#include <cmath>
#include <map>
#include <string>
#include <vector>
#include "hex-interpolate.h"
#include "hex-chebyshev.h"
#include "hex-special.h"
#include "hex-version.h"
#include "../quantities.h"
#include "../utils.h"

Include dependency graph for scatamp.cpp:

Functions
	createNewScatteringQuantity (ScatteringAmplitude, "scatamp") extern void hex_tmat_pw_transform(int ni

void	hex_scattering_amplitude (int ni, int li, int mi, int nf, int lf, int mf, int S, int nEnergies, double energies, int nAngles, double angles, double result, double extra)
	Scattering anplitude (C). More...

void	hex_scattering_amplitude_ (int ni, int li, int mi, int nf, int lf, int mf, int S, int nEnergies, double energies, int nAngles, double angles, double result, double *extra)
	Scattering anplitude (Fortran). More...

Variables
int	li

int int	mi

int int int	nf

int int int int	lf

int int int int int	mf

int int int int int int	nEnergies

int int int int int int double *	energies

int int int int int int double bool	extra

int int int int int int double bool std::function< void(int ell, iArrays const &converged, iArrays const &complete, cArrays const &tmatrices) >	f

Function Documentation

◆ createNewScatteringQuantity()

createNewScatteringQuantity	(	ScatteringAmplitude	,
		"scatamp"
	)

◆ hex_scattering_amplitude()

void hex_scattering_amplitude	(	int	ni,
		int	li,
		int	mi,
		int	nf,
		int	lf,
		int	mf,
		int	S,
		int	nEnergies,
		double *	energies,
		int	nAngles,
		double *	angles,
		double *	result,
		double *	extra
	)

C prototype.

Parameters

ni	Initial atomic principal quantum number.
li	Initial atomic orbital quantum number.
mi	Initial atomic magnetic quantum number.
nf	Final atomic principal quantum number.
lf	Final atomic orbital quantum number.
mf	Final atomic magnetic quantum number.
S	Total spin (0 = singlet, 1 = triplet).
nEnergies	Number of supplied impact energies.
energies	Real array of length `nEnergies` containing impact energies in Rydbergs.
nAngles	Number of supplied angles.
angles	Real array of length `nAngles` containing scattering angles.
result	Complex array of length `nEnergies*nAngles` (or real array of twice that length) to contain the amplitudes.
extra	Extrapolated result (w.r.t. partial waves); optional - can be set to zero.

◆ hex_scattering_amplitude_()

void hex_scattering_amplitude_	(	int *	ni,
		int *	li,
		int *	mi,
		int *	nf,
		int *	lf,
		int *	mf,
		int *	S,
		int *	nEnergies,
		double *	energies,
		int *	nAngles,
		double *	angles,
		double *	result,
		double *	extra
	)

Fortran prototype equivalent to

subroutine scattering_amplitude (ni,li,mi,nf,lf,mf,S,E,N,angles,result)
  integer, intent(in) :: ni,li,mi
  integer, intent(in) :: nf,lf,mf
  integer, intent(int) :: s,n
  double precision, intent(in)     :: e
  double precision, dimension(N)   :: angles
  double precision, dimension(2*N) :: result

Parameters

ni	Initial atomic principal quantum number.
li	Initial atomic orbital quantum number.
mi	Initial atomic magnetic quantum number.
nf	Final atomic principal quantum number.
lf	Final atomic orbital quantum number.
mf	Final atomic magnetic quantum number.
S	Total spin (0 = singlet, 1 = triplet).
nEnergies	Number of supplied impact energies.
energies	Real array of length `nEnergies` containing impact energies in Rydbergs.
nAngles	Number of supplied angles.
angles	Real array of length `nAngles` containing scattering angles.
result	Complex array of length `nEnergies*nAngles` (or real array of twice that length) to contain the amplitudes.
extra	Extrapolated result (w.r.t. partial waves); optional - can be set to zero.

Variable Documentation

◆ energies

int int int int int int double* energies

◆ extra

int int int int int int double bool extra

◆ f

int int int int int int double bool std::function< void ( int ell, iArrays const & converged, iArrays const & complete, cArrays const & tmatrices ) > f