`verbositySetScreen`(self, verbosity, ...)	Sets the verbosity level for screen output.
`vmr_fieldClip`(self, vmr_field, ...)	Clipping of `vmr_field`.
`vmr_fieldPerturb`(self, vmr_field, ...)	Adds a perturbation to `vmr_field`.
`vmr_fieldPerturbAtmGrids`(self, vmr_field, ...)	Adds a perturbation to `vmr_field`.
`vmr_fieldSetAllConstant`(self, vmr_field, ...)	Sets the VMR of all species to a select constant value.
`vmr_fieldSetConstant`(self, vmr_field, ...)	Sets the VMR of a species to a constant value.
`vmr_fieldSetRh`(self[, vmr_field, ...])	Sets the first H2O species to have a constant relative humidity (RH).
`water_p_eq_agendaSet`(self[, ...])	Sets `water_p_eq_agenda` to a default value
`water_p_eq_fieldMK05`(self[, ...])	Calculates `water_p_eq_field` according to Murphy and Koop, 2005.
`wind_u_fieldIncludePlanetRotation`(self[, ...])	Maps the planet's rotation to an imaginary wind.
`x2artsAtmAndSurf`(self[, vmr_field, t_field, ...])	Maps `x` to atmospheric and surface variables.
`x2artsSensor`(self[, sensor_los, f_backend, ...])	Maps `x` to sensor variables.
`x2artsSpectroscopy`(self[, verbosity])	Just defined to indicate a future extensiom.
`xClip`(self, x, ...)	Clipping of the state vector.
`xaStandard`(self[, xa, jacobian_quantities, ...])	Standard function for creating `xa`.
`yApplySensorPol`(self[, y, y_f, y_pol, ...])	Extraction of arbitrary linear polarisation.
`yApplyUnit`(self[, y, jacobian, y_f, y_pol, ...])	Conversion of `y` to other spectral units.
`yCalc`(self[, y, y_f, y_pol, y_pos, y_los, ...])	Calculation of complete measurement vectors (y).
`yCalcAppend`(self, y, ...)	Replaces `yCalc()` if a measurement shall be appended to an existing one.
`yColdAtmHot`(self, y, ...)	Computes `y` from input using standard calibration scheme of cold-atm-hot observations
`yDoublingMeanFocus`(self[, f_grid, y, f0, ...])	Focus in on `y` around some `f_grid`, then sets `f_grid` to same focus
`yMaskOutsideMedianRange`(self, y, ...)	Masks values not within the range as NaN.
`yRadar`(self[, y, y_f, y_pol, y_pos, y_los, ...])	Replaces `yCalc()` for radar/lidar calculations.
`ySimpleSpectrometer`(self, y, ...)	Converts `iy` to `y` assuming a fixed frequency resolution.
`y_geoToGeodetic`(self[, y_geo, refellipsoid, ...])	Converts `y_geo` to hold geodetic values.
`y_geo_seriesFromY_geo`(self[, y_geo_series, ...])	Fills `y_geo_series` with data from `y_geo`.
`y_geo_swathFromY_geo`(self, y_geo_swath, ...)	Fills `y_geo_series` with data from `y_geo`.
`y_seriesFromY`(self[, y_series, y, y_f, ...])	Fills `y_series` with data from `y`.
`y_swathFromY`(self, y_swath, ...)	Fills `y_swath` with data from `y`.
`ybatchCalc`(self[, ybatch, ybatch_aux, ...])	Performs batch calculations for the measurement vector y.
`ybatchColdAtmHotAtmCycle`(self, ybatch, ...)	Computes `ybatch` from input using standard calibration scheme of a cycle through cold-atm-hot-atm-cold-.
`ybatchDoublingMeanFocus`(self[, f_grid, ...])	See `yDoublingMeanFocus()`
`ybatchMaskOutsideMedianRange`(self, ybatch, ...)	Apply `yMaskOutsideMedianRange()` for each `y` in `ybatch`
`ybatchMetProfiles`(self, ybatch, ...)	This method is used for simulating ARTS for metoffice model fields
`ybatchMetProfilesClear`(self, ybatch, ...)	This method is used for simulating ARTS for metoffice model fields for clear sky conditions.
`ybatchTimeAveraging`(self, ybatch, ...)	Time average of `ybatch` and `sensor_time`
`ybatchTroposphericCorrectionNaiveMedianForward`(...)	Performs naive tropospheric corrections on `ybatch`
`ybatchTroposphericCorrectionNaiveMedianInverse`(self)	Performs inverse of naive tropospheric corrections on `ybatch`
`ybatch_calc_agendaSet`(self, ...)	Sets `ybatch_calc_agenda` to a default value
`z_fieldFromHSE`(self[, z_field, ...])	Force altitudes to fulfil hydrostatic equilibrium.
`z_surfaceConstantAltitude`(self[, z_surface, ...])	Sets the surface altitude to a constant.
`z_surfaceFromFileAndGrid`(self, z_surface, ...)	Sets the surface altitude for a given latitude and longitude grid.

Attributes

`aa_grid`	Azimuthal angle grid.
`aa_index`	Azimuth angle index for scattering calculations.
`abs_cia_data`	HITRAN Collision Induced Absorption (CIA) Data.
`abs_f_interp_order`	Frequency interpolation order for absorption lookup table.
`abs_hitran_relmat_data`	HITRAN line mixing data to compute the relaxation matrix.
`abs_lines`	A list of spectral line data.
`abs_lines_per_species`	A list of spectral line data for each tag.
`abs_lookup`	An absorption lookup table.
`abs_lookup_is_adapted`	Flag to indicate whether `abs_lookupAdapt()` has already been called.
`abs_nls`	Nonlinear species for absorption lookup table generation.
`abs_nls_interp_order`	The interpolation order to use when interpolating absorption between the H2O values given by `abs_nls_pert`.
`abs_nls_pert`	Fractional perturbations for the nonlinear species in the absorption lookup table.
`abs_nlte`	NLTE temperatures or ratios to be used for the calculation of absorption coefficients.
`abs_p`	List of pressures to be used for the calculation of absorption coefficients.
`abs_p_interp_order`	The interpolation order to use when interpolating absorption between pressure levels.
`abs_species`	Tag groups for gas absorption.
`abs_t`	List of temperatures to be used for the calculation of absorption coefficients.
`abs_t_interp_order`	The interpolation order to use when interpolating absorption between the temperature values given by `abs_t_pert`.
`abs_t_pert`	Temperature perturbations for the absorption lookup table.
`abs_vec`	Total absorption vector.
`abs_vec_spt`	Absorption vectors of the scattering elements.
`abs_vmrs`	The VMRs (unit of absolute number) on the abs_p grid.
`agenda_array_index`	Index of the current agenda in `ArrayOfAgenda`.
`antenna_dim`	The dimensionality of the antenna pattern (1-2).
`antenna_dlos`	The relative line-of-sight of each antenna pattern.
`antenna_response`	The antenna pattern/response.
`atm_fields_compact`	A compact set of atmospheric fields on a common set of grids.
`atmfields_checked`	OK-flag for atmospheric grids and (physical) fields.
`atmgeom_checked`	OK-flag for the geometry of the model atmosphere.
`atmosphere_dim`	The atmospheric dimensionality (1-3).
`avk`	Averaging kernel matrix.
`backend_channel_response`	The response of each backend channel.
`backend_channel_response_multi`	As `backend_channel_response` but describes an instrument with muliple mixer/receiver chains.
`band_identifiers`	An array of identifiers for bands.
`batch_atm_fields_compact`	An array of compact atmospheric states.
`batch_cloudbox_limits`	An array of `cloudbox_limits`.
`batch_pnd_fields`	An array of compact pnd states.
`channel2fgrid_indexes`	Definition of backend frequency response, link to `f_grid`.
`channel2fgrid_weights`	Definition of backend frequency response, weighting of `f_grid`.
`cloudbox_checked`	OK-flag for variables associated with the cloudbox.
`cloudbox_field`	The spectral radiance field inside the cloudbx.
`cloudbox_field_mono`	Monochromatic radiation field inside the cloudbox.
`cloudbox_field_mono_old`	As `cloudbox_field_mono` but from previous iteration.
`cloudbox_limits`	The limits of the cloud box.
`cloudbox_on`	Flag to activate the cloud box.
`collision_coefficients`	An array of coefficients for effective collisions
`collision_line_identifiers`	An array of quantum identifiers for finding collisional rates in `collision_coefficients`
`complex_refr_index`	Complex refractive index (n) data.
`covmat_block`	Holds matrices used to set blocks in `covmat_sx` and `covmat_se`.
`covmat_inv_block`	Holds matrices used to set the inverse blocks in `covmat_sx` and `covmat_se`.
`covmat_se`	Covariance matrix for observation uncertainties.
`covmat_so`	Covariance matrix describing the retrieval error due to uncertainties of the observation system.
`covmat_ss`	Covariance matrix describing the retrieval error due to smoothing.
`covmat_sx`	Covariance matrix of a priori distribution
`depolarization_factor`	Depolarization factor for the scattered gas.
`disort_aux`	Auxilary data to the output of the cloudbox_fieldDisort-Methods.
`disort_aux_vars`	Selection of quantities for `disort_aux`.
`diy_dx`	Derivative of `iy` with respect to retrieval quantities.
`dlos`	A set of relative angles.
`dlos_weight_vector`	A weight associated with each direction `dlos`.
`dnlte_source_dx`	S * dB/dx + dS/dx * B.
`dobatch_calc_agenda`	Calculations to perform for each batch case.
`dobatch_cloudbox_field`	Batch of radiation fields.
`dobatch_irradiance_field`	Batch of irradiance fields.
`dobatch_radiance_field`	Batch of radiance fields.
`dobatch_spectral_irradiance_field`	Batch of spectral irradiance fields.
`doit_conv_flag`	Flag for the convergence test.
`doit_conv_test_agenda`	Compute the convergence test.
`doit_is_initialized`	Flag to determine if `DoitInit()` was called.
`doit_iteration_counter`	Counter for number of iterations.
`doit_mono_agenda`	Performs monochromatic DOIT calculation.
`doit_rte_agenda`	Radiative transfer calculations in cloudbox.
`doit_scat_field`	Scattered field inside the cloudbox.
`doit_scat_field_agenda`	Calculation of the scattering integral field (DOIT).
`doit_za_grid_opt`	Optimized zenith angle grid.
`doit_za_grid_size`	Number of equidistant grid points of the zenith angle grid.
`doit_za_interp`	Flag for interplation method in zenith angle dimension.
`dpnd_data_dx`	Partial derivates of `pnd_data`.
`dpnd_data_dx_names`	Selection of partial derivatives of `pnd_data`.
`dpnd_field_dx`	Partial derivatives of `pnd_field`.
`dpropmat_clearsky_dx`	Partial derivative of absorption coefficients.
`dpsd_data_dx`	Partial derivates of `psd_data`.
`dsurface_emission_dx`	The derivative of `surface_emission` with respect to quantities listed in `dsurface_names`.
`dsurface_names`	Name of surface retrieval quantities.
`dsurface_rmatrix_dx`	The derivative of `surface_rmatrix` with respect to quantities listed in `dsurface_names`.
`dxdy`	Contribution function (or gain) matrix.
`ecs_data`	Error corrected sudden data
`ext_mat`	Total extinction matrix.
`ext_mat_spt`	Extinction matrix for all individual scattering elements.
`f_backend`	The frequency position of each backend (spectrometer) channel.
`f_backend_multi`	As `f_backend` but describes an instrument with muliple mixer/receiver chains.
`f_grid`	The frequency grid for monochromatic pencil beam calculations.
`f_index`	Frequency index.
`file_index`	Index number for files.
`forloop_agenda`	The body for a for loop.
`forloop_index`	The index for for-loops.
`fos_iyin_za_angles`	So far just testing of FOS ...
`fos_scatint_angles`	So far just testing of FOS ...
`g0`	Gravity at zero altitude.
`g0_agenda`	Calculation of the gravity at zero altitude.
`gas_scattering_agenda`	Calculation of the gas scattering extinction and phase matrix.
`gas_scattering_coef`	Spectrum of scattering coefficient matrices.
`gas_scattering_do`	Flag to activate gas scattering.
`gas_scattering_fct_legendre`	Normalized phase function as Legendre series.
`gas_scattering_los_in`	Incoming line-of-sight for gas scattering.
`gas_scattering_los_out`	Outgoing line-of-sight for gas scattering.
`gas_scattering_mat`	Spectrum of normalized phase matrices.
`gas_scattering_output_type`	Flag to select the output of the `gas_scattering_agenda`.
`geo_pos`	Geo-position of a measurement.
`heating_rates`	The heating rates of atmospheric layers.
`instrument_pol`	Definition of the polarisation of an instrument.
`instrument_pol_array`	Multiple definition of instrument polarisation.
`inversion_iterate_agenda`	Work in progress ...
`inversion_iteration_counter`	Iteration counter variable for `inversion_iterate_agenda`.
`irradiance_field`	Irradiance field also known as flux density.
`isotopologue_ratios`	Contains the isotopologue ratios.
`iy`	Monochromatic pencil beam radiance spectrum.
`iy_agenda_call1`	Flag to handle recursive calls of `iy_main_agenda`
`iy_aux`	Data auxiliary to `iy`.
`iy_aux_vars`	Selection of quantities for `iy_aux` and when applicable also `y_aux`.
`iy_cloudbox_agenda`	Intensity at boundary or interior of the cloudbox.
`iy_id`	Identification number of `iy`.
`iy_independent_beam_approx_agenda`	Agenda dedicated to `iyIndependentBeamApproximation()`.
`iy_loop_freqs_agenda`	Agenda dedicated to `iyLoopFrequencies()`.
`iy_main_agenda`	Calculation of a single monochromatic pencil beam spectrum.
`iy_radar_agenda`	Calculation of pointwise backscattering.
`iy_space_agenda`	Downwelling radiation at the top of the atmosphere.
`iy_surface_agenda`	Upwelling radiation from the surface.
`iy_transmittance`	Transmittance to be included in `iy`.
`iy_transmitter`	Monochromatic pencil beam radiance spectrum of transmitter signal.
`iy_unit`	Selection of output unit for radiative transfer methods.
`iy_unit_radar`	Unit for radar simulations.
`iyb`	Monochromatic pencil beam data for one measurement block.
`jacobian`	The Jacobian matrix.
`jacobian_agenda`	Pure numerical Jacobian calculations.
`jacobian_do`	Flag to activate (clear-sky) Jacobian calculations.
`jacobian_quantities`	The retrieval quantities in the Jacobian matrix.
`jacobian_targets`	The partial derivatives that are computed for the Jacobian matrix.
`lat`	A latitude.
`lat_grid`	The latitude grid.
`lat_true`	Latitudinal geolocation for 1D and 2D data.
`lbl_checked`	Flag to check if the line-by-line calculations will work
`level0_data`	List of L0 data.
`level0_time`	List of L0 times.
`line_irradiance`	Irradiance as seen by a single absorption line.
`line_transmission`	Transmission as seen by a single absorption line.
`lm_ga_history`	The series of gamma values for a Marquardt-levenberg inversion.
`lo`	The local oscillator frequency.
`lo_multi`	Local oscillator frequencies.
`lon`	A longitude.
`lon_grid`	The longitude grid.
`lon_true`	Longitudinal geolocation for 1D and 2D data.
`mag_u_field`	Zonal component of the magnetic field.
`mag_u_field_raw`	Raw zonal component of the magnetic field.
`mag_v_field`	Meridional component of the magnetic field.
`mag_v_field_raw`	Raw meridional component of the magnetic field.
`mag_w_field`	Vertical component of the magnetic field.
`mag_w_field_raw`	Raw vertical component of the magnetic field.
`main_agenda`	The agenda corresponding to the entire controlfile.
`mblock_dlos`	The set of angular pencil beam directions for each measurement block.
`mblock_index`	Measurement block index.
`mc_antenna`	Antenna pattern description for dedicated MC calculaions.
`mc_error`	Error in simulated `y` when using a Monte Carlo approach.
`mc_iteration_count`	Counts the number of iterations (or photons) used in the MC scattering algorithm.
`mc_max_iter`	The maximum number of iterations allowed for Monte Carlo calculations.
`mc_max_scatorder`	The maximum scattering order allowed for Monte Carlo radar calculations.
`mc_max_time`	The maximum time allowed for Monte Carlo calculations.
`mc_min_iter`	The minimum number of iterations allowed for Monte Carlo calculations.
`mc_points`	Source to emission, position.
`mc_scat_order`	Number of atmospheric scattering events between emission point and sensor.
`mc_seed`	The integer seed for the random number generator used by Monte Carlo methods.
`mc_source_domain`	Rough classification of source to emission.
`mc_std_err`	Target precision (1 std.
`mc_taustep_limit`	Defines an upper step length in terms of optical thickness for Monte Carlo calculations.
`mc_y_tx`	Normalized Stokes vector for transmittance (e.g., radar).
`met_amsu_data`	The AMSU data set.
`met_mm_antenna`	The antenna beam width for meteorological millimeter instruments.
`met_mm_backend`	Backend description for meteorological millimeter sensors with passbands.
`met_mm_polarisation`	The polarisation for meteorological millimeter instruments.
`met_profile_calc_agenda`	This agenda is used for metoffice profile calculations.
`molarmass_dry_air`	The average molar mass of dry air.
`nbooks`	Number of elements in 4th lowest dimension of a Tensor.
`ncols`	Number of columns (elements in lowest dimension) of a Matrix or Tensor.
`nelem`	Number of elements of a Vector or Array.
`nlibraries`	Number of elements in 7th lowest dimension of a Tensor.
`nlte_do`	Flag to perform Non-LTE calculations.
`nlte_field`	The field of NLTE temperatures and/or ratios.
`nlte_field_raw`	Raw data for NLTE temperatures and/or ratios.
`nlte_level_identifiers`	An array of non-lte quantum identifiers for levels matching `nlte_field_raw` and on request `nlte_vibrational_energies`.
`nlte_source`	Variable to contain the additional source function due to NLTE effects.
`nlte_vibrational_energies`	An list of vibrational energies matching `nlte_level_identifiers` and `nlte_field_raw` or being 0.
`npages`	Number of elements in 3rd lowest dimension of a Tensor.
`nrows`	Number of rows (elements in 2nd lowest dimension) of a Matrix or Tensor.
`nshelves`	Number of elements in 5th lowest dimension of a Tensor.
`nvitrines`	Number of elements in 6th lowest dimension of a Tensor.
`oem_diagnostics`	Basic diagnostics of an OEM type inversion.
`oem_errors`	Errors encountered during OEM execution.
`output_file_format`	Output file format.
`p_grid`	The pressure grid.
`p_grid_orig`	The original pressure grid before optimization.
`p_hse`	Reference pressure calculation of hydrostatic equilibrium.
`particle_bulkprop_field`	Container for various data that describes scattering bulk properties.
`particle_bulkprop_names`	Identification of the data in `particle_bulkprop_field`.
`particle_masses`	The mass of individual particles (or bulks).
`pha_mat`	Ensemble averaged phase matrix.
`pha_mat_doit`	Ensemble averaged phase matrix for DOIT calculation.
`pha_mat_spt`	Phase matrix for all individual scattering elements.
`pha_mat_sptDOITOpt`	Interpolated phase matrix.
`pha_mat_spt_agenda`	Calculates the phase matrix for individual scattering elements.
`planet_rotation_period`	The sidereal rotation period of the planet.
`pnd_agenda_array`	Returns particle number density data for each scattering species.
`pnd_agenda_array_input_names`	Naming of all input expected by `pnd_agenda_array`.
`pnd_agenda_input`	The variable input to one element of `pnd_agenda_array`.
`pnd_agenda_input_names`	Naming of (existing or expected) data in `pnd_agenda_input`.
`pnd_agenda_input_t`	Temperature input to one element of `pnd_agenda_array`.
`pnd_data`	Particle number density values for a set of points.
`pnd_field`	Particle number density field.
`pnd_field_raw`	The particle number density field raw data.
`pnd_size_grid`	The particle sizes associated with `pnd_data`.
`ppath`	The propagation path for one line-of-sight.
`ppath_agenda`	Calculation of complete propagation paths.
`ppath_field`	An array meant to build up the necessary geometries for radiative field calculations.
`ppath_inside_cloudbox_do`	Flag to perform ray tracing inside the cloudbox.
`ppath_lmax`	Maximum length between points describing propagation paths.
`ppath_lraytrace`	Maximum length of ray tracing steps when determining propagation paths.
`ppath_step`	A propagation path step.
`ppath_step_agenda`	Calculation of a propagation path step.
`ppvar_f`	Doppler adjusted frequencies along the propagation path.
`ppvar_iy`	iy-values along the propagation path.
`ppvar_mag`	Magnetic field along the propagation path.
`ppvar_nlte`	Non-LTE temperatures/ratios along the propagation path.
`ppvar_optical_depth`	The optical depth between the sensor and each point of the propagation path.
`ppvar_p`	Pressure along the propagation path.
`ppvar_pnd`	PND values along the propagation path.
`ppvar_t`	Temperature along the propagation path.
`ppvar_trans_cumulat`	The transmittance between the sensor and each point of the propagation path.
`ppvar_trans_partial`	The transmittance between the points along the propagation path.
`ppvar_vmr`	VMR values along the propagation path.
`ppvar_wind`	Winds along the propagation path.
`predefined_model_data`	This contains predefined model data.
`propmat_clearsky`	This contains the absorption coefficients for one point in the atmosphere.
`propmat_clearsky_agenda`	Calculate the absorption coefficient matrix.
`propmat_clearsky_agenda_checked`	OK-flag for `propmat_clearsky_agenda`.
`propmat_clearsky_field`	Gas absorption field.
`psd_data`	Particle size distribution values for a set of points.
`psd_size_grid`	The particle sizes associated with `psd_data`.
`radiance_field`	Radiance field.
`range_bins`	The range bins of an active instrument.
`refellipsoid`	Reference ellipsoid.
`refr_index_air`	Real part of the refractive index of air.
`refr_index_air_agenda`	Calculation of the refractive index of air.
`refr_index_air_group`	Group index of refractivity.
`retrieval_checked`	Flag indicating completeness and consistency of retrieval setup.
`retrieval_eo`	The estimated error in the retrieval due to uncertainty in the observations.
`retrieval_ss`	The estimated error in the retrieval due to limited resolution of the observation system.
`rt_integration_option`	Switch between integration approaches for radiative transfer steps.
`rte_alonglos_v`	Velocity along the line-of-sight to consider for a RT calculation.
`rte_los`	A line-of-sight for (complete) radiative transfer calculations.
`rte_pos`	A geographical position for starting radiative transfer calculations.
`rte_pos2`	A second geographical position to define the geometry for radiative transfer calculations.
`rtp_los`	Line-of-sight at a radiative transfer point.
`rtp_mag`	Magnetic field at a radiative transfer point.
`rtp_nlte`	NLTE temperature/ratio at a radiative transfer point.
`rtp_pos`	Position of a radiative transfer point.
`rtp_pressure`	Pressure at a radiative transfer point.
`rtp_temperature`	Temperature at a radiative transfer point.
`rtp_vmr`	Absorption species abundances for radiative transfer calculations.
`scat_data`	Array of single scattering data.
`scat_data_checked`	OK-flag for `scat_data`.
`scat_data_mono`	Monochromatic single scattering data.
`scat_data_raw`	Array of raw single scattering data.
`scat_data_single`	Structure for the single scattering data.
`scat_lat_index`	Latitude index for scattering calculations.
`scat_lon_index`	Longitude index for scattering calculations.
`scat_meta`	An Array of scattering meta data (`scat_meta_single`).
`scat_meta_single`	Structure for the scattering meta data.
`scat_p_index`	Pressure index for scattering calculations.
`scat_species`	Array of Strings defining the scattering species to consider.
`scat_species_a`	Mass-size relationship parameter, for one scattering species.
`scat_species_b`	Mass-size relationship parameter, for one scattering species.
`scat_species_x`	The size grid of one scattering species.
`select_abs_species`	A select species tag group from `abs_species`
`sensor_checked`	OK-flag for sensor related variables.
`sensor_description_amsu`	Sensor description for simple AMSU setup.
`sensor_los`	The sensor line-of-sight (LOS) for each measurement block.
`sensor_los_ecef`	As `sensor_los` but matching ECEF coordinates.
`sensor_los_geodetic`	As `sensor_los` but matching geodetic coordinates.
`sensor_norm`	Flag if sensor response should be normalised or not (0 or 1).
`sensor_pol`	A set of polarisation response angles.
`sensor_pos`	The sensor position for each measurement block.
`sensor_pos_ecef`	As `sensor_pos` but using ECEF coordinates.
`sensor_pos_geodetic`	As `sensor_pos` but using geodetic coordinates.
`sensor_response`	The matrix modelling the total sensor response.
`sensor_response_aa`	The relative azimuth angles associated with the output of `sensor_response`.
`sensor_response_agenda`	This agenda shall provide `sensor_response` and associated variables.
`sensor_response_dlos`	The relative zenith and azimuth angles associated with the output of `sensor_response`.
`sensor_response_dlos_grid`	The zenith and azimuth angles associated with `sensor_response`.
`sensor_response_f`	The frequencies associated with the output of `sensor_response`.
`sensor_response_f_grid`	The frequency grid associated with `sensor_response`.
`sensor_response_pol`	The polarisation states associated with the output of `sensor_response`.
`sensor_response_pol_grid`	The "polarisation grid" associated with `sensor_response`.
`sensor_time`	The time for each measurement block.
`sideband_mode`	Description of target sideband.
`sideband_mode_multi`	Description of target sideband for a multiple LO receiver.
`sideband_response`	Description of (mixer) sideband response.
`sideband_response_multi`	Description of multiple (mixer) sideband responses.
`size`	`int` The number of variables on the workspace
`specific_heat_capacity`	Specific heat capacity.
`spectral_irradiance_field`	Spectral irradiance field.
`spectral_radiance_field`	Spectral radiance field.
`spectral_radiance_profile_operator`	An operator to create a spectral radiance profile.
`specular_los`	The specular direction (for reflection by a flat surface).
`spt_calc_agenda`	Calculates single scattering properties for individual scattering elements from the amplitude matrix.
`stokes_dim`	The dimensionality of the Stokes vector (1-4).
`stokes_rotation`	Rotation of the Stokes H and V directions.
`suns`	Array of Sun.
`suns_do`	Flag to activate the sun(s).
`surface_complex_refr_index`	Complex refractive index of the surface, at a single point.
`surface_emission`	The emission from the surface.
`surface_los`	Downwelling radiation directions to consider in surface reflection.
`surface_normal`	The normal vector for a point at the surface.
`surface_props_data`	Various surface properties.
`surface_props_names`	Name on surface properties found in `surface_props_data`.
`surface_reflectivity`	Surface reflectivity, for a given position and angle.
`surface_rmatrix`	The reflection coefficients for the directions given by `surface_los` to the direction of interest.
`surface_rtprop_agenda`	Provides radiative properties of the surface.
`surface_rtprop_agenda_array`	Description of surface radiative properties, for each surface type.
`surface_rv_rh`	Surface reflectivity, described by rv and rh (power) reflectivities.
`surface_scalar_reflectivity`	Surface reflectivity, assuming it can be described as a scalar value.
`surface_skin_t`	Surface skin temperature.
`surface_type_mask`	Classification of the surface using a type coding.
`surface_type_mix`	Gives the fraction of different surface types.
`t_field`	The field of atmospheric temperatures.
`t_field_raw`	Raw data for atmospheric temperatures.
`t_surface`	The surface temperature.
`telsem_atlases`	TELSEM 2 emissivity atlases.
`tessem_neth`	TESSEM2 neural network parameters for horizontal polarization.
`tessem_netv`	TESSEM2 neural network parameters for vertical polarization.
`test_agenda`	Dummy agenda for testing purposes.
`test_agenda_array`	Agenda array for TestArrayOfAgenda test case.
`time`	A UTC time point.
`time_grid`	A grid of times.
`time_stamps`	A set of times.
`timer`	Stores the starting time for time measurements.
`transmitter_pos`	Transmitter positions.
`verbosity`	ARTS verbosity.
`vmr_field`	VMR field.
`vmr_field_raw`	VMR data for the chosen gaseous species.
`water_p_eq_agenda`	Calculation of the saturation pressure of water.
`water_p_eq_field`	The field of water saturation pressure.
`wigner_initialized`	Indicates if the wigner tables are initialized.
`wind_u_field`	Zonal component of the wind field.
`wind_u_field_raw`	Raw zonal component of the wind field.
`wind_v_field`	Meridional component of the magnetic field.
`wind_v_field_raw`	Raw meridional component of the magnetic field.
`wind_w_field`	Vertical wind component field.
`wind_w_field_raw`	Raw vertical wind component field.
`wmrf_channels`	Channel selection for WMRF fast calculation.
`wmrf_weights`	The weights for a WMRF fast calculation.
`x`	The state vector.
`xa`	The a priori state vector.
`xml_output_type`	Flag to determine whether XML output shall be binary or ascii.
`xsec_fit_data`	Fitting model coefficients for cross section species.
`y`	The measurement vector.
`y_aux`	Data auxilary to `y`.
`y_baseline`	The baseline of `y`.
`y_f`	The frequencies associated with `y`.
`y_geo`	The geo-position assigned to each element of `y`.
`y_geo_series`	The geo-positioning assigned to each row of `y_series`.
`y_geo_swath`	The geo-positioning assigned to each pixel of `y_swath`.
`y_los`	The line-of-sights associated with `y`.
`y_pol`	The polarisation states associated with `y`.
`y_pos`	The sensor positions associated with `y`.
`y_series`	Two-dimensional version of the measurement vector.
`y_swath`	Three-dimensional version of the measurement vector.
`yb`	The measurement vector for a single measurement block.
`ybatch`	Batch of spectra.
`ybatch_aux`	Data auxilary to `ybatch`.
`ybatch_calc_agenda`	Calculations to perform for each batch case.
`ybatch_corr`	Correction terms for `ybatch`.
`ybatch_index`	Index of batch case.
`ybatch_jacobians`	All the Jacobians associated with ybatch.
`ybatch_n`	Number of batch cases for `ybatchCalc()`.
`ybatch_start`	Start index for `ybatchCalc()`.
`yf`	A fitted measurement vector.
`z_field`	The field of geometrical altitudes.
`z_field_raw`	Raw data for geometrical altitudes.
`z_hse_accuracy`	Minimum accuracy for calculation of hydrostatic equilibrium.
`z_sensor`	The altitude of the sensor.
`z_surface`	The surface altitude.
`za_grid`	Zenith angle grid.
`za_grid_weights`	Zenith angle integration weights.
`za_index`	Zenith angle index for scattering calculations.