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split_shell.c
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split_shell.c
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#include <stdlib.h>
#include <stdio.h>
#ifndef NCSPIC_SEQ_FIELD
#include <mpi.h>
#define PS_MPI_CHAR MPI_CHAR
#define PS_MPI_INT MPI_INT
#define PS_MPI_DOUBLE MPI_DOUBLE
#define PS_MPI_FLOAT MPI_FLOAT
#define PS_MPI_LONG MPI_LONG
#define PS_MPI_LONG_LONG MPI_LONG_LONG
#define PS_MPI_COMM_WORLD MPI_COMM_WORLD
typedef MPI_Comm PS_MPI_Comm;
typedef MPI_Datatype PS_MPI_Datatype;
typedef MPI_Request PS_MPI_Request;
typedef MPI_Status PS_MPI_Status;
#include "libsmallmpi.h"
#define NCSPIC_SEQ_FIELD
typedef double NUMBER_REAL;
typedef enum {CD_C,CD_OpenMP,CD_OpenCL,CD_CUDA} SEQ_FIELD_TYPES;
#define NUM_SYNC_LAYER 27
#define NUM_SYNC_KERNEL 4
#define NUM_FDTD_KERNEL 22
typedef struct { void * pe ;
long xlen ;
long ylen ;
long zlen ;
long xblock ;
long yblock ;
long zblock ;
long numvec ;
long x_num_thread_block ;
long y_num_thread_block ;
long z_num_thread_block ;
int ovlp ;
int num_ele ;
int CD_type ;
void * sync_layer_pscmc [NUM_SYNC_LAYER]; void * swap_layer_pscmc [NUM_SYNC_LAYER]; void * sync_kernels [NUM_SYNC_KERNEL]; void * fdtd_kernels [NUM_FDTD_KERNEL]; void * dm_kernels [3]; void * dmbihamt_kernels [7]; void * geo_yeefdtd_kernels [2]; void * geo_yeefdtd_rect_kernels [1]; void * hydroA_kernels [8]; void * yee_abc_kernels [8]; void * yee_pec_kernels [8]; void * yee_damp_kernels [8]; void * yee_setfix_kernels [8]; void * rdcd ;
double * rdcd_host ;
void * cur_rankx_pscmc ;
void * cur_ranky_pscmc ;
void * cur_rankz_pscmc ;
void * xoffset ;
void * yoffset ;
void * zoffset ;
long * global_x_offset ;
long * global_y_offset ;
long * global_z_offset ;
long * global_id ;
long global_pid ;
long * adj_ids ;
long * adj_processes ;
long * adj_local_tid ;
void * main_data ;
double delta_x ;
double delta_y ;
double delta_z ;
void * blas_yiszero_synced_kernel ;
void * blas_mulxy_numele3_kernel ;
void * blas_yiszero_kernel ;
void * blas_yisconst_kernel ;
void * blas_get_ITG_Potential_kernel ;
void * blas_invy_kernel ;
void * blas_axpby_kernel ;
void * blas_axpy_kernel ;
void * blas_yisax_kernel ;
void * blas_mulxy_kernel ;
void * blas_findmax_kernel ;
void * blas_dot_kernel ;
void * blas_sum_kernel ;
} Field3D_Seq;typedef struct { Field3D_Seq * pfield ;
Field3D_Seq * pfieldE ;
Field3D_Seq * pfieldB ;
Field3D_Seq * pfieldB1 ;
Field3D_Seq * pFoutJ ;
Field3D_Seq * pLFoutJ ;
Field3D_Seq * pFoutEN ;
void * sort_kernel [6]; void * geo_rel_1st_kernel [9]; void * implicit_kernel [2]; void * rel_1st_kernel [2]; void * krook_collision_test_kernel [2]; void * nonrel_test_kernel [18]; void * boris_yee_kernel [1]; void * cu_swap_l_kernel ;
void * cu_swap_r_kernel ;
void * move_back_kernel_kernel ;
double Mass ;
double Charge ;
double Number_particle_per_marker ;
long grid_cache_len ;
long cu_cache_length ;
void * split_pass_x_kernel ;
void * split_pass_y_kernel ;
void * split_pass_z_kernel ;
void * split_pass_x_nopush_kernel ;
void * split_pass_y_nopush_kernel ;
void * split_pass_z_nopush_kernel ;
void * split_pass_x_small_grids_kernel ;
void * split_pass_y_small_grids_kernel ;
void * split_pass_z_small_grids_kernel ;
void * split_pass_x_sg2_small_grids_kernel ;
void * split_pass_y_sg2_small_grids_kernel ;
void * split_pass_z_sg2_small_grids_kernel ;
void * split_pass_E_particle_kernel ;
void * split_pass_x_vlo_kernel ;
void * split_pass_y_vlo_kernel ;
void * split_pass_z_vlo_kernel ;
void * split_pass_x_vlo_nopush_kernel ;
void * split_pass_y_vlo_nopush_kernel ;
void * split_pass_z_vlo_nopush_kernel ;
void * split_pass_x_vlo_small_grids_kernel ;
void * split_pass_y_vlo_small_grids_kernel ;
void * split_pass_z_vlo_small_grids_kernel ;
void * split_pass_x_vlo_sg2_small_grids_kernel ;
void * split_pass_y_vlo_sg2_small_grids_kernel ;
void * split_pass_z_vlo_sg2_small_grids_kernel ;
void * split_pass_x_vlo_sg2_nopush_small_grids_kernel ;
void * split_pass_y_vlo_sg2_nopush_small_grids_kernel ;
void * split_pass_z_vlo_sg2_nopush_small_grids_kernel ;
void * split_pass_E_particle_vlo_kernel ;
void * dump_ene_num_kernel ;
void * calculate_rho_kernel ;
void * inoutput ;
void * xyzw ;
void * cu_cache ;
void * cu_xyzw ;
void * adjoint_vec_pids ;
} One_Particle_Collection;typedef struct { Field3D_Seq * car ;
void * cdr ;
} Field3D_Seq_PAIR;typedef struct { Field3D_Seq * data ;
long num_runtime ;
PS_MPI_Comm comm ;
long cur_rank ;
long num_mpi_process ;
long sync_layer_len [NUM_SYNC_LAYER]; PS_MPI_Request * * rqst ;
One_Particle_Collection * particles ;
int num_spec ;
double damp_vars ;
} Field3D_MPI;typedef struct { Field3D_MPI MPI_fieldE ;
Field3D_MPI MPI_fieldB ;
Field3D_MPI MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter ;
Field3D_MPI * pB0 ;
Field3D_MPI * pB1 ;
int use_pml_abc_dir ;
int use_pml_level ;
int use_small_grid ;
long allxmax ;
long allymax ;
long allzmax ;
double use_pml_sigma_max ;
double dt ;
int o_N_l ;
int o_N_M ;
double * o_pmass ;
double * o_pcharge ;
int * o_particle_type ;
} Particle_in_Cell_MPI;
#ifndef LINEAR_OPERATOR_PICUS_001
#define LINEAR_OPERATOR_PICUS_001
typedef int (* linear_operator_mpi )(Field3D_MPI * ,Field3D_MPI * ,void * );
#else
#endif
typedef struct { Field3D_MPI * r1 ;
Field3D_MPI * ti ;
Field3D_MPI * si1 ;
Field3D_MPI * si ;
Field3D_MPI * vi1 ;
Field3D_MPI * pi ;
Field3D_MPI * pi1 ;
Field3D_MPI * ri1 ;
Field3D_MPI * ri ;
Field3D_MPI * r0h ;
linear_operator_mpi A ;
void * fv ;
int zmax ;
double solve_err ;
} bicg_space;typedef struct { bicg_space bs ;
linear_operator_mpi oscc ;
Field3D_MPI * x0 ;
Field3D_MPI * oscc_x0 ;
Field3D_MPI * res_tmp ;
void * fv ;
void * p_vfv [5]; int newton_zmax ;
int zmax ;
double solve_err ;
double newton_solve_err ;
double epsl ;
} jfnk_newton_space;
#else
#endif
#include "c_/c_pscmc_inc.h"
#include "openmp_/openmp_pscmc_inc.h"
#include "c_/hydro_A.kernel_inc.h"
#include "c_/implicit_particle_mover.kernel_inc.h"
#include "c_/type3_georel.kernel_inc.h"
#include "c_/inner_split_pass.kernel_inc.h"
#include "c_/geo_particle_iter_mass.kernel_inc.h"
#include "c_/geo_particle_iter.kernel_inc.h"
#include "c_/rel_particle_iter.kernel_inc.h"
#include "c_/yeefdtd.kernel_inc.h"
#include "c_/mergefields.kernel_inc.h"
#include "c_/miniblas.kernel_inc.h"
#include "c_/general_partial_sort.kernel_inc.h"
#include "c_/move_back.kernel_inc.h"
#include "c_/particle_iter.kernel_inc.h"
#include "c_/mur_abc.kernel_inc.h"
#include "c_/dmbihamt.kernel_inc.h"
#include "c_/dm.kernel_inc.h"
#include "c_/geo_yeefdtd_rect.kernel_inc.h"
#include "c_/geo_yeefdtd.kernel_inc.h"
#include "c_yeefdtd.h"
#include "openmp_/hydro_A.kernel_inc.h"
#include "openmp_/implicit_particle_mover.kernel_inc.h"
#include "openmp_/type3_georel.kernel_inc.h"
#include "openmp_/inner_split_pass.kernel_inc.h"
#include "openmp_/geo_particle_iter_mass.kernel_inc.h"
#include "openmp_/geo_particle_iter.kernel_inc.h"
#include "openmp_/rel_particle_iter.kernel_inc.h"
#include "openmp_/yeefdtd.kernel_inc.h"
#include "openmp_/mergefields.kernel_inc.h"
#include "openmp_/miniblas.kernel_inc.h"
#include "openmp_/general_partial_sort.kernel_inc.h"
#include "openmp_/move_back.kernel_inc.h"
#include "openmp_/particle_iter.kernel_inc.h"
#include "openmp_/mur_abc.kernel_inc.h"
#include "openmp_/dmbihamt.kernel_inc.h"
#include "openmp_/dm.kernel_inc.h"
#include "openmp_/geo_yeefdtd_rect.kernel_inc.h"
#include "openmp_/geo_yeefdtd.kernel_inc.h"
#include "openmp_yeefdtd.h"
#include <math.h>
#include "blas_shell.h"
#include "run_particle.h"
#include <cgapsio.h>
#include "mpi_fieldio.h"
#include "cfgcst.h"
#include "call_curl_kernel.h"
#include "mpifields.h"
#include "split_shell.h"
#include "init_implicit_particle.h"
double wclk_now ();
int split_1st_all_passes (Particle_in_Cell_MPI * pthis ,double dt0 ,int use_vlo ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
split_pass_xyz_zyx_mpi_shell ( pthis , dt0 , 1 , 1 , use_vlo );
pass_GeqB ( pthis , dt0 );
sync_ovlp_mpi_field ( pMPI_fieldE );
split_pass_E_particle_mpi ( pthis , dt0 );
MPI_Yee_FDTD_Curl_E ( pMPI_fieldB , pMPI_fieldE , dt0 );
return 0 ;}
int pass_GeqB (Particle_in_Cell_MPI * pthis ,double deltat ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
Field3D_MPI * pMPI_fieldEtmp = & ( MPI_fieldEtmp ) ;
void * pe = ( pMPI_fieldE->data )->pe ;
long xlen = ( pMPI_fieldE->data )->xlen ;
long ylen = ( pMPI_fieldE->data )->ylen ;
long zlen = ( pMPI_fieldE->data )->zlen ;
long xblock = ( pMPI_fieldE->data )->xblock ;
long yblock = ( pMPI_fieldE->data )->yblock ;
long zblock = ( pMPI_fieldE->data )->zblock ;
long numvec = ( pMPI_fieldE->data )->numvec ;
long x_num_thread_block = ( pMPI_fieldE->data )->x_num_thread_block ;
long y_num_thread_block = ( pMPI_fieldE->data )->y_num_thread_block ;
long z_num_thread_block = ( pMPI_fieldE->data )->z_num_thread_block ;
int ovlp = ( pMPI_fieldE->data )->ovlp ;
int num_ele = ( pMPI_fieldE->data )->num_ele ;
int CD_type = ( pMPI_fieldE->data )->CD_type ;
void * * sync_layer_pscmc = ( pMPI_fieldE->data )->sync_layer_pscmc ;
void * * swap_layer_pscmc = ( pMPI_fieldE->data )->swap_layer_pscmc ;
void * * sync_kernels = ( pMPI_fieldE->data )->sync_kernels ;
void * * fdtd_kernels = ( pMPI_fieldE->data )->fdtd_kernels ;
void * * dm_kernels = ( pMPI_fieldE->data )->dm_kernels ;
void * * dmbihamt_kernels = ( pMPI_fieldE->data )->dmbihamt_kernels ;
void * * geo_yeefdtd_kernels = ( pMPI_fieldE->data )->geo_yeefdtd_kernels ;
void * * geo_yeefdtd_rect_kernels = ( pMPI_fieldE->data )->geo_yeefdtd_rect_kernels ;
void * * hydroA_kernels = ( pMPI_fieldE->data )->hydroA_kernels ;
void * * yee_abc_kernels = ( pMPI_fieldE->data )->yee_abc_kernels ;
void * * yee_pec_kernels = ( pMPI_fieldE->data )->yee_pec_kernels ;
void * * yee_damp_kernels = ( pMPI_fieldE->data )->yee_damp_kernels ;
void * * yee_setfix_kernels = ( pMPI_fieldE->data )->yee_setfix_kernels ;
void * rdcd = ( pMPI_fieldE->data )->rdcd ;
double * rdcd_host = ( pMPI_fieldE->data )->rdcd_host ;
void * cur_rankx_pscmc = ( pMPI_fieldE->data )->cur_rankx_pscmc ;
void * cur_ranky_pscmc = ( pMPI_fieldE->data )->cur_ranky_pscmc ;
void * cur_rankz_pscmc = ( pMPI_fieldE->data )->cur_rankz_pscmc ;
void * xoffset = ( pMPI_fieldE->data )->xoffset ;
void * yoffset = ( pMPI_fieldE->data )->yoffset ;
void * zoffset = ( pMPI_fieldE->data )->zoffset ;
long * global_x_offset = ( pMPI_fieldE->data )->global_x_offset ;
long * global_y_offset = ( pMPI_fieldE->data )->global_y_offset ;
long * global_z_offset = ( pMPI_fieldE->data )->global_z_offset ;
long * global_id = ( pMPI_fieldE->data )->global_id ;
long global_pid = ( pMPI_fieldE->data )->global_pid ;
long * adj_ids = ( pMPI_fieldE->data )->adj_ids ;
long * adj_processes = ( pMPI_fieldE->data )->adj_processes ;
long * adj_local_tid = ( pMPI_fieldE->data )->adj_local_tid ;
void * main_data = ( pMPI_fieldE->data )->main_data ;
double delta_x = ( pMPI_fieldE->data )->delta_x ;
double delta_y = ( pMPI_fieldE->data )->delta_y ;
double delta_z = ( pMPI_fieldE->data )->delta_z ;
void * blas_yiszero_synced_kernel = ( pMPI_fieldE->data )->blas_yiszero_synced_kernel ;
void * blas_mulxy_numele3_kernel = ( pMPI_fieldE->data )->blas_mulxy_numele3_kernel ;
void * blas_yiszero_kernel = ( pMPI_fieldE->data )->blas_yiszero_kernel ;
void * blas_yisconst_kernel = ( pMPI_fieldE->data )->blas_yisconst_kernel ;
void * blas_get_ITG_Potential_kernel = ( pMPI_fieldE->data )->blas_get_ITG_Potential_kernel ;
void * blas_invy_kernel = ( pMPI_fieldE->data )->blas_invy_kernel ;
void * blas_axpby_kernel = ( pMPI_fieldE->data )->blas_axpby_kernel ;
void * blas_axpy_kernel = ( pMPI_fieldE->data )->blas_axpy_kernel ;
void * blas_yisax_kernel = ( pMPI_fieldE->data )->blas_yisax_kernel ;
void * blas_mulxy_kernel = ( pMPI_fieldE->data )->blas_mulxy_kernel ;
void * blas_findmax_kernel = ( pMPI_fieldE->data )->blas_findmax_kernel ;
void * blas_dot_kernel = ( pMPI_fieldE->data )->blas_dot_kernel ;
void * blas_sum_kernel = ( pMPI_fieldE->data )->blas_sum_kernel ;
if ( use_pml_abc_dir ){
sync_ovlp_mpi_field ( & ( MPI_fieldPMLB ) );
MPI_PML_FDTD_CURL_BWD ( pMPI_fieldE , pMPI_fieldB , & ( MPI_fieldPMLE ) , & ( MPI_fieldPMLB ) , deltat , 0 , 0 , delta_x , delta_y , delta_z , use_pml_abc_dir , use_pml_level , 3 , use_pml_sigma_max , allxmax , allymax , allzmax );
}else{
if ( USE_NP_BOUNDARY ){
double G_USE_ABC_DIR = call_GET_VAR ( "USE_ABC_DIR" ) ;
double G_USE_PEC_DIR = call_GET_VAR ( "USE_PEC_DIR" ) ;
double G_USE_DAMP_DIR = call_GET_VAR ( "USE_DAMP_DIR" ) ;
blas_yisax_Field3D_MPI ( pMPI_fieldEtmp , pMPI_fieldEtmp , 1.00000000000000000e+00 , pMPI_fieldE );
MPI_RECT_YEE_CURL_L ( pMPI_fieldE , pMPI_fieldB , delta_z , delta_y , delta_x , deltat );
MPI_Yee_FDTD_MUR_ABC ( pMPI_fieldE , pMPI_fieldEtmp , deltat , G_USE_ABC_DIR , G_USE_PEC_DIR , G_USE_DAMP_DIR , 0 );
}else{
MPI_RECT_YEE_CURL_L ( pMPI_fieldE , pMPI_fieldB , delta_z , delta_y , delta_x , deltat );
}
}
return 0 ;}
int FDTD_2_4th_ALL_passes (Particle_in_Cell_MPI * pthis ,double dt0 ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
(dt0 = ( dt0 / 2 ));
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
MPI_Yee_FDTD_Curl_B_4th ( pMPI_fieldE , pMPI_fieldB , dt0 );
MPI_Yee_FDTD_Curl_E_4th ( pMPI_fieldB , pMPI_fieldE , ( dt0 * 2 ) );
MPI_Yee_FDTD_Curl_B_4th ( pMPI_fieldE , pMPI_fieldB , dt0 );
return 0 ;}
int FDTD_2_2th_ALL_passes (Particle_in_Cell_MPI * pthis ,double dt0 ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
MPI_Yee_FDTD_Curl_B ( pMPI_fieldE , pMPI_fieldB , dt0 );
MPI_Yee_FDTD_Curl_E ( pMPI_fieldB , pMPI_fieldE , dt0 );
return 0 ;}
int ITG_split_2nd_all_passes_enecons (Particle_in_Cell_MPI * pthis ,Field3D_MPI * pext_rho_dist ,double dt0 ,double moqe ,double ne0 ,int use_vlo ,int use_gc ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
(dt0 = ( dt0 / 2 ));
static int ct = 0 ;
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
blas_yisconst_Field3D_MPI ( pMPI_fieldB , pMPI_fieldB , 0 );
double oms = 3672 ;
double ochg = 1 ;
split_pass_xyz_zyx_mpi_shell ( pthis , dt0 , 1 , 0 , use_vlo );
blas_yiszero_synced_Field3D_MPI ( pMPI_FoutJ , pMPI_FoutJ );
calculate_rho_mpi ( pthis , 0 );
merge_ovlp_mpi_field ( pMPI_FoutJ );
if ( USE_NON_UNI_DENSITY ){
blas_yisax_Field3D_MPI ( pMPI_fieldE , pMPI_fieldE , ne0 , pext_rho_dist );
}else{
blas_yisconst_Field3D_MPI ( pMPI_fieldE , pMPI_fieldE , ne0 );
}
blas_yisax_Field3D_MPI ( pMPI_fieldB , pMPI_fieldB , 1 , pMPI_FoutJ );
blas_get_ITG_Potential_Field3D_MPI ( pMPI_FoutJ , pMPI_FoutJ , & ( MPI_fieldB1 ) , pMPI_fieldE , moqe );
sync_ovlp_mpi_field ( pMPI_FoutJ );
MPI_Yee_FDTD_Grad_FWD ( pMPI_fieldE , pMPI_FoutJ , 0 );
if ( USE_INIT_EXT_EB ){
blas_axpy_Field3D_MPI ( & ( MPI_fieldE ) , & ( MPI_fieldE ) , 1.00000000000000000e+00 , & ( MPI_fieldE_ext ) );
}else{
0;
}
sync_ovlp_mpi_field ( pMPI_fieldE );
if ( use_vlo ){
split_pass_E_particle_vlo_mpi ( pthis , ( dt0 * 2 ) );
}else{
split_pass_E_particle_mpi ( pthis , ( dt0 * 2 ) );
}
if ( USE_INIT_EXT_EB ){
blas_axpy_Field3D_MPI ( & ( MPI_fieldE ) , & ( MPI_fieldE ) , -1.00000000000000000e+00 , & ( MPI_fieldE_ext ) );
}else{
0;
}
blas_yisax_Field3D_MPI ( pMPI_fieldE , pMPI_fieldE , 1.00000000000000000e+00 , pMPI_fieldB );
Field3D_MPI * pMPI_fieldEtmp = & ( MPI_fieldEtmp ) ;
blas_yisax_Field3D_MPI ( pMPI_fieldEtmp , pMPI_fieldEtmp , 1.00000000000000000e+00 , pMPI_FoutJ );
blas_yisconst_Field3D_MPI ( pMPI_fieldB , pMPI_fieldB , 0 );
split_pass_xyz_zyx_mpi_shell ( pthis , dt0 , 0 , 0 , use_vlo );
blas_yisax_Field3D_MPI ( pMPI_FoutJ , pMPI_FoutJ , 1.00000000000000000e+00 , pMPI_fieldEtmp );
return 0 ;}
int ITG_split_2nd_all_passes (Particle_in_Cell_MPI * pthis ,Field3D_MPI * pext_rho_dist ,double dt0 ,double moqe ,double ne0 ,int use_vlo ,int use_gc ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
(dt0 = ( dt0 / 2 ));
static int ct = 0 ;
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
blas_yisconst_Field3D_MPI ( pMPI_fieldB , pMPI_fieldB , 0 );
double oms = 3672 ;
double ochg = 1 ;
if ( use_gc ){
}else{
split_pass_xyz_zyx_mpi_shell ( pthis , dt0 , 1 , 0 , use_vlo );
split_pass_xyz_zyx_mpi_shell ( pthis , dt0 , 0 , 0 , use_vlo );
}
blas_yiszero_synced_Field3D_MPI ( pMPI_FoutJ , pMPI_FoutJ );
calculate_rho_mpi ( pthis , 0 );
merge_ovlp_mpi_field ( pMPI_FoutJ );
if ( USE_NON_UNI_DENSITY ){
blas_yisax_Field3D_MPI ( pMPI_fieldE , pMPI_fieldE , ne0 , pext_rho_dist );
}else{
blas_yisconst_Field3D_MPI ( pMPI_fieldE , pMPI_fieldE , ne0 );
}
blas_yisax_Field3D_MPI ( pMPI_fieldB , pMPI_fieldB , 1 , pMPI_FoutJ );
blas_get_ITG_Potential_Field3D_MPI ( pMPI_FoutJ , pMPI_FoutJ , & ( MPI_fieldB1 ) , pMPI_fieldE , moqe );
sync_ovlp_mpi_field ( pMPI_FoutJ );
MPI_Yee_FDTD_Grad_FWD ( pMPI_fieldE , pMPI_FoutJ , 0 );
if ( ( 0 && ( ct == 20 ) ) ){
fprintf ( stderr , "mass=%e, chg=%e\n" , ( ( pthis->MPI_fieldE ).particles )->Mass , ( ( pthis->MPI_fieldE ).particles )->Charge );
Gaps_IO_DataFile gid ;
Gaps_IO_DataFile * pgid = & ( gid ) ;
sync_main_data_d2h ( pMPI_fieldE );
init_parallel_file_for_mpi_fields ( pMPI_FoutJ , pgid , "tmpJ1" , -1 , 0 , 0 );
mpi_field_write_to_file ( pMPI_FoutJ , pgid , 0 );
mpi_field_write_to_file ( pMPI_fieldE , pgid , 1 );
mpi_field_write_to_file ( & ( MPI_fieldB1 ) , pgid , 2 );
mpi_field_write_to_file ( & ( MPI_fieldE_ext ) , pgid , 3 );
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
exit ( 0 );
}else{
(ct = ( ct + 1 ));
}
if ( USE_INIT_EXT_EB ){
blas_axpy_Field3D_MPI ( & ( MPI_fieldE ) , & ( MPI_fieldE ) , 1.00000000000000000e+00 , & ( MPI_fieldE_ext ) );
}else{
0;
}
sync_ovlp_mpi_field ( pMPI_fieldE );
if ( use_gc ){
if ( USE_INIT_EXT_EB ){
blas_axpy_Field3D_MPI ( & ( MPI_fieldB ) , & ( MPI_fieldB ) , 1.00000000000000000e+00 , & ( MPI_fieldB_ext ) );
}else{
0;
}
sync_ovlp_mpi_field ( & ( MPI_fieldB ) );
MPI_ngeo_gc ( pthis , pMPI_fieldE , pMPI_fieldB , pMPI_fieldB , pMPI_FoutJ , & ( oms ) , & ( ochg ) , dt0 , 1 , 1 , 1 , 1 , 1 , 1 );
call_particle_sort_mpi ( pthis , 0 , 0 );
call_particle_sort_mpi ( pthis , 1 , 0 );
call_particle_sort_mpi ( pthis , 2 , 0 );
if ( USE_INIT_EXT_EB ){
blas_axpy_Field3D_MPI ( & ( MPI_fieldB ) , & ( MPI_fieldB ) , -1.00000000000000000e+00 , & ( MPI_fieldB_ext ) );
}else{
0;
}
}else{
if ( use_vlo ){
split_pass_E_particle_vlo_mpi ( pthis , ( dt0 * 2 ) );
}else{
split_pass_E_particle_mpi ( pthis , ( dt0 * 2 ) );
}
}
if ( USE_INIT_EXT_EB ){
blas_axpy_Field3D_MPI ( & ( MPI_fieldE ) , & ( MPI_fieldE ) , -1.00000000000000000e+00 , & ( MPI_fieldE_ext ) );
}else{
0;
}
return 0 ;}
int split_multi_step_passes_test (Particle_in_Cell_MPI * pthis ,double dt0 ,int N_electron ,int N_maxwell ,double * pmass ,double * pchg ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldEtmp = & ( MPI_fieldEtmp ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
{
double dt = ( dt0 / N_maxwell ) ;
blas_yiszero_synced_Field3D_MPI ( pMPI_fieldEtmp , pMPI_fieldEtmp );
{
long i ;
for ((i = 0) ; ( i < N_maxwell ) ; (i = ( i + 1 )))
{
sync_ovlp_mpi_field ( pMPI_fieldE );
MPI_Yee_FDTD_Curl_E ( pMPI_fieldB , pMPI_fieldE , dt );
blas_axpy_Field3D_MPI ( pMPI_fieldEtmp , pMPI_fieldEtmp , dt , pMPI_fieldE );
sync_ovlp_mpi_field ( pMPI_fieldB );
MPI_Yee_FDTD_Curl_B ( pMPI_fieldE , pMPI_fieldB , dt );
}}}{
sync_ovlp_mpi_field ( pMPI_fieldEtmp );
double dt = ( dt0 / N_electron ) ;
blas_yiszero_synced_Field3D_MPI ( pMPI_FoutJ , pMPI_FoutJ );
MPI_split_pass_E_particle ( pthis , pMPI_fieldEtmp , pMPI_fieldB , pMPI_FoutJ , pMPI_FoutJ , pmass , pchg , dt0 );
{
long i ;
for ((i = 0) ; ( i < N_electron ) ; (i = ( i + 1 )))
{
MPI_split_pass_x ( pthis , pMPI_fieldEtmp , pMPI_fieldB , pMPI_FoutJ , pMPI_FoutJ , pmass , pchg , dt );
call_particle_sort_mpi ( pthis , 0 , 0 );
MPI_split_pass_y ( pthis , pMPI_fieldEtmp , pMPI_fieldB , pMPI_FoutJ , pMPI_FoutJ , pmass , pchg , dt );
call_particle_sort_mpi ( pthis , 1 , 0 );
MPI_split_pass_z ( pthis , pMPI_fieldEtmp , pMPI_fieldB , pMPI_FoutJ , pMPI_FoutJ , pmass , pchg , dt );
call_particle_sort_mpi ( pthis , 2 , 0 );
}} merge_ovlp_mpi_field ( pMPI_FoutJ );
blas_axpy_Field3D_MPI ( & ( MPI_fieldE ) , & ( MPI_fieldE ) , -1 , pMPI_FoutJ );
}}
int split_2nd_all_passes_multi_step (Particle_in_Cell_MPI * pthis ,double dt0 ,int use_vlo ,int use_ext_G_E ,int N_maxwell ,int N_electron ,double * pmass ,double * pchg ){
Field3D_MPI MPI_fieldE = ( pthis )->MPI_fieldE ;
Field3D_MPI MPI_fieldB = ( pthis )->MPI_fieldB ;
Field3D_MPI MPI_fieldB1 = ( pthis )->MPI_fieldB1 ;
Field3D_MPI MPI_FoutJ = ( pthis )->MPI_FoutJ ;
Field3D_MPI MPI_LFoutJ = ( pthis )->MPI_LFoutJ ;
Field3D_MPI MPI_fieldEtmp = ( pthis )->MPI_fieldEtmp ;
Field3D_MPI MPI_fieldEtmp1 = ( pthis )->MPI_fieldEtmp1 ;
Field3D_MPI MPI_fieldEtmp2 = ( pthis )->MPI_fieldEtmp2 ;
Field3D_MPI MPI_fieldBtmp1 = ( pthis )->MPI_fieldBtmp1 ;
Field3D_MPI MPI_fieldPMLB = ( pthis )->MPI_fieldPMLB ;
Field3D_MPI MPI_fieldPMLE = ( pthis )->MPI_fieldPMLE ;
Field3D_MPI * pMPI_FoutJ = ( pthis )->pMPI_FoutJ ;
Field3D_MPI * pMPI_FoutEN = ( pthis )->pMPI_FoutEN ;
Field3D_MPI MPI_fieldE_ext = ( pthis )->MPI_fieldE_ext ;
Field3D_MPI MPI_fieldB_ext = ( pthis )->MPI_fieldB_ext ;
Field3D_MPI MPI_fieldE_filter = ( pthis )->MPI_fieldE_filter ;
Field3D_MPI MPI_fieldB_filter = ( pthis )->MPI_fieldB_filter ;
Field3D_MPI * pB0 = ( pthis )->pB0 ;
Field3D_MPI * pB1 = ( pthis )->pB1 ;
int use_pml_abc_dir = ( pthis )->use_pml_abc_dir ;
int use_pml_level = ( pthis )->use_pml_level ;
int use_small_grid = ( pthis )->use_small_grid ;
long allxmax = ( pthis )->allxmax ;
long allymax = ( pthis )->allymax ;
long allzmax = ( pthis )->allzmax ;
double use_pml_sigma_max = ( pthis )->use_pml_sigma_max ;
double dt = ( pthis )->dt ;
int o_N_l = ( pthis )->o_N_l ;
int o_N_M = ( pthis )->o_N_M ;
double * o_pmass = ( pthis )->o_pmass ;
double * o_pcharge = ( pthis )->o_pcharge ;
int * o_particle_type = ( pthis )->o_particle_type ;
(dt0 = ( dt0 / 2 ));
Field3D_MPI * pMPI_fieldE = & ( MPI_fieldE ) ;
Field3D_MPI * pMPI_fieldB = & ( MPI_fieldB ) ;
double curt_profile_only = wclk_now ( ) ;
split_pass_xyz_zyx_mpi_shell ( pthis , dt0 , 1 , 1 , use_vlo );
if ( USE_PROFILE ){
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
double cur_time = wclk_now ( ) ;
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
int rank ;
PS_MPI_Comm_rank ( PS_MPI_COMM_WORLD , & ( rank ) );
if ( ( rank == 0 ) ){
fprintf ( stderr , "%s: %fs\n" , "XYZ" , ( cur_time - curt_profile_only ) );
}else{
0;
}
(curt_profile_only = cur_time);
}else{
0;
}
Field3D_MPI * pMPI_fieldEtmp2 = & ( MPI_fieldEtmp2 ) ;
{
double newdt = ( dt0 * 2 ) ;
double dt_B0 = ( newdt / ( N_maxwell * 2 ) ) ;
double dt_Bmid = ( dt_B0 * 2 ) ;
blas_yiszero_synced_Field3D_MPI ( pMPI_fieldEtmp2 , pMPI_fieldEtmp2 );
pass_GeqB ( pthis , dt_B0 );
if ( USE_PROFILE ){
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
double cur_time = wclk_now ( ) ;
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
int rank ;
PS_MPI_Comm_rank ( PS_MPI_COMM_WORLD , & ( rank ) );
if ( ( rank == 0 ) ){
fprintf ( stderr , "%s: %fs\n" , "GeqB" , ( cur_time - curt_profile_only ) );
}else{
0;
}
(curt_profile_only = cur_time);
}else{
0;
}
{
long i ;
for ((i = 0) ; ( i < N_maxwell ) ; (i = ( i + 1 )))
{
sync_ovlp_mpi_field ( pMPI_fieldE );
if ( use_pml_abc_dir ){
void * pe = ( pMPI_fieldE->data )->pe ;
long xlen = ( pMPI_fieldE->data )->xlen ;
long ylen = ( pMPI_fieldE->data )->ylen ;
long zlen = ( pMPI_fieldE->data )->zlen ;
long xblock = ( pMPI_fieldE->data )->xblock ;
long yblock = ( pMPI_fieldE->data )->yblock ;
long zblock = ( pMPI_fieldE->data )->zblock ;
long numvec = ( pMPI_fieldE->data )->numvec ;
long x_num_thread_block = ( pMPI_fieldE->data )->x_num_thread_block ;
long y_num_thread_block = ( pMPI_fieldE->data )->y_num_thread_block ;
long z_num_thread_block = ( pMPI_fieldE->data )->z_num_thread_block ;
int ovlp = ( pMPI_fieldE->data )->ovlp ;
int num_ele = ( pMPI_fieldE->data )->num_ele ;
int CD_type = ( pMPI_fieldE->data )->CD_type ;
void * * sync_layer_pscmc = ( pMPI_fieldE->data )->sync_layer_pscmc ;
void * * swap_layer_pscmc = ( pMPI_fieldE->data )->swap_layer_pscmc ;
void * * sync_kernels = ( pMPI_fieldE->data )->sync_kernels ;
void * * fdtd_kernels = ( pMPI_fieldE->data )->fdtd_kernels ;
void * * dm_kernels = ( pMPI_fieldE->data )->dm_kernels ;
void * * dmbihamt_kernels = ( pMPI_fieldE->data )->dmbihamt_kernels ;
void * * geo_yeefdtd_kernels = ( pMPI_fieldE->data )->geo_yeefdtd_kernels ;
void * * geo_yeefdtd_rect_kernels = ( pMPI_fieldE->data )->geo_yeefdtd_rect_kernels ;
void * * hydroA_kernels = ( pMPI_fieldE->data )->hydroA_kernels ;
void * * yee_abc_kernels = ( pMPI_fieldE->data )->yee_abc_kernels ;
void * * yee_pec_kernels = ( pMPI_fieldE->data )->yee_pec_kernels ;
void * * yee_damp_kernels = ( pMPI_fieldE->data )->yee_damp_kernels ;
void * * yee_setfix_kernels = ( pMPI_fieldE->data )->yee_setfix_kernels ;
void * rdcd = ( pMPI_fieldE->data )->rdcd ;
double * rdcd_host = ( pMPI_fieldE->data )->rdcd_host ;
void * cur_rankx_pscmc = ( pMPI_fieldE->data )->cur_rankx_pscmc ;
void * cur_ranky_pscmc = ( pMPI_fieldE->data )->cur_ranky_pscmc ;
void * cur_rankz_pscmc = ( pMPI_fieldE->data )->cur_rankz_pscmc ;
void * xoffset = ( pMPI_fieldE->data )->xoffset ;
void * yoffset = ( pMPI_fieldE->data )->yoffset ;
void * zoffset = ( pMPI_fieldE->data )->zoffset ;
long * global_x_offset = ( pMPI_fieldE->data )->global_x_offset ;
long * global_y_offset = ( pMPI_fieldE->data )->global_y_offset ;
long * global_z_offset = ( pMPI_fieldE->data )->global_z_offset ;
long * global_id = ( pMPI_fieldE->data )->global_id ;
long global_pid = ( pMPI_fieldE->data )->global_pid ;
long * adj_ids = ( pMPI_fieldE->data )->adj_ids ;
long * adj_processes = ( pMPI_fieldE->data )->adj_processes ;
long * adj_local_tid = ( pMPI_fieldE->data )->adj_local_tid ;
void * main_data = ( pMPI_fieldE->data )->main_data ;
double delta_x = ( pMPI_fieldE->data )->delta_x ;
double delta_y = ( pMPI_fieldE->data )->delta_y ;
double delta_z = ( pMPI_fieldE->data )->delta_z ;
void * blas_yiszero_synced_kernel = ( pMPI_fieldE->data )->blas_yiszero_synced_kernel ;
void * blas_mulxy_numele3_kernel = ( pMPI_fieldE->data )->blas_mulxy_numele3_kernel ;
void * blas_yiszero_kernel = ( pMPI_fieldE->data )->blas_yiszero_kernel ;
void * blas_yisconst_kernel = ( pMPI_fieldE->data )->blas_yisconst_kernel ;
void * blas_get_ITG_Potential_kernel = ( pMPI_fieldE->data )->blas_get_ITG_Potential_kernel ;
void * blas_invy_kernel = ( pMPI_fieldE->data )->blas_invy_kernel ;
void * blas_axpby_kernel = ( pMPI_fieldE->data )->blas_axpby_kernel ;
void * blas_axpy_kernel = ( pMPI_fieldE->data )->blas_axpy_kernel ;
void * blas_yisax_kernel = ( pMPI_fieldE->data )->blas_yisax_kernel ;
void * blas_mulxy_kernel = ( pMPI_fieldE->data )->blas_mulxy_kernel ;
void * blas_findmax_kernel = ( pMPI_fieldE->data )->blas_findmax_kernel ;
void * blas_dot_kernel = ( pMPI_fieldE->data )->blas_dot_kernel ;
void * blas_sum_kernel = ( pMPI_fieldE->data )->blas_sum_kernel ;
sync_ovlp_mpi_field ( & ( MPI_fieldPMLE ) );
MPI_PML_FDTD_CURL_FWD ( pMPI_fieldB , pMPI_fieldE , & ( MPI_fieldPMLB ) , & ( MPI_fieldPMLE ) , dt_Bmid , 0 , 0 , delta_x , delta_y , delta_z , use_pml_abc_dir , use_pml_level , 3 , use_pml_sigma_max , allxmax , allymax , allzmax );
}else{
MPI_Yee_FDTD_Curl_E ( pMPI_fieldB , pMPI_fieldE , dt_Bmid );
}
blas_axpy_Field3D_MPI ( pMPI_fieldEtmp2 , pMPI_fieldEtmp2 , ( dt_Bmid / newdt ) , pMPI_fieldE );
if ( USE_PROFILE ){
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
double cur_time = wclk_now ( ) ;
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
int rank ;
PS_MPI_Comm_rank ( PS_MPI_COMM_WORLD , & ( rank ) );
if ( ( rank == 0 ) ){
fprintf ( stderr , "%s: %fs\n" , "CurlE" , ( cur_time - curt_profile_only ) );
}else{
0;
}
(curt_profile_only = cur_time);
}else{
0;
}
sync_ovlp_mpi_field ( pMPI_fieldB );
if ( ( i < ( N_maxwell - 1 ) ) ){
pass_GeqB ( pthis , dt_Bmid );
if ( USE_PROFILE ){
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
double cur_time = wclk_now ( ) ;
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
int rank ;
PS_MPI_Comm_rank ( PS_MPI_COMM_WORLD , & ( rank ) );
if ( ( rank == 0 ) ){
fprintf ( stderr , "%s: %fs\n" , "GeqB" , ( cur_time - curt_profile_only ) );
}else{
0;
}
(curt_profile_only = cur_time);
}else{
0;
}
}else{
0;
}
}} if ( USE_PROFILE ){
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
double cur_time = wclk_now ( ) ;
PS_MPI_Barrier ( PS_MPI_COMM_WORLD );
int rank ;
PS_MPI_Comm_rank ( PS_MPI_COMM_WORLD , & ( rank ) );
if ( ( rank == 0 ) ){
fprintf ( stderr , "%s: %fs\n" , "CurlE" , ( cur_time - curt_profile_only ) );
}else{
0;
}
(curt_profile_only = cur_time);
}else{
0;
}
pass_GeqB ( pthis , dt_B0 );