f_gridFromSensorAMSUgeneric

Workspace.f_gridFromSensorAMSUgeneric(self: pyarts.arts._Workspace, f_grid: Optional[Union[pyarts.arts.WorkspaceVariable, pyarts.arts.Vector]] = self.f_grid, f_backend_multi: Optional[Union[pyarts.arts.WorkspaceVariable, pyarts.arts.ArrayOfVector]] = self.f_backend_multi, backend_channel_response_multi: Optional[Union[pyarts.arts.WorkspaceVariable, pyarts.arts.ArrayOfArrayOfGriddedField1]] = self.backend_channel_response_multi, spacing: Optional[Union[pyarts.arts.WorkspaceVariable, pyarts.arts.Numeric]] = .1e9, verbosityVect: Optional[Union[pyarts.arts.WorkspaceVariable, pyarts.arts.Vector]] = Vector{}, verbosity: Optional[Union[pyarts.arts.WorkspaceVariable, pyarts.arts.Verbosity]] = self.verbosity) None

Automatcially calculate f_grid to match the sensor. This function is based on ‘f_gridFromSensorAMSU’

The method calculates f_grid to match the instrument, as given by the backend frequencies f_backend, and the backend channel responses backend_channel_response.

You have to specify the desired spacing in the keyword spacing, which has a default value of 100 MHz. (The actual value is 0.1e9, since our unit is Hz.) The produced grid will not have exactly the requested spacing, but it will not be coarser than requested. The algorithm starts with the band edges, then adds additional points until the spacing is at least as fine as requested.

Author(s): Oscar Isoz

Parameters: