Functions/Subroutines
subroutine, public	initsolvermodule (me_assembly, tgt_assembly, color, nx_, nz_, nw_, wmax_, kdx_, em_kdx_, dm_, electromagnetic_, em_control_variate_, pullback_, fieldaligned_, longwavelength_, na_half_rho_ref_, phase_factor_, isnfiltlocal_, isnfiltlocalysolved_, NBmodeslocal_, nfiltlocal_, navgmax_, testcase_, internal_boundary_, pade_, multi_matrix_, inner_BC_, lapl_boundary_terms_)

subroutine, public	destroysolvermodule ()

subroutine, public	assemblyrhs_tests (rhs_f, nmat, nqx, nqy)
	Project analytical field on B-splines. More...

subroutine, public	assemblyrhs_antenna (rhs_f, nmat, nqx, nqy, phase_shift, sprof, prof, nprof)
	Project antenna's analytical field on B-splines, adapted from assemblyRHS_tests. More...

subroutine, public	assemblymatrix (nqx, nqy)

subroutine	assemblymassmatrix (nqx, nqy)

subroutine, public	assemblyboltzman (isp, nqx, nqy, remove_trap_contribution)

subroutine, public	assemblyboltzman_zf (isp, nqx, nqy, remove_trap_contribution, oldAvgJac)
	Assemble the ZF contribution of the adiabatic electrons to the LHS matrix. More...

subroutine, public	assemblyboltzmannpade (isp, nqx, nqy, remove_trap_contribution)
	Assembly of the pade approximation for adiabatic electrons without zonal flows. More...

subroutine, public	assemblyboltzmannpade_zf (isp, nqx, nqy, remove_trap_contribution)
	Computes Pade correction to the adiabatic electron model for zonal flows. More...

subroutine, public	assemblypoldrift_longwavelength_fourier (isp, nqx, nqy)

subroutine, public	assemblypadematforrhs (isp, nqx, nqy)

subroutine	domainofintegrationextended (imin, isp, smin, smax, ixmin_int, ixmax_int)

subroutine, public	assemblypoldrift_arbitrary_wavelength_fourier (isp, nqx, nqy, iymin, iymax)

logical function	fieldmodefilter (i, m, n)

subroutine, public	assemblylhsfinalize ()
	Boundary conditions, and merge of different matrices. More...

subroutine, public	finalizematrix ()
	Boundary conditions, and merge of different matrices. More...

subroutine	backsolvephi (rhs_in, sol, sol_dft)
	Input is the RHS project on BSplines. More...

subroutine	backsolvephi_ (rhs_f, sol_dft)

subroutine, public	backsolve_rhs_f (rhs_f, nmat, matnum)
	Input is the RHS in fourier and the toroidal mode number to backsolve. More...

subroutine	backsolve_rhs_f_julien (rhs_f, nmat)

subroutine, public	backsolve_rhs_f_multi (rhs_f, nmat, matnum)

subroutine, public	backsolve_mass_f (arr_f, out_f, nmat)
	Backsolve any quantity with the mass matrix (diagnostics purpose) More...

subroutine, public	multiply_mass_f (arr_f, nmat)
	Multiply by mass matrix arr_f = masmat(nmat) * arr_f. More...

subroutine, public	backsolve_mass_s (arr_f, out_f)
	Backsolve any quantity with the mass matrix (diagnostics purpose) More...

subroutine, public	backsolve_mass_sn (arr_, out_, nmode)

double precision function, public	computetoroidalmasscoeff (n)

subroutine, public	print_matrix_gbmatf (Mval, nqsmin, nx_, ny_, degree_, filename)

integer function	getlocaltoroidalindex (n)

subroutine, public	reduce_matrix (ierr, comm_, tgt_, me_)
	Perform a reduction by sum of the LHS. More...

subroutine, public	broadcast_matrix (ierr, comm_, src_, me_)

subroutine	broadcast_matrix_julien (ierr, comm_, src_, me_)

subroutine	broadcast_matrix_multi (ierr, comm_, src_)

subroutine	dft1d (input, output, nx, ny)
	Compute the DFT of the RHS. More...

subroutine	dft_or_idft_cpx (input, output, nx, ny, isign)
	Compute the DFT of the RHS and divide it by the coeff m^(n). isign=-1 (=_FFTW_FORWARD) or +1 (=_FFTW_BACKWARD) More...

subroutine	dftinverse1d (input, output, nx, ny)
	Compute the DFT of the RHS and divide it by the coeff m^(n). More...

subroutine	dftinverse1d_rc (input, output, nx, ny)
	Compute the DFT of the RHS and divide it by the coeff m^(n). More...

subroutine	dftinverse1d_full (input, output, nx, ny)
	Compute the DFT of the RHS and divide it by the coeff m^(n). More...

subroutine	def_matrix_filter_new

subroutine, public	copy_matrix_filter (ixmin, ixmax, n, mmmincopy)

subroutine	reality_condition (v_dft, ny, ny2)

subroutine	print_rhs_debug (rhs, n)
	Print rhs array. More...

subroutine	print_phi_debug (phi, n)
	Print phi array. More...

subroutine	print_matrix_zpbmat (Mname, M, n)
	Print zpbmat matrix. More...

subroutine	init_multi_matrix (lapl_boundary_terms)

Variables
integer	na_eff_lim

integer	testcase

integer	jj

double precision, parameter	eqsign =-1d0

integer	kd
	Number of diagonals. More...

integer	em_kd
	Number of diagonals for EM matrix. More...

integer	kdx
	Number of radial diagonals i-i' < kdx. More...

integer	em_kdx
	Number of radial diagonals i-i' for EM matrices< kdx. More...

type(zpbmat), dimension(:), allocatable	lhs
	array of nz/2 matrices More...

type(zgbmat), dimension(:), allocatable	lhspade

type(zgbmat), dimension(:), allocatable	lhspadesym
	General banded matrix for PadÃ© implementation (non symmetric implementation) More...

logical, dimension(:), allocatable	isnfiltlocalysolved
	array of nz/2 logical which tell if the matrix is local to this cpu More...

logical, dimension(:), allocatable, public	isnfiltlocal
	array of nz/2 logical which tell if the matrix is local to this cpu More...

integer, public	nbmodeslocal
	number of modes local to the cpu =(1\|0)+nphip/deltan More...

integer, dimension(:), allocatable	nfiltlocal
	array of local toroidal mode numbers (which require an assembled matrix) More...

type(zpbmat), dimension(:), allocatable	masmat

type(pbmat)	masmat_s

type(zpbmat), dimension(:), allocatable	padmat

complex, parameter	pzero =0d0

complex, parameter	pone =1d0

integer, dimension(:,:), allocatable	mmin

integer, dimension(:,:), allocatable	mmax

integer, dimension(:,:), allocatable	mmin_

integer	dm

integer	nm_min

integer	nm_max

integer	nm

integer	nm2

integer	nw

real	wmax

integer	ixmin

integer	ixmax

real	dw

integer	bcs_left

integer	bcs_right

logical	phase_factor

integer	curproc

integer	fieldaligned

integer	internal_boundary

integer, public	multi_matrix

integer	inner_bc

logical	longwavelength

logical	pade

logical	electromagnetic

logical	em_control_variate

logical	pullback

logical	efluid

integer	species_ref

integer	na_half_rho_ref

real	bref

real	tref

real	nref

real	omegaref

real	cref

real	rhoref

real	mref

real	qref

real	bnorm

real	lnorm

real, public	tim_dyad_cumul

integer	tgt_proc

Detailed Description

Author: Julien Dominski

Date: November 2014 x is the radial coordinate. y is the poloidal. z is along the axis of symetry of the cylinder.

Function/Subroutine Documentation

◆ assemblyboltzman()

subroutine, public solver_mod::assemblyboltzman	(	integer, intent(in)	isp,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy,
		logical, intent(in)	remove_trap_contribution
	)

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◆ assemblyboltzman_zf()

subroutine, public solver_mod::assemblyboltzman_zf	(	integer, intent(in)	isp,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy,
		logical, intent(in)	remove_trap_contribution,
		logical	oldAvgJac
	)

Assemble the ZF contribution of the adiabatic electrons to the LHS matrix.

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◆ assemblyboltzmannpade()

subroutine, public solver_mod::assemblyboltzmannpade	(	integer, intent(in)	isp,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy,
		logical, intent(in)	remove_trap_contribution
	)

Assembly of the pade approximation for adiabatic electrons without zonal flows.

Author: Emmanuel Lanti (based on assemblyPadeMatForRHS (Julien Dominski))

Date: 11.07.2016

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◆ assemblyboltzmannpade_zf()

subroutine, public solver_mod::assemblyboltzmannpade_zf	(	integer, intent(in)	isp,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy,
		logical, intent(in)	remove_trap_contribution
	)

Computes Pade correction to the adiabatic electron model for zonal flows.

Author: Emmanuel Lanti based on assemblyBoltzman_ZF (Julien Dominski)

Date: 14.07.2016

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◆ assemblylhsfinalize()

subroutine, public solver_mod::assemblylhsfinalize

Boundary conditions, and merge of different matrices.

Note: This may not work if using an other solver

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◆ assemblymassmatrix()

subroutine solver_mod::assemblymassmatrix	(	integer, intent(in)	nqx,
		integer, intent(in)	nqy
	)

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◆ assemblymatrix()

subroutine, public solver_mod::assemblymatrix	(	integer, intent(in)	nqx,
		integer, intent(in)	nqy
	)

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◆ assemblypadematforrhs()

subroutine, public solver_mod::assemblypadematforrhs	(	integer, intent(in)	isp,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy
	)

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◆ assemblypoldrift_arbitrary_wavelength_fourier()

subroutine, public solver_mod::assemblypoldrift_arbitrary_wavelength_fourier	(	integer, intent(in)	isp,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy,
		integer, intent(in)	iymin,
		integer, intent(in)	iymax
	)

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◆ assemblypoldrift_longwavelength_fourier()

subroutine, public solver_mod::assemblypoldrift_longwavelength_fourier	(	integer, intent(in)	isp,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy
	)

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◆ assemblyrhs_antenna()

subroutine, public solver_mod::assemblyrhs_antenna	(	complex, dimension(:), intent(out)	rhs_f,
		integer, intent(in)	nmat,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy,
		real, intent(in)	phase_shift,
		real, dimension(:), intent(in), allocatable	sprof,
		real, dimension(:), intent(in), allocatable	prof,
		integer, intent(in)	nprof
	)

Project antenna's analytical field on B-splines, adapted from assemblyRHS_tests.

Author: N. Ohana

Date: 07/2018

See also: Matrix and right-hand-side for field solver

Parameters

[out]	rhs_f	DFT of \(\hat b_{ijk}=\int J_{s\chi\varphi}(s,\chi)f(s,\chi,\varphi)\Lambda_i(s)\Lambda_j(\chi)\Lambda_k(\varphi)~ds~d\chi~d\varphi\)
[in]	nmat	Toroidal mode number
[in]	nqx	Number of quadrature points in each radial cell
[in]	nqy	Number of quadrature points in each poloidal cell
[in]	phase_shift	Modes phase shift
[in]	sprof	Radial positions of antenna profile, used if nsel_profile==interp
[in]	prof	Values of antenna profile at s positions, used if nsel_profile==interp
[in]	nprof	Number of points of antenna profile, used if nsel_profile==interp

Initialize quadrature points
Initialize FFTW
B-spline DFTs
Loop over quadrature points

Loop over radial intervals

Evaluate radial profile
Jacobian DFT
Sum over antenna's modes
Accumulate contributions
Deallocate FFTW buffers

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◆ assemblyrhs_tests()

subroutine, public solver_mod::assemblyrhs_tests	(	complex, dimension(:), intent(inout)	rhs_f,
		integer, intent(in)	nmat,
		integer, intent(in)	nqx,
		integer, intent(in)	nqy
	)

Project analytical field on B-splines.

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◆ backsolve_mass_f()

subroutine, public solver_mod::backsolve_mass_f	(	complex, dimension(:), intent(in)	arr_f,
		complex, dimension(:), intent(out)	out_f,
		integer, intent(in)	nmat
	)

Backsolve any quantity with the mass matrix (diagnostics purpose)

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◆ backsolve_mass_s()

subroutine, public solver_mod::backsolve_mass_s	(	real, dimension(:), intent(in)	arr_f,
		real, dimension(:), intent(out)	out_f
	)

Backsolve any quantity with the mass matrix (diagnostics purpose)

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◆ backsolve_mass_sn()

subroutine, public solver_mod::backsolve_mass_sn	(	real, dimension(:), intent(in)	arr_,
		real, dimension(:), intent(out)	out_,
		integer, intent(in)	nmode
	)

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◆ backsolve_rhs_f()

subroutine, public solver_mod::backsolve_rhs_f	(	complex, dimension(:), intent(inout)	rhs_f,
		integer, intent(in)	nmat,
		integer, intent(in)	matnum
	)

Input is the RHS in fourier and the toroidal mode number to backsolve.

Parameters

[in,out]	rhs_f	Right-hand side matrix
[in]	nmat	Toroidal mode number \(n\)

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◆ backsolve_rhs_f_julien()

subroutine solver_mod::backsolve_rhs_f_julien	(	complex, dimension(:), intent(inout)	rhs_f,
		integer, intent(in)	nmat
	)

private

Parameters

[in,out]	rhs_f	Right-hand side matrix
[in]	nmat	Toroidal mode number \(n\)

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◆ backsolve_rhs_f_multi()

subroutine, public solver_mod::backsolve_rhs_f_multi	(	complex, dimension(:), intent(inout)	rhs_f,
		integer, intent(in)	nmat,
		integer, intent(in)	matnum
	)

Parameters

[in,out]	rhs_f	Right-hand side matrix
[in]	nmat	Toroidal mode number \(n\)
[in]	matnum	which matrix is to be back-solved

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◆ backsolvephi()

subroutine solver_mod::backsolvephi	(	double precision, dimension(:), intent(in)	rhs_in,
		double precision, dimension(:,:), intent(inout)	sol,
		double precision, dimension(:,:,:), intent(inout)	sol_dft
	)

Input is the RHS project on BSplines.

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◆ backsolvephi_()

subroutine solver_mod::backsolvephi_	(	complex, dimension(:,:), intent(in)	rhs_f,
		double precision, dimension(:,:,:), intent(inout)	sol_dft
	)

private

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◆ broadcast_matrix()

subroutine, public solver_mod::broadcast_matrix	(	integer, intent(inout)	ierr,
		type(mpi_comm), intent(in)	comm_,
		integer, intent(in)	src_,
		integer, intent(in)	me_
	)

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◆ broadcast_matrix_julien()

subroutine solver_mod::broadcast_matrix_julien	(	integer, intent(inout)	ierr,
		type(mpi_comm), intent(in)	comm_,
		integer, intent(in)	src_,
		integer, intent(in)	me_
	)

private

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◆ broadcast_matrix_multi()

subroutine solver_mod::broadcast_matrix_multi	(	integer, intent(inout)	ierr,
		type(mpi_comm), intent(in)	comm_,
		integer, intent(in)	src_
	)

private

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◆ computetoroidalmasscoeff()

double precision function, public solver_mod::computetoroidalmasscoeff ( integer, intent(in) n )

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◆ copy_matrix_filter()

subroutine, public solver_mod::copy_matrix_filter	(	integer, intent(in)	ixmin,
		integer, intent(in)	ixmax,
		integer, intent(in)	n,
		integer, dimension(:), intent(inout)	mmmincopy
	)

◆ def_matrix_filter_new()

subroutine solver_mod::def_matrix_filter_new

private

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◆ destroysolvermodule()

subroutine, public solver_mod::destroysolvermodule

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◆ dft1d()

subroutine solver_mod::dft1d	(	double precision, dimension(:), intent(in)	input,
		double complex, dimension(:), intent(inout)	output,
		integer, intent(in)	nx,
		integer, intent(in)	ny
	)

private

Compute the DFT of the RHS.

Author: Julien Dominski

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◆ dft_or_idft_cpx()

subroutine solver_mod::dft_or_idft_cpx	(	double complex, dimension(:), intent(in)	input,
		double complex, dimension(:), intent(inout)	output,
		integer, intent(in)	nx,
		integer, intent(in)	ny,
		integer, intent(in)	isign
	)

private

Compute the DFT of the RHS and divide it by the coeff m^(n). isign=-1 (=_FFTW_FORWARD) or +1 (=_FFTW_BACKWARD)

◆ dftinverse1d()

subroutine solver_mod::dftinverse1d	(	double complex, dimension(:), intent(in)	input,
		double precision, dimension(:), intent(inout)	output,
		integer, intent(in)	nx,
		integer, intent(in)	ny
	)

private

Compute the DFT of the RHS and divide it by the coeff m^(n).

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◆ dftinverse1d_full()

subroutine solver_mod::dftinverse1d_full	(	double complex, dimension(:), intent(in)	input,
		double precision, dimension(:), intent(inout)	output,
		integer, intent(in)	nx,
		integer, intent(in)	ny
	)

private

Compute the DFT of the RHS and divide it by the coeff m^(n).

◆ dftinverse1d_rc()

subroutine solver_mod::dftinverse1d_rc	(	double complex, dimension(:), intent(in)	input,
		double precision, dimension(:), intent(inout)	output,
		integer, intent(in)	nx,
		integer, intent(in)	ny
	)

private

Compute the DFT of the RHS and divide it by the coeff m^(n).

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◆ domainofintegrationextended()

subroutine solver_mod::domainofintegrationextended	(	integer, intent(in)	imin,
		integer, intent(in)	isp,
		real, intent(inout)	smin,
		real, intent(inout)	smax,
		integer, intent(inout)	ixmin_int,
		integer, intent(inout)	ixmax_int
	)

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◆ fieldmodefilter()

logical function solver_mod::fieldmodefilter	(	integer, intent(in)	i,
		integer, intent(in)	m,
		integer, intent(in)	n
	)

private

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◆ finalizematrix()

subroutine, public solver_mod::finalizematrix

Boundary conditions, and merge of different matrices.

Note: This may not work if using an other solver

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◆ getlocaltoroidalindex()

integer function solver_mod::getlocaltoroidalindex ( integer, intent(in) n )

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◆ init_multi_matrix()

subroutine solver_mod::init_multi_matrix ( logical, intent(in) lapl_boundary_terms )

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◆ initsolvermodule()

subroutine, public solver_mod::initsolvermodule	(	integer, intent(in)	me_assembly,
		integer, intent(in)	tgt_assembly,
		integer, intent(in)	color,
		integer, intent(in)	nx_,
		integer, intent(in)	nz_,
		integer, intent(in)	nw_,
		double precision, intent(in)	wmax_,
		integer, intent(in)	kdx_,
		integer, intent(in)	em_kdx_,
		integer, intent(in)	dm_,
		logical, intent(in)	electromagnetic_,
		logical, intent(in)	em_control_variate_,
		logical, intent(in)	pullback_,
		integer, intent(in)	fieldaligned_,
		logical, intent(in)	longwavelength_,
		integer, intent(in)	na_half_rho_ref_,
		logical, intent(in)	phase_factor_,
		logical, dimension(0:nz_/2), intent(in)	isnfiltlocal_,
		logical, dimension(0:nz_/2), intent(in)	isnfiltlocalysolved_,
		integer, intent(in)	NBmodeslocal_,
		integer, dimension(1:nbmodeslocal_), intent(in)	nfiltlocal_,
		integer, intent(in)	navgmax_,
		integer, intent(in)	testcase_,
		integer, intent(in)	internal_boundary_,
		logical, intent(in)	pade_,
		integer, intent(in)	multi_matrix_,
		integer, intent(in)	inner_BC_,
		logical, intent(in)	lapl_boundary_terms_
	)

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◆ multiply_mass_f()

subroutine, public solver_mod::multiply_mass_f	(	complex, dimension(:), intent(inout)	arr_f,
		integer, intent(in)	nmat
	)

Multiply by mass matrix arr_f = masmat(nmat) * arr_f.

Author: N. Ohana

Parameters

[in,out]	arr_f	Array in Fourier representation
[in]	nmat	Toroidal mode number

◆ print_matrix_gbmatf()

subroutine, public solver_mod::print_matrix_gbmatf	(	complex, dimension(:,:), intent(in)	Mval,
		integer, dimension(:), intent(in)	nqsmin,
		integer, intent(in)	nx_,
		integer, intent(in)	ny_,
		integer, intent(in)	degree_,
		character(*), intent(in)	filename
	)

◆ print_matrix_zpbmat()

subroutine solver_mod::print_matrix_zpbmat	(	character(3)	Mname,
		type(zpbmat), intent(in)	M,
		integer, intent(in)	n
	)

Print zpbmat matrix.

◆ print_phi_debug()

subroutine solver_mod::print_phi_debug	(	double complex, dimension(:), intent(in)	phi,
		integer, intent(in)	n
	)

Print phi array.

◆ print_rhs_debug()

subroutine solver_mod::print_rhs_debug	(	double complex, dimension(:), intent(in)	rhs,
		integer, intent(in)	n
	)

private

Print rhs array.

◆ reality_condition()

subroutine solver_mod::reality_condition	(	complex, dimension(:), intent(inout)	v_dft,
		integer, intent(in)	ny,
		integer, intent(in)	ny2
	)

private

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◆ reduce_matrix()

subroutine, public solver_mod::reduce_matrix	(	integer, intent(inout)	ierr,
		type(mpi_comm), intent(in)	comm_,
		integer, intent(in)	tgt_,
		integer, intent(in)	me_
	)

Perform a reduction by sum of the LHS.

Author: Julien Dominski

Parameters

[in,out]	ierr	Error flag
[in]	comm_	Communicator
[in]	tgt_	Rank of the target process to which send the reduction
[in]	me_	Rank of the current process

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Variable Documentation

◆ bcs_left

integer solver_mod::bcs_left

private

◆ bcs_right

integer solver_mod::bcs_right

private

◆ bnorm

real solver_mod::bnorm

private

◆ bref

real solver_mod::bref

private

◆ cref

real solver_mod::cref

private

◆ curproc

integer solver_mod::curproc

private

◆ dm

integer solver_mod::dm

private

◆ dw

real solver_mod::dw

private

◆ efluid

logical solver_mod::efluid

private

◆ electromagnetic

logical solver_mod::electromagnetic

private

◆ em_control_variate

logical solver_mod::em_control_variate

private

◆ em_kd

integer solver_mod::em_kd

private

Number of diagonals for EM matrix.

◆ em_kdx

integer solver_mod::em_kdx

private

Number of radial diagonals i-i' for EM matrices< kdx.

◆ eqsign

double precision, parameter solver_mod::eqsign =-1d0

private

◆ fieldaligned

integer solver_mod::fieldaligned

private

◆ inner_bc

integer solver_mod::inner_bc

private

◆ internal_boundary

integer solver_mod::internal_boundary

private

◆ isnfiltlocal

logical, dimension(:), allocatable, public solver_mod::isnfiltlocal

array of nz/2 logical which tell if the matrix is local to this cpu

◆ isnfiltlocalysolved

logical, dimension(:), allocatable solver_mod::isnfiltlocalysolved

private

array of nz/2 logical which tell if the matrix is local to this cpu

◆ ixmax

integer solver_mod::ixmax

private

◆ ixmin

integer solver_mod::ixmin

private

◆ jj

integer solver_mod::jj

private

◆ kd

integer solver_mod::kd

private

Number of diagonals.

◆ kdx

integer solver_mod::kdx

private

Number of radial diagonals i-i' < kdx.

◆ lhs

type(zpbmat), dimension(:), allocatable solver_mod::lhs

private

array of nz/2 matrices

◆ lhspade

type(zgbmat), dimension(:), allocatable solver_mod::lhspade

private

◆ lhspadesym

type(zgbmat), dimension(:), allocatable solver_mod::lhspadesym

private

◆ lnorm

real solver_mod::lnorm

private

◆ longwavelength

logical solver_mod::longwavelength

private

◆ masmat

type(zpbmat), dimension(:), allocatable solver_mod::masmat

private

◆ masmat_s

type(pbmat) solver_mod::masmat_s

private

◆ mmax

integer, dimension(:,:), allocatable solver_mod::mmax

private

◆ mmin

integer, dimension(:,:), allocatable solver_mod::mmin

private

◆ mmin_

integer, dimension(:,:), allocatable solver_mod::mmin_

private

◆ mref

real solver_mod::mref

private

◆ multi_matrix

integer, public solver_mod::multi_matrix

◆ na_eff_lim

integer solver_mod::na_eff_lim

private

◆ na_half_rho_ref

integer solver_mod::na_half_rho_ref

private

◆ nbmodeslocal

integer, public solver_mod::nbmodeslocal

number of modes local to the cpu =(1|0)+nphip/deltan

◆ nfiltlocal

integer, dimension(:), allocatable solver_mod::nfiltlocal

private

array of local toroidal mode numbers (which require an assembled matrix)

◆ nm

integer solver_mod::nm

private

◆ nm2

integer solver_mod::nm2

private

◆ nm_max

integer solver_mod::nm_max

private

◆ nm_min

integer solver_mod::nm_min

private

◆ nref

real solver_mod::nref

private

◆ nw

integer solver_mod::nw

private

◆ omegaref

real solver_mod::omegaref

private

◆ pade

logical solver_mod::pade

private

◆ padmat

type(zpbmat), dimension(:), allocatable solver_mod::padmat

private

◆ phase_factor

logical solver_mod::phase_factor

private

◆ pone

complex, parameter solver_mod::pone =1d0

private

◆ pullback

logical solver_mod::pullback

private

◆ pzero

complex, parameter solver_mod::pzero =0d0

private

◆ qref

real solver_mod::qref

private

◆ rhoref

real solver_mod::rhoref

private

◆ species_ref

integer solver_mod::species_ref

private

◆ testcase

integer solver_mod::testcase

private

◆ tgt_proc

integer solver_mod::tgt_proc

private

◆ tim_dyad_cumul

real, public solver_mod::tim_dyad_cumul

◆ tref

real solver_mod::tref

private

◆ wmax

real solver_mod::wmax

private

Functions/Subroutines

Variables

Detailed Description

Function/Subroutine Documentation

◆ assemblyboltzman()

◆ assemblyboltzman_zf()

◆ assemblyboltzmannpade()

◆ assemblyboltzmannpade_zf()

◆ assemblylhsfinalize()

◆ assemblymassmatrix()

◆ assemblymatrix()

◆ assemblypadematforrhs()

◆ assemblypoldrift_arbitrary_wavelength_fourier()

◆ assemblypoldrift_longwavelength_fourier()

◆ assemblyrhs_antenna()

◆ assemblyrhs_tests()

◆ backsolve_mass_f()

◆ backsolve_mass_s()

◆ backsolve_mass_sn()

◆ backsolve_rhs_f()

◆ backsolve_rhs_f_julien()

◆ backsolve_rhs_f_multi()

◆ backsolvephi()

◆ backsolvephi_()

◆ broadcast_matrix()

◆ broadcast_matrix_julien()

◆ broadcast_matrix_multi()

◆ computetoroidalmasscoeff()

◆ copy_matrix_filter()

◆ def_matrix_filter_new()

◆ destroysolvermodule()

◆ dft1d()

◆ dft_or_idft_cpx()

◆ dftinverse1d()

◆ dftinverse1d_full()

◆ dftinverse1d_rc()

◆ domainofintegrationextended()

◆ fieldmodefilter()

◆ finalizematrix()

◆ getlocaltoroidalindex()

◆ init_multi_matrix()

◆ initsolvermodule()

◆ multiply_mass_f()

◆ print_matrix_gbmatf()

◆ print_matrix_zpbmat()

◆ print_phi_debug()

◆ print_rhs_debug()

◆ reality_condition()

◆ reduce_matrix()

Variable Documentation

◆ bcs_left

◆ bcs_right

◆ bnorm

◆ bref

◆ cref

◆ curproc

◆ dm

◆ dw

◆ efluid

◆ electromagnetic

◆ em_control_variate

◆ em_kd

◆ em_kdx

◆ eqsign

◆ fieldaligned

◆ inner_bc

◆ internal_boundary

◆ isnfiltlocal

◆ isnfiltlocalysolved

◆ ixmax

◆ ixmin

◆ jj

◆ kd

◆ kdx

◆ lhs

◆ lhspade

◆ lhspadesym

◆ lnorm

◆ longwavelength

◆ masmat