#include "linescaling.h"
#include "interpolation_poly.h"

Functions
Numeric	SingleCalculatePartitionFctFromCoeff (const Numeric &T, ConstVectorView q_grid)

Numeric	SingleCalculatePartitionFctFromCoeff_dT (const Numeric &T, ConstVectorView q_grid)

Numeric	SingleCalculatePartitionFctFromData (const Numeric &T, ConstVectorView t_grid, ConstVectorView q_grid, const Index &interp_order)

Numeric	SingleCalculatePartitionFctFromData_dT (const Numeric &QT, const Numeric &T, const Numeric &dT, ConstVectorView t_grid, ConstVectorView q_grid, const Index &interp_order)

Numeric	single_partition_function (const Numeric &T, const SpeciesAuxData::AuxType &partition_type, const ArrayOfGriddedField1 &partition_data)
	Computes the partition function at one temperature. More...

Numeric	dsingle_partition_function_dT (const Numeric &QT, const Numeric &T, const Numeric &dT, const SpeciesAuxData::AuxType &partition_type, const ArrayOfGriddedField1 &partition_data)
	Computes the partition function temperature derivative. More...

Numeric	stimulated_emission (Numeric T, Numeric F0)
	Computes exp(-hf/kT) More...

Numeric	dstimulated_emissiondT (Numeric T, Numeric F0)
	Computes temperature derivative of exp(-hf/kT) More...

Numeric	dstimulated_emissiondF0 (Numeric T, Numeric F0)
	Computes frequency derivative of exp(-hf/kT) More...

Numeric	stimulated_relative_emission (const Numeric &gamma, const Numeric &gamma_ref)
	Computes (1 - gamma) / (1 - gamma_ref) More...

Numeric	dstimulated_relative_emission_dT (const Numeric &gamma, const Numeric &gamma_ref, const Numeric &F0, const Numeric &T)
	Computes temperature derivative of (1 - gamma) / (1 - gamma_ref) More...

Numeric	dstimulated_relative_emission_dF0 (const Numeric &gamma, const Numeric &gamma_ref, const Numeric &T, const Numeric &T0)
	Computes frequency derivative of (1 - gamma) / (1 - gamma_ref) More...

Numeric	boltzman_ratio (const Numeric &T, const Numeric &T0, const Numeric &E0)
	Computes exp(E0/c (T - T0) / (T * T0)) More...

Numeric	dboltzman_ratio_dT (const Numeric &boltzmann_ratio, const Numeric &T, const Numeric &E0)
	Computes temperature derivatives exp(E0/k (T - T0) / (T * T0)) More...

Numeric	boltzman_factor (Numeric T, Numeric E0)
	Computes exp(- E0/kT) More...

Numeric	dboltzman_factordT (Numeric T, Numeric E0)
	Computes temperature derivatives exp(- E0/kT) More...

Numeric	dboltzman_factordE0 (Numeric T, Numeric E0)
	Computes lower state energy derivatives exp(- E0/kT) More...

Numeric	absorption_nlte_ratio (const Numeric &gamma, const Numeric &r_upp, const Numeric &r_low)
	Computes (r_low - r_upp * gamma) / (1 - gamma) More...

Numeric	dabsorption_nlte_rate_dT (const Numeric &gamma, const Numeric &T, const Numeric &F0, const Numeric &El, const Numeric &Eu, const Numeric &r_upp, const Numeric &r_low)
	Computes temperature derivatives of (r_low - r_upp * gamma) / (1 - gamma) More...

Numeric	dabsorption_nlte_rate_dF0 (const Numeric &gamma, const Numeric &T, const Numeric &r_upp, const Numeric &r_low)
	Computes frequency derivative of (r_low - r_upp * gamma) / (1 - gamma) More...

Numeric	dabsorption_nlte_rate_dTl (const Numeric &gamma, const Numeric &T, const Numeric &Tl, const Numeric &El, const Numeric &r_low)
	Computes lower state temperature derivative of (r_low - r_upp * gamma) / (1 - gamma) More...

Numeric	dabsorption_nlte_rate_dTu (const Numeric &gamma, const Numeric &T, const Numeric &Tu, const Numeric &Eu, const Numeric &r_upp)
	Computes upper state temperature derivative of (r_low - r_upp * gamma) / (1 - gamma) More...

Function Documentation

◆ absorption_nlte_ratio()

Numeric absorption_nlte_ratio	(	const Numeric &	gamma,
		const Numeric &	r_upp = `1.0`,
		const Numeric &	r_low = `1.0`
	)

Computes (r_low - r_upp * gamma) / (1 - gamma)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	r_upp	Relative ratio NLTE/LTE in upper ratio
[in]	r_low	Relative ratio NLTE/LTE in lower ratio

Returns: (r_low - r_upp * gamma) / (1 - gamma)

Definition at line 195 of file linescaling.cc.

◆ boltzman_factor()

Numeric boltzman_factor	(	Numeric	T,
		Numeric	E0
	)

Computes exp(- E0/kT)

Parameters

[in]	T	Temperature
[in]	E0	Lower state energy

Returns: exp(- E0/kT)

Definition at line 176 of file linescaling.cc.

References E0.

◆ boltzman_ratio()

Numeric boltzman_ratio	(	const Numeric &	T,
		const Numeric &	T0,
		const Numeric &	E0
	)

Computes exp(E0/c (T - T0) / (T * T0))

Parameters

[in]	T	Temperature
[in]	T0	Reference temperature
[in]	E0	Lower state energy

Returns: exp(E0/c (T - T0) / (T * T0))

Definition at line 159 of file linescaling.cc.

◆ dabsorption_nlte_rate_dF0()

Numeric dabsorption_nlte_rate_dF0	(	const Numeric &	gamma,
		const Numeric &	T,
		const Numeric &	r_upp = `1.0`,
		const Numeric &	r_low = `1.0`
	)

Computes frequency derivative of (r_low - r_upp * gamma) / (1 - gamma)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	T	Temperature
[in]	r_upp	Relative ratio NLTE/LTE in upper ratio
[in]	r_low	Relative ratio NLTE/LTE in lower ratio

Returns: d[(r_low - r_upp * gamma) / (1 - gamma)] / dF0

Definition at line 228 of file linescaling.cc.

References BOLTZMAN_CONST, and PLANCK_CONST.

◆ dabsorption_nlte_rate_dT()

Numeric dabsorption_nlte_rate_dT	(	const Numeric &	gamma,
		const Numeric &	T,
		const Numeric &	F0,
		const Numeric &	El,
		const Numeric &	Eu,
		const Numeric &	r_upp = `1.0`,
		const Numeric &	r_low = `1.0`
	)

Computes temperature derivatives of (r_low - r_upp * gamma) / (1 - gamma)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	T	Temperature
[in]	F0	Central frequency
[in]	El	Lower state energy
[in]	Eu	Upper state energy
[in]	r_upp	Relative ratio NLTE/LTE in upper ratio
[in]	r_low	Relative ratio NLTE/LTE in lower ratio

Returns: d[(r_low - r_upp * gamma) / (1 - gamma)] / dT

Definition at line 201 of file linescaling.cc.

References BOLTZMAN_CONST, and PLANCK_CONST.

◆ dabsorption_nlte_rate_dTl()

Numeric dabsorption_nlte_rate_dTl	(	const Numeric &	gamma,
		const Numeric &	T,
		const Numeric &	Tl,
		const Numeric &	El,
		const Numeric &	r_low = `1.0`
	)

Computes lower state temperature derivative of (r_low - r_upp * gamma) / (1 - gamma)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	T	Temperature
[in]	Tl	Temperature of lower level
[in]	El	Lower state energy
[in]	r_low	Relative ratio NLTE/LTE in lower ratio

Returns: d[(r_low - r_upp * gamma) / (1 - gamma)] / dTl

Definition at line 239 of file linescaling.cc.

References BOLTZMAN_CONST, ARTS::Var::x(), and ARTS::Var::y().

◆ dabsorption_nlte_rate_dTu()

Numeric dabsorption_nlte_rate_dTu	(	const Numeric &	gamma,
		const Numeric &	T,
		const Numeric &	Tu,
		const Numeric &	Eu,
		const Numeric &	r_upp = `1.0`
	)

Computes upper state temperature derivative of (r_low - r_upp * gamma) / (1 - gamma)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	T	Temperature
[in]	Tu	Temperature of lower level
[in]	Eu	Lower state energy
[in]	r_upp	Relative ratio NLTE/LTE in upper ratio

Returns: d[(r_low - r_upp * gamma) / (1 - gamma)] / dTu

Definition at line 252 of file linescaling.cc.

References BOLTZMAN_CONST, ARTS::Var::x(), and ARTS::Var::y().

◆ dboltzman_factordE0()

Numeric dboltzman_factordE0	(	Numeric	T,
		Numeric	E0
	)

Computes lower state energy derivatives exp(- E0/kT)

Parameters

[in]	T	Temperature
[in]	E0	Lower state energy

Returns: dexp(- E0/kT) / dE0

Definition at line 189 of file linescaling.cc.

References E0.

◆ dboltzman_factordT()

Numeric dboltzman_factordT	(	Numeric	T,
		Numeric	E0
	)

Computes temperature derivatives exp(- E0/kT)

Parameters

[in]	T	Temperature
[in]	E0	Lower state energy

Returns: dexp(- E0/kT) / dT

Definition at line 182 of file linescaling.cc.

References E0, and Constant::pow2().

◆ dboltzman_ratio_dT()

Numeric dboltzman_ratio_dT	(	const Numeric &	boltzmann_ratio,
		const Numeric &	T,
		const Numeric &	E0
	)

Computes temperature derivatives exp(E0/k (T - T0) / (T * T0))

Parameters

[in]	boltzmann_ratio	Output of boltzmann_ratio(...)
[in]	T	Temperature
[in]	E0	Lower state energy

Returns: exp(E0/k (T - T0) / (T * T0))

Definition at line 166 of file linescaling.cc.

References BOLTZMAN_CONST.

◆ dsingle_partition_function_dT()

Numeric dsingle_partition_function_dT	(	const Numeric &	QT,
		const Numeric &	T,
		const Numeric &	dT,
		const SpeciesAuxData::AuxType &	partition_type,
		const ArrayOfGriddedField1 &	partition_data
	)

Computes the partition function temperature derivative.

Parameters

[in]	QT	partition function
[in]	T	Temperature
[in]	dT	Temperature perturbance
[in]	partition_type	Switch for partition type of line
[in]	partition_data	Partition data of line

Returns: partition function derivative wrt temperature

Definition at line 87 of file linescaling.cc.

References SpeciesAuxData::AT_PARTITIONFUNCTION_COEFF, SpeciesAuxData::AT_PARTITIONFUNCTION_TFIELD, data, SingleCalculatePartitionFctFromCoeff_dT(), and SingleCalculatePartitionFctFromData_dT().

Referenced by xsec_species(), and zeeman_on_the_fly().

◆ dstimulated_emissiondF0()

Numeric dstimulated_emissiondF0	(	Numeric	T,
		Numeric	F0
	)

Computes frequency derivative of exp(-hf/kT)

Parameters

[in]	T	Temperatures
[in]	F0	Frequency

Returns: dexp(-hf/kT) / dF0

Definition at line 122 of file linescaling.cc.

References F0.

◆ dstimulated_emissiondT()

Numeric dstimulated_emissiondT	(	Numeric	T,
		Numeric	F0
	)

Computes temperature derivative of exp(-hf/kT)

Parameters

[in]	T	Temperatures
[in]	F0	Frequency

Returns: dexp(-hf/kT) / dT

Definition at line 116 of file linescaling.cc.

References F0, and Constant::pow2().

◆ dstimulated_relative_emission_dF0()

Numeric dstimulated_relative_emission_dF0	(	const Numeric &	gamma,
		const Numeric &	gamma_ref,
		const Numeric &	T,
		const Numeric &	T0
	)

Computes frequency derivative of (1 - gamma) / (1 - gamma_ref)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	gamma_ref	Stimulated emission at reference temperature
[in]	T	Temperature
[in]	T0	Reference temperature

Returns: d[(1 - gamma) / (1 - gamma_ref)] / dF0

Definition at line 144 of file linescaling.cc.

◆ dstimulated_relative_emission_dT()

Numeric dstimulated_relative_emission_dT	(	const Numeric &	gamma,
		const Numeric &	gamma_ref,
		const Numeric &	F0,
		const Numeric &	T
	)

Computes temperature derivative of (1 - gamma) / (1 - gamma_ref)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	gamma_ref	Stimulated emission at reference temperature
[in]	F0	Frequency
[in]	T	Temperature

Returns: d[(1 - gamma) / (1 - gamma_ref)] / dT

Definition at line 133 of file linescaling.cc.

References BOLTZMAN_CONST, and PLANCK_CONST.

◆ single_partition_function()

Numeric single_partition_function	(	const Numeric &	T,
		const SpeciesAuxData::AuxType &	partition_type,
		const ArrayOfGriddedField1 &	partition_data
	)

Computes the partition function at one temperature.

Parameters

[in]	T	Temperature
[in]	partition_type	Switch for partition type of line
[in]	partition_data	Partition data of line

Returns: partition function

Definition at line 72 of file linescaling.cc.

References SpeciesAuxData::AT_PARTITIONFUNCTION_COEFF, SpeciesAuxData::AT_PARTITIONFUNCTION_TFIELD, data, SingleCalculatePartitionFctFromCoeff(), and SingleCalculatePartitionFctFromData().

Referenced by xsec_species(), and zeeman_on_the_fly().

◆ SingleCalculatePartitionFctFromCoeff()

Numeric SingleCalculatePartitionFctFromCoeff	(	const Numeric &	T,
		ConstVectorView	q_grid
	)

Definition at line 22 of file linescaling.cc.

References ConstVectorView::nelem().

Referenced by single_partition_function().

◆ SingleCalculatePartitionFctFromCoeff_dT()

Numeric SingleCalculatePartitionFctFromCoeff_dT	(	const Numeric &	T,
		ConstVectorView	q_grid
	)

Definition at line 35 of file linescaling.cc.

References ConstVectorView::nelem().

Referenced by dsingle_partition_function_dT().

◆ SingleCalculatePartitionFctFromData()

Numeric SingleCalculatePartitionFctFromData	(	const Numeric &	T,
		ConstVectorView	t_grid,
		ConstVectorView	q_grid,
		const Index &	interp_order
	)

Definition at line 48 of file linescaling.cc.

References gridpos_poly(), GridPosPoly::idx, interp(), interpweights(), and Array< base >::nelem().

Referenced by single_partition_function().

◆ SingleCalculatePartitionFctFromData_dT()

Numeric SingleCalculatePartitionFctFromData_dT	(	const Numeric &	QT,
		const Numeric &	T,
		const Numeric &	dT,
		ConstVectorView	t_grid,
		ConstVectorView	q_grid,
		const Index &	interp_order
	)

Definition at line 59 of file linescaling.cc.

References gridpos_poly(), GridPosPoly::idx, interp(), interpweights(), and Array< base >::nelem().

Referenced by dsingle_partition_function_dT().

◆ stimulated_emission()

Numeric stimulated_emission	(	Numeric	T,
		Numeric	F0
	)

Computes exp(-hf/kT)

Parameters

[in]	T	Temperatures
[in]	F0	Frequency

Returns: exp(-hf/kT)

Definition at line 110 of file linescaling.cc.

References F0.

◆ stimulated_relative_emission()

Numeric stimulated_relative_emission	(	const Numeric &	gamma,
		const Numeric &	gamma_ref
	)

Computes (1 - gamma) / (1 - gamma_ref)

Parameters

[in]	gamma	Stimulated emission at temperature
[in]	gamma_ref	Stimulated emission at reference temperature

Returns: (1 - gamma) / (1 - gamma_ref)

Definition at line 128 of file linescaling.cc.

Functions

Function Documentation

◆ absorption_nlte_ratio()

◆ boltzman_factor()

◆ boltzman_ratio()

◆ dabsorption_nlte_rate_dF0()

◆ dabsorption_nlte_rate_dT()

◆ dabsorption_nlte_rate_dTl()

◆ dabsorption_nlte_rate_dTu()

◆ dboltzman_factordE0()

◆ dboltzman_factordT()

◆ dboltzman_ratio_dT()

◆ dsingle_partition_function_dT()

◆ dstimulated_emissiondF0()

◆ dstimulated_emissiondT()

◆ dstimulated_relative_emission_dF0()

◆ dstimulated_relative_emission_dT()

◆ single_partition_function()

◆ SingleCalculatePartitionFctFromCoeff()

◆ SingleCalculatePartitionFctFromCoeff_dT()

◆ SingleCalculatePartitionFctFromData()

◆ SingleCalculatePartitionFctFromData_dT()

◆ stimulated_emission()

◆ stimulated_relative_emission()