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check_params.h
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// check_params.h
// This file defines functions to either initialize, check, or print
// the QUDA gauge and inverter parameters. It gets included in
// interface_quda.cpp, after either INIT_PARAM, CHECK_PARAM, or
// PRINT_PARAM is defined.
//
// If you're reading this file because it was mentioned in a "QUDA
// error" message, it probably means that you forgot to set one of the
// gauge or inverter parameters in your application before calling
// loadGaugeQuda() or invertQuda().
#include <float.h>
#define INVALID_INT QUDA_INVALID_ENUM
#define INVALID_DOUBLE DBL_MIN
// define macro to carry out the appropriate action for a given parameter
#if defined INIT_PARAM
#define P(x, val) ret.x = val
#elif defined CHECK_PARAM
#define P(x, val) if (param->x == val) errorQuda("Parameter " #x " undefined")
#elif defined PRINT_PARAM
#define P(x, val) \
{ if (val == INVALID_DOUBLE) printfQuda(#x " = %g\n", (double)param->x); \
else printfQuda(#x " = %d\n", (int)param->x); }
#else
#error INIT_PARAM, CHECK_PARAM, and PRINT_PARAM all undefined in check_params.h
#endif
// define the appropriate function for GaugeParam
#if defined INIT_PARAM
QudaGaugeParam newQudaGaugeParam(void) {
QudaGaugeParam ret;
#elif defined CHECK_PARAM
static void checkGaugeParam(QudaGaugeParam *param) {
#else
void printQudaGaugeParam(QudaGaugeParam *param) {
printfQuda("QUDA Gauge Parameters:\n");
#endif
#if defined CHECK_PARAM
if (param->struct_size != (size_t)INVALID_INT && param->struct_size != sizeof(*param))
errorQuda("Unexpected QudaGaugeParam struct size %lu, expected %lu", param->struct_size, sizeof(*param));
#else
P(struct_size, (size_t)INVALID_INT);
#endif
#if defined INIT_PARAM
P(location, QUDA_CPU_FIELD_LOCATION);
#else
P(location, QUDA_INVALID_FIELD_LOCATION);
#endif
for (int i=0; i<4; i++) P(X[i], INVALID_INT);
#if defined INIT_PARAM
P(anisotropy, INVALID_DOUBLE);
P(tadpole_coeff, INVALID_DOUBLE);
P(scale, 1.0);
#else
if (param->type == QUDA_WILSON_LINKS) {
P(anisotropy, INVALID_DOUBLE);
} else if (param->type == QUDA_ASQTAD_LONG_LINKS) {
P(tadpole_coeff, INVALID_DOUBLE);
P(scale, INVALID_DOUBLE);
}
#endif
P(type, QUDA_INVALID_LINKS);
P(gauge_order, QUDA_INVALID_GAUGE_ORDER);
P(t_boundary, QUDA_INVALID_T_BOUNDARY);
P(cpu_prec, QUDA_INVALID_PRECISION);
P(cuda_prec, QUDA_INVALID_PRECISION);
P(reconstruct, QUDA_RECONSTRUCT_INVALID);
#ifndef CHECK_PARAM
P(cuda_prec_sloppy, QUDA_INVALID_PRECISION);
P(reconstruct_sloppy, QUDA_RECONSTRUCT_INVALID);
P(cuda_prec_refinement_sloppy, QUDA_INVALID_PRECISION);
P(reconstruct_refinement_sloppy, QUDA_RECONSTRUCT_INVALID);
P(cuda_prec_precondition, QUDA_INVALID_PRECISION);
P(reconstruct_precondition, QUDA_RECONSTRUCT_INVALID);
P(cuda_prec_eigensolver, QUDA_INVALID_PRECISION);
P(reconstruct_eigensolver, QUDA_RECONSTRUCT_INVALID);
#else
if (param->cuda_prec_sloppy == QUDA_INVALID_PRECISION)
param->cuda_prec_sloppy = param->cuda_prec;
if (param->cuda_prec_eigensolver == QUDA_INVALID_PRECISION) param->cuda_prec_eigensolver = param->cuda_prec;
if (param->reconstruct_sloppy == QUDA_RECONSTRUCT_INVALID)
param->reconstruct_sloppy = param->reconstruct;
if (param->reconstruct_eigensolver == QUDA_RECONSTRUCT_INVALID)
param->reconstruct_eigensolver = param->reconstruct_sloppy;
if (param->cuda_prec_refinement_sloppy == QUDA_INVALID_PRECISION)
param->cuda_prec_refinement_sloppy = param->cuda_prec_sloppy;
if (param->reconstruct_refinement_sloppy == QUDA_RECONSTRUCT_INVALID)
param->reconstruct_refinement_sloppy = param->reconstruct_sloppy;
if (param->cuda_prec_precondition == QUDA_INVALID_PRECISION)
param->cuda_prec_precondition = param->cuda_prec_sloppy;
if (param->reconstruct_precondition == QUDA_RECONSTRUCT_INVALID)
param->reconstruct_precondition = param->reconstruct_sloppy;
#endif
P(gauge_fix, QUDA_GAUGE_FIXED_INVALID);
P(ga_pad, INVALID_INT);
#if defined INIT_PARAM
P(staggered_phase_type, QUDA_STAGGERED_PHASE_NO);
P(staggered_phase_applied, 0);
P(i_mu, 0.0);
P(overlap, 0);
#else
P(staggered_phase_type, QUDA_STAGGERED_PHASE_INVALID);
P(staggered_phase_applied, INVALID_INT);
P(i_mu, INVALID_DOUBLE);
P(overlap, INVALID_INT);
#endif
#if defined INIT_PARAM
P(overwrite_mom, 0);
P(use_resident_gauge, 0);
P(use_resident_mom, 0);
P(make_resident_gauge, 0);
P(make_resident_mom, 0);
P(return_result_gauge, 1);
P(return_result_mom, 1);
P(gauge_offset, 0);
P(mom_offset, 0);
P(site_size, 0);
#else
P(overwrite_mom, INVALID_INT);
P(use_resident_gauge, INVALID_INT);
P(use_resident_mom, INVALID_INT);
P(make_resident_gauge, INVALID_INT);
P(make_resident_mom, INVALID_INT);
P(return_result_gauge, INVALID_INT);
P(return_result_mom, INVALID_INT);
P(gauge_offset, (size_t)INVALID_INT);
P(mom_offset, (size_t)INVALID_INT);
P(site_size, (size_t)INVALID_INT);
#endif
#ifdef INIT_PARAM
return ret;
#endif
}
// define the appropriate function for EigParam
#if defined INIT_PARAM
QudaEigParam newQudaEigParam(void) {
QudaEigParam ret;
#elif defined CHECK_PARAM
static void checkEigParam(QudaEigParam *param) {
#else
void printQudaEigParam(QudaEigParam *param) {
printfQuda("QUDA Eig Parameters:\n");
#endif
#if defined CHECK_PARAM
if (param->struct_size != (size_t)INVALID_INT && param->struct_size != sizeof(*param))
errorQuda("Unexpected QudaEigParam struct size %lu, expected %lu", param->struct_size, sizeof(*param));
#else
P(struct_size, (size_t)INVALID_INT);
#endif
#if defined INIT_PARAM
P(use_eigen_qr, QUDA_BOOLEAN_FALSE);
P(use_poly_acc, QUDA_BOOLEAN_FALSE);
P(poly_deg, 0);
P(a_min, 0.0);
P(a_max, 0.0);
P(preserve_deflation, QUDA_BOOLEAN_FALSE);
P(preserve_deflation_space, 0);
P(preserve_evals, QUDA_BOOLEAN_TRUE);
P(use_dagger, QUDA_BOOLEAN_FALSE);
P(use_norm_op, QUDA_BOOLEAN_FALSE);
P(compute_svd, QUDA_BOOLEAN_FALSE);
P(require_convergence, QUDA_BOOLEAN_TRUE);
P(spectrum, QUDA_SPECTRUM_LR_EIG);
P(n_ev, 0);
P(n_kr, 0);
P(n_conv, 0);
P(n_ev_deflate, -1);
P(batched_rotate, 0);
P(tol, 0.0);
P(qr_tol, 0.0);
P(check_interval, 0);
P(max_restarts, 0);
P(max_ortho_attempts, 10);
P(arpack_check, QUDA_BOOLEAN_FALSE);
P(nk, 0);
P(np, 0);
P(eig_type, QUDA_EIG_TR_LANCZOS);
P(extlib_type, QUDA_EIGEN_EXTLIB);
P(mem_type_ritz, QUDA_MEMORY_DEVICE);
P(compute_evals_batch_size, 4);
P(ortho_block_size, 0);
P(partfile, QUDA_BOOLEAN_FALSE);
#else
P(use_eigen_qr, QUDA_BOOLEAN_INVALID);
P(use_poly_acc, QUDA_BOOLEAN_INVALID);
P(poly_deg, INVALID_INT);
P(a_min, INVALID_DOUBLE);
P(a_max, INVALID_DOUBLE);
P(preserve_deflation, QUDA_BOOLEAN_INVALID);
P(preserve_evals, QUDA_BOOLEAN_INVALID);
P(use_dagger, QUDA_BOOLEAN_INVALID);
P(use_norm_op, QUDA_BOOLEAN_INVALID);
P(compute_svd, QUDA_BOOLEAN_INVALID);
P(require_convergence, QUDA_BOOLEAN_INVALID);
P(n_ev, INVALID_INT);
P(n_kr, INVALID_INT);
P(n_conv, INVALID_INT);
P(n_ev_deflate, INVALID_INT);
P(batched_rotate, INVALID_INT);
P(tol, INVALID_DOUBLE);
P(qr_tol, INVALID_DOUBLE);
P(check_interval, INVALID_INT);
P(max_restarts, INVALID_INT);
P(max_ortho_attempts, INVALID_INT);
P(arpack_check, QUDA_BOOLEAN_INVALID);
P(nk, INVALID_INT);
P(np, INVALID_INT);
P(eig_type, QUDA_EIG_INVALID);
P(extlib_type, QUDA_EXTLIB_INVALID);
P(mem_type_ritz, QUDA_MEMORY_INVALID);
P(compute_evals_batch_size, INVALID_INT);
P(ortho_block_size, INVALID_INT);
P(partfile, QUDA_BOOLEAN_INVALID);
#endif
// only need to enfore block size checking if doing a block eigen solve
#ifdef CHECK_PARAM
if (param->eig_type == QUDA_EIG_BLK_TR_LANCZOS)
#endif
P(block_size, INVALID_INT);
#if defined INIT_PARAM
P(location, QUDA_CUDA_FIELD_LOCATION);
#else
P(location, QUDA_INVALID_FIELD_LOCATION);
#endif
#if defined INIT_PARAM
P(save_prec, QUDA_DOUBLE_PRECISION);
#else
P(save_prec, QUDA_INVALID_PRECISION);
#endif
#if defined INIT_PARAM
P(io_parity_inflate, QUDA_BOOLEAN_FALSE);
#else
P(io_parity_inflate, QUDA_BOOLEAN_INVALID);
#endif
#ifdef INIT_PARAM
return ret;
#endif
}
// define the appropriate function for clover subset from InvertParam
#if defined INIT_PARAM
void newQudaCloverParam(QudaInvertParam *param)
{
QudaInvertParam &ret = *param;
#elif defined CHECK_PARAM
static void checkCloverParam(QudaInvertParam *param)
{
#else
void printQudaCloverParam(QudaInvertParam *param)
{
#endif
#if defined CHECK_PARAM
if (param->struct_size != (size_t)INVALID_INT && param->struct_size != sizeof(*param))
errorQuda("Unexpected QudaInvertParam struct size %lu, expected %lu", param->struct_size, sizeof(*param));
#else
P(struct_size, (size_t)INVALID_INT);
#endif
#if defined INIT_PARAM
P(clover_location, QUDA_CPU_FIELD_LOCATION);
#else
P(clover_location, QUDA_INVALID_FIELD_LOCATION);
#endif
#ifndef INIT_PARAM
if (param->dslash_type == QUDA_CLOVER_WILSON_DSLASH || param->dslash_type == QUDA_TWISTED_CLOVER_DSLASH
|| param->dslash_type == QUDA_CLOVER_HASENBUSCH_TWIST_DSLASH) {
#endif
P(clover_cpu_prec, QUDA_INVALID_PRECISION);
P(clover_cuda_prec, QUDA_INVALID_PRECISION);
#ifndef CHECK_PARAM
P(clover_cuda_prec_sloppy, QUDA_INVALID_PRECISION);
P(clover_cuda_prec_refinement_sloppy, QUDA_INVALID_PRECISION);
P(clover_cuda_prec_precondition, QUDA_INVALID_PRECISION);
P(clover_cuda_prec_eigensolver, QUDA_INVALID_PRECISION);
#else
if (param->clover_cuda_prec_sloppy == QUDA_INVALID_PRECISION)
param->clover_cuda_prec_sloppy = param->clover_cuda_prec;
if (param->clover_cuda_prec_refinement_sloppy == QUDA_INVALID_PRECISION)
param->clover_cuda_prec_refinement_sloppy = param->clover_cuda_prec_sloppy;
if (param->clover_cuda_prec_precondition == QUDA_INVALID_PRECISION)
param->clover_cuda_prec_precondition = param->clover_cuda_prec_sloppy;
if (param->clover_cuda_prec_eigensolver == QUDA_INVALID_PRECISION)
param->clover_cuda_prec_eigensolver = param->clover_cuda_prec_sloppy;
#endif
#ifdef INIT_PARAM
P(compute_clover_trlog, 1);
P(compute_clover, 0);
P(compute_clover_inverse, 0);
P(return_clover, 0);
P(return_clover_inverse, 0);
P(clover_rho, 0.0);
P(clover_coeff, 0.0);
P(clover_csw, 0.0);
#else
P(compute_clover_trlog, QUDA_INVALID_PRECISION);
P(compute_clover, QUDA_INVALID_PRECISION);
P(compute_clover_inverse, QUDA_INVALID_PRECISION);
P(return_clover, QUDA_INVALID_PRECISION);
P(return_clover_inverse, QUDA_INVALID_PRECISION);
P(clover_rho, INVALID_DOUBLE);
P(clover_coeff, INVALID_DOUBLE);
P(clover_csw, INVALID_DOUBLE);
#endif
P(clover_order, QUDA_INVALID_CLOVER_ORDER);
#ifndef INIT_PARAM
}
#endif
}
// define the appropriate function for InvertParam
#if defined INIT_PARAM
QudaInvertParam newQudaInvertParam(void)
{
QudaInvertParam ret;
QudaInvertParam *param=&ret;
#elif defined CHECK_PARAM
static void checkInvertParam(QudaInvertParam *param, void *out_ptr=nullptr, void *in_ptr=nullptr) {
#else
void printQudaInvertParam(QudaInvertParam *param) {
printfQuda("QUDA Inverter Parameters:\n");
#endif
#if defined CHECK_PARAM
if (param->struct_size != (size_t)INVALID_INT && param->struct_size != sizeof(*param))
errorQuda("Unexpected QudaInvertParam struct size %lu, expected %lu", param->struct_size, sizeof(*param));
#else
P(struct_size, (size_t)INVALID_INT);
#endif
P(dslash_type, QUDA_INVALID_DSLASH);
P(inv_type, QUDA_INVALID_INVERTER);
#if defined INIT_PARAM
P(mass, INVALID_DOUBLE);
P(kappa, INVALID_DOUBLE);
P(m5, INVALID_DOUBLE);
P(Ls, INVALID_INT);
P(mu, INVALID_DOUBLE);
P(epsilon, INVALID_DOUBLE);
P(evmax, INVALID_DOUBLE);
P(tm_rho, 0.0);
P(twist_flavor, QUDA_TWIST_INVALID);
P(laplace3D, INVALID_INT);
P(covdev_mu, INVALID_INT);
P(use_smeared_gauge, QUDA_BOOLEAN_FALSE);
#else
// asqtad and domain wall use mass parameterization
if (param->dslash_type == QUDA_STAGGERED_DSLASH || param->dslash_type == QUDA_ASQTAD_DSLASH
|| param->dslash_type == QUDA_DOMAIN_WALL_DSLASH || param->dslash_type == QUDA_DOMAIN_WALL_4D_DSLASH
|| param->dslash_type == QUDA_MOBIUS_DWF_DSLASH) {
P(mass, INVALID_DOUBLE);
} else { // Wilson and clover use kappa parameterization
P(kappa, INVALID_DOUBLE);
}
if (param->dslash_type == QUDA_DOMAIN_WALL_DSLASH ||
param->dslash_type == QUDA_DOMAIN_WALL_4D_DSLASH ||
param->dslash_type == QUDA_MOBIUS_DWF_DSLASH ) {
P(m5, INVALID_DOUBLE);
P(Ls, INVALID_INT);
#ifdef PRINT_PARAM
// for MDWF, add b5, c5 to param print
for (int i = 0; i < param->Ls; i++) {
std::complex<double> b5;
memcpy(&b5, param->b_5, sizeof(std::complex<double>));
printfQuda("s = %2d b5 = (%16.15e %16.15e)\n", i, b5.real(), b5.imag());
}
for (int i = 0; i < param->Ls; i++) {
std::complex<double> c5;
memcpy(&c5, param->c_5, sizeof(std::complex<double>));
printfQuda("s = %2d c5 = (%16.15e %16.15e)\n", i, c5.real(), c5.imag());
}
#endif
}
if (param->dslash_type == QUDA_TWISTED_MASS_DSLASH || param->dslash_type == QUDA_TWISTED_CLOVER_DSLASH) {
P(mu, INVALID_DOUBLE);
P(twist_flavor, QUDA_TWIST_INVALID);
}
if (param->dslash_type == QUDA_TWISTED_CLOVER_DSLASH) { P(tm_rho, INVALID_DOUBLE); }
if (param->twist_flavor == QUDA_TWIST_NONDEG_DOUBLET) { P(epsilon, INVALID_DOUBLE); }
if (param->dslash_type == QUDA_COVDEV_DSLASH) { P(covdev_mu, INVALID_INT); }
#endif
P(tol, INVALID_DOUBLE);
#ifdef INIT_PARAM
P(residual_type, QUDA_L2_RELATIVE_RESIDUAL);
#else
P(residual_type, QUDA_INVALID_RESIDUAL);
#endif
if (param->residual_type & QUDA_HEAVY_QUARK_RESIDUAL) {
P(tol_hq, INVALID_DOUBLE);
}
P(maxiter, INVALID_INT);
P(reliable_delta, INVALID_DOUBLE);
#ifndef CHECK_PARAM
P(reliable_delta_refinement, INVALID_DOUBLE);
#else
if (param->reliable_delta_refinement == INVALID_DOUBLE) param->reliable_delta_refinement = param->reliable_delta;
#endif
#ifdef INIT_PARAM
P(use_alternative_reliable, 0); /**< Default is to not use alternative relative updates, e.g., use delta to determine reliable trigger */
P(use_sloppy_partial_accumulator, 0); /**< Default is to use a high-precision accumulator (not yet supported in all solvers) */
P(solution_accumulator_pipeline, 1); /**< Default is solution accumulator depth of 1 */
P(max_res_increase, 1); /**< Default is to allow one consecutive residual increase */
P(max_res_increase_total, 10); /**< Default is to allow ten residual increase */
P(max_hq_res_increase, 1); /**< Default is to allow one consecutive heavy-quark residual increase */
P(max_hq_res_restart_total, 10); /**< Default is to allow ten heavy-quark restarts */
P(heavy_quark_check, 10); /**< Default is to update heavy quark residual after 10 iterations */
#else
P(use_alternative_reliable, INVALID_INT);
P(use_sloppy_partial_accumulator, INVALID_INT);
P(solution_accumulator_pipeline, INVALID_INT);
P(max_res_increase, INVALID_INT);
P(max_res_increase_total, INVALID_INT);
P(max_hq_res_increase, INVALID_INT);
P(max_hq_res_restart_total, INVALID_INT);
P(heavy_quark_check, INVALID_INT);
#endif
#ifndef CHECK_PARAM
P(pipeline, 0); /** Whether to use a pipelined solver */
P(num_offset, 0); /**< Number of offsets in the multi-shift solver */
P(num_src, 1); /**< Number of sources to solve for simultaneously */
P(overlap, 0); /**< width of domain overlaps */
#else
if (param->num_src > QUDA_MAX_MULTI_SRC)
errorQuda("num_src %d exceeds limit of %d", param->num_src, QUDA_MAX_MULTI_SRC);
#endif
#ifdef INIT_PARAM
for (int d = 0; d < 4; d++) { P(split_grid[d], 1); } /**< Grid of sub-partitions */
P(num_src_per_sub_partition, 1); /**< Number of sources per sub-partitions */
#else
for (int d = 0; d < 4; d++) { P(split_grid[d], INVALID_INT); } /**< Grid of sub-partitions */
P(num_src_per_sub_partition, INVALID_INT); /**< Number of sources per sub-partitions */
#ifdef CHECK_PARAM
int split_grid_size = 1;
for (int d = 0; d < 4; d++) split_grid_size *= param->split_grid[d];
if (split_grid_size > 1) {
if (param->num_src_per_sub_partition < 1)
errorQuda("Invalid num_src_per_subpartition = %d", param->num_src_per_sub_partition);
if (param->num_src % param->num_src_per_sub_partition != 0)
errorQuda("num_src %d not compatible with num_src_per_sub_partition %d", param->num_src,
param->num_src_per_sub_partition);
}
#endif
#endif
#ifdef INIT_PARAM
P(compute_action, 0);
P(compute_true_res, 1);
#else
P(compute_action, INVALID_INT);
P(compute_true_res, INVALID_INT);
#endif
if (param->num_offset > 0) {
for (int i=0; i<param->num_offset; i++) {
P(offset[i], INVALID_DOUBLE);
P(tol_offset[i], INVALID_DOUBLE);
if (param->residual_type & QUDA_HEAVY_QUARK_RESIDUAL)
P(tol_hq_offset[i], INVALID_DOUBLE);
#ifndef CHECK_PARAM
P(true_res_offset[i], INVALID_DOUBLE);
P(iter_res_offset[i], INVALID_DOUBLE);
#endif
if (param->compute_action) P(residue[i], INVALID_DOUBLE);
}
#ifndef CHECK_PARAM
P(action[0], INVALID_DOUBLE);
P(action[1], INVALID_DOUBLE);
#endif
}
P(solution_type, QUDA_INVALID_SOLUTION);
P(solve_type, QUDA_INVALID_SOLVE);
P(matpc_type, QUDA_MATPC_INVALID);
P(dagger, QUDA_DAG_INVALID);
P(mass_normalization, QUDA_INVALID_NORMALIZATION);
#ifndef CHECK_PARAM
P(solver_normalization, QUDA_DEFAULT_NORMALIZATION);
#endif
#ifndef CHECK_PARAM
P(preserve_source, QUDA_PRESERVE_SOURCE_INVALID); // deprecated
#endif
P(cpu_prec, QUDA_INVALID_PRECISION);
P(cuda_prec, QUDA_INVALID_PRECISION);
#ifndef CHECK_PARAM
P(cuda_prec_sloppy, QUDA_INVALID_PRECISION);
P(cuda_prec_refinement_sloppy, QUDA_INVALID_PRECISION);
P(cuda_prec_precondition, QUDA_INVALID_PRECISION);
P(cuda_prec_eigensolver, QUDA_INVALID_PRECISION);
#else
if (param->cuda_prec_sloppy == QUDA_INVALID_PRECISION)
param->cuda_prec_sloppy = param->cuda_prec;
if (param->cuda_prec_refinement_sloppy == QUDA_INVALID_PRECISION)
param->cuda_prec_refinement_sloppy = param->cuda_prec_sloppy;
if (param->cuda_prec_precondition == QUDA_INVALID_PRECISION)
param->cuda_prec_precondition = param->cuda_prec_sloppy;
if (param->cuda_prec_eigensolver == QUDA_INVALID_PRECISION) param->cuda_prec_eigensolver = param->cuda_prec_sloppy;
#endif
// leave the default behaviour to cpu pointers
#if defined INIT_PARAM
P(input_location, QUDA_CPU_FIELD_LOCATION);
P(output_location, QUDA_CPU_FIELD_LOCATION);
P(clover_location, QUDA_CPU_FIELD_LOCATION);
#else
P(input_location, QUDA_INVALID_FIELD_LOCATION);
P(output_location, QUDA_INVALID_FIELD_LOCATION);
P(clover_location, QUDA_INVALID_FIELD_LOCATION);
#endif
#ifdef CHECK_PARAM
if (in_ptr && quda::get_pointer_location(in_ptr) != param->input_location) {
warningQuda("input_location=%d, however supplied pointer is location=%d", param->input_location, quda::get_pointer_location(in_ptr));
// param->input_location = quda::get_pointer_location(in_ptr);
}
if (out_ptr && quda::get_pointer_location(out_ptr) != param->output_location) {
warningQuda("output_location=%d, however supplied pointer is location=%d", param->output_location, quda::get_pointer_location(out_ptr));
// param->output_location = quda::get_pointer_location(out_ptr);
}
#endif
P(gamma_basis, QUDA_INVALID_GAMMA_BASIS);
P(dirac_order, QUDA_INVALID_DIRAC_ORDER);
#if defined INIT_PARAM
P(Nsteps, INVALID_INT);
#endif
#if defined INIT_PARAM
P(gcrNkrylov, INVALID_INT);
#else
if (param->inv_type == QUDA_GCR_INVERTER || param->inv_type == QUDA_BICGSTABL_INVERTER
|| quda::is_ca_solver(param->inv_type)) {
P(gcrNkrylov, INVALID_INT);
}
#endif
// domain decomposition parameters
//P(inv_type_sloppy, QUDA_INVALID_INVERTER); // disable since invalid means no preconditioner
#if defined INIT_PARAM
P(dslash_type_precondition, QUDA_INVALID_DSLASH);
P(inv_type_precondition, QUDA_INVALID_INVERTER);
P(preconditioner, 0);
P(tol_precondition, INVALID_DOUBLE);
P(maxiter_precondition, INVALID_INT);
P(verbosity_precondition, QUDA_INVALID_VERBOSITY);
P(schwarz_type, QUDA_INVALID_SCHWARZ);
P(accelerator_type_precondition, QUDA_INVALID_ACCELERATOR);
P(precondition_cycle, 1); // defaults match previous interface behaviour
#else
if (param->inv_type_precondition == QUDA_BICGSTAB_INVERTER || param->inv_type_precondition == QUDA_CG_INVERTER
|| param->inv_type_precondition == QUDA_CA_CG_INVERTER || param->inv_type_precondition == QUDA_MR_INVERTER) {
P(tol_precondition, INVALID_DOUBLE);
P(maxiter_precondition, INVALID_INT);
P(verbosity_precondition, QUDA_INVALID_VERBOSITY);
P(precondition_cycle, 0);
}
#endif
#ifndef INIT_PARAM
if (param->accelerator_type_precondition == QUDA_MADWF_ACCELERATOR) {
#endif
P(madwf_diagonal_suppressor, INVALID_DOUBLE);
P(madwf_ls, INVALID_INT);
P(madwf_null_miniter, INVALID_INT);
P(madwf_null_tol, INVALID_DOUBLE);
P(madwf_train_maxiter, INVALID_INT);
#ifndef INIT_PARAM
}
#endif
#ifdef INIT_PARAM
P(madwf_param_infile[0], '\0');
P(madwf_param_outfile[0], '\0');
#endif
#ifdef INIT_PARAM
P(madwf_param_load, QUDA_BOOLEAN_FALSE);
P(madwf_param_save, QUDA_BOOLEAN_FALSE);
#else
P(madwf_param_load, QUDA_BOOLEAN_INVALID);
P(madwf_param_save, QUDA_BOOLEAN_INVALID);
#endif
#if defined(INIT_PARAM)
P(eig_param, 0);
#endif
#ifdef INIT_PARAM
P(use_init_guess, QUDA_USE_INIT_GUESS_NO); //set the default to no
P(omega, 1.0); // set default to no relaxation
#else
P(use_init_guess, QUDA_USE_INIT_GUESS_INVALID);
P(omega, INVALID_DOUBLE);
#endif
#if defined(INIT_PARAM)
newQudaCloverParam(param);
#elif defined(CHECK_PARAM)
checkCloverParam(param);
#else
printQudaCloverParam(param);
#endif
#ifdef INIT_PARAM
P(ca_basis, QUDA_POWER_BASIS);
P(ca_lambda_min, 0.0);
P(ca_lambda_max, -1.0);
#else
if (quda::is_ca_solver(param->inv_type)) {
P(ca_basis, QUDA_INVALID_BASIS);
if (param->ca_basis == QUDA_CHEBYSHEV_BASIS) {
P(ca_lambda_min, INVALID_DOUBLE);
P(ca_lambda_max, INVALID_DOUBLE);
}
}
#endif
#ifdef INIT_PARAM
P(ca_basis_precondition, QUDA_POWER_BASIS);
P(ca_lambda_min_precondition, 0.0);
P(ca_lambda_max_precondition, -1.0);
#else
if (quda::is_ca_solver(param->inv_type)) {
P(ca_basis_precondition, QUDA_INVALID_BASIS);
if (param->ca_basis_precondition == QUDA_CHEBYSHEV_BASIS) {
P(ca_lambda_min_precondition, INVALID_DOUBLE);
P(ca_lambda_max_precondition, INVALID_DOUBLE);
}
}
#endif
P(verbosity, QUDA_INVALID_VERBOSITY);
#ifdef INIT_PARAM
P(iter, 0);
P(gflops, 0.0);
P(secs, 0.0);
P(energy, 0.0);
P(power, 0.0);
P(temp, 0.0);
P(clock, 0.0);
#elif defined(PRINT_PARAM)
P(iter, INVALID_INT);
P(gflops, INVALID_DOUBLE);
P(secs, INVALID_DOUBLE);
P(energy, INVALID_DOUBLE);
P(power, INVALID_DOUBLE);
P(temp, INVALID_DOUBLE);
P(clock, INVALID_DOUBLE);
#endif
#if defined INIT_PARAM
P(cuda_prec_ritz, QUDA_SINGLE_PRECISION);
P(n_ev, 8);
P(max_search_dim, 64);
P(rhs_idx, 0);
P(deflation_grid, 1);
P(eigcg_max_restarts, 4);
P(max_restart_num, 3);
P(tol_restart,5e-5);
P(inc_tol, 1e-2);
P(eigenval_tol, 1e-1);
#else
P(cuda_prec_ritz, QUDA_INVALID_PRECISION);
P(n_ev, INVALID_INT);
P(max_search_dim, INVALID_INT);
P(rhs_idx, INVALID_INT);
P(deflation_grid, INVALID_INT);
P(eigcg_max_restarts, INVALID_INT);
P(max_restart_num, INVALID_INT);
P(tol_restart,INVALID_DOUBLE);
P(inc_tol, INVALID_DOUBLE);
P(eigenval_tol, INVALID_DOUBLE);
#endif
#if defined INIT_PARAM
P(use_resident_solution, 0);
P(make_resident_solution, 0);
#else
P(use_resident_solution, INVALID_INT);
P(make_resident_solution, INVALID_INT);
#endif
#if defined INIT_PARAM
P(chrono_use_resident, 0);
P(chrono_make_resident, 0);
P(chrono_replace_last, 0);
P(chrono_max_dim, 0);
P(chrono_index, 0);
#else
P(chrono_use_resident, INVALID_INT);
P(chrono_make_resident, INVALID_INT);
P(chrono_replace_last, INVALID_INT);
P(chrono_max_dim, INVALID_INT);
P(chrono_index, INVALID_INT);
#endif
#if !defined CHECK_PARAM
P(chrono_precision, QUDA_INVALID_PRECISION);
#else
// default the chrono precision to using outer precision
if (param->chrono_precision == QUDA_INVALID_PRECISION) param->chrono_precision = param->cuda_prec;
#endif
#if defined INIT_PARAM
P(extlib_type, QUDA_EIGEN_EXTLIB);
#else
P(extlib_type, QUDA_EXTLIB_INVALID);
#endif
#if defined INIT_PARAM
P(native_blas_lapack, QUDA_BOOLEAN_TRUE);
#else
P(native_blas_lapack, QUDA_BOOLEAN_INVALID);
#endif
#ifdef INIT_PARAM
#ifdef NVSHMEM_COMMS
P(use_mobius_fused_kernel, QUDA_BOOLEAN_FALSE);
#else
P(use_mobius_fused_kernel, QUDA_BOOLEAN_TRUE);
#endif
#else
P(use_mobius_fused_kernel, QUDA_BOOLEAN_INVALID);
#endif
#ifdef INIT_PARAM
P(distance_pc_alpha0, 0.0);
P(distance_pc_t0, -1);
#else
P(distance_pc_alpha0, INVALID_DOUBLE);
P(distance_pc_t0, INVALID_INT);
#endif
#ifdef INIT_PARAM
return ret;
#endif
#ifdef CHECK_PARAM
// additional sanity checks here
bool pc_solution
= (param->solution_type == QUDA_MATPC_SOLUTION) || (param->solution_type == QUDA_MATPCDAG_MATPC_SOLUTION);
bool pc_solve = (param->solve_type == QUDA_DIRECT_PC_SOLVE) || (param->solve_type == QUDA_NORMOP_PC_SOLVE)
|| (param->solve_type == QUDA_NORMERR_PC_SOLVE);
bool mat_solution = (param->solution_type == QUDA_MAT_SOLUTION) || (param->solution_type == QUDA_MATPC_SOLUTION);
bool direct_solve = (param->solve_type == QUDA_DIRECT_SOLVE) || (param->solve_type == QUDA_DIRECT_PC_SOLVE);
bool norm_error_solve = (param->solve_type == QUDA_NORMERR_SOLVE) || (param->solve_type == QUDA_NORMERR_PC_SOLVE);
if (pc_solution && !pc_solve) { errorQuda("Preconditioned (PC) solution_type requires a PC solve_type"); }
if (!mat_solution && !pc_solution && pc_solve) {
errorQuda("Unpreconditioned MATDAG_MAT solution_type requires an unpreconditioned solve_type");
}
if (!mat_solution && norm_error_solve) { errorQuda("Normal-error solve requires Mat solution"); }
if (param->inv_type_precondition == QUDA_MG_INVERTER && (!direct_solve || !mat_solution)) {
errorQuda("Multigrid preconditioning only supported for direct solves");
}
if (param->chrono_use_resident && (norm_error_solve)) {
errorQuda("Chronological forcasting only presently supported for M^dagger M solver");
}
if (param->chrono_make_resident && param->chrono_max_dim < 1) {
errorQuda("Cannot chrono_make_resident with chrono_max_dim %i", param->chrono_max_dim);
}
#endif
}
#if defined INIT_PARAM
QudaMultigridParam newQudaMultigridParam(void) {
QudaMultigridParam ret;
#elif defined CHECK_PARAM
static void checkMultigridParam(QudaMultigridParam *param) {
#else
void printQudaMultigridParam(QudaMultigridParam *param) {
printfQuda("QUDA Multigrid Parameters:\n");
#endif
#if defined CHECK_PARAM
if (param->struct_size != (size_t)INVALID_INT && param->struct_size != sizeof(*param))
errorQuda("Unexpected QudaMultigridParam struct size %lu, expected %lu", param->struct_size, sizeof(*param));
#else
P(struct_size, (size_t)INVALID_INT);
#endif
#ifdef INIT_PARAM
// do nothing
#elif defined CHECK_PARAM
checkInvertParam(param->invert_param);
#else
printQudaInvertParam(param->invert_param);
#endif
P(n_level, INVALID_INT);
#ifdef INIT_PARAM
int n_level = QUDA_MAX_MG_LEVEL;
#else
int n_level = param->n_level;
#endif
#ifdef INIT_PARAM
P(setup_type, QUDA_NULL_VECTOR_SETUP);
#else
P(setup_type, QUDA_INVALID_SETUP_TYPE);
#endif
#ifdef INIT_PARAM
P(pre_orthonormalize, QUDA_BOOLEAN_FALSE);
#else
P(pre_orthonormalize, QUDA_BOOLEAN_INVALID);
#endif
#ifdef INIT_PARAM
P(post_orthonormalize, QUDA_BOOLEAN_TRUE);
#else
P(post_orthonormalize, QUDA_BOOLEAN_INVALID);
#endif
for (int i=0; i<n_level; i++) {
#ifdef INIT_PARAM
P(verbosity[i], QUDA_SILENT);
#else
P(verbosity[i], QUDA_INVALID_VERBOSITY);
#endif
#ifdef INIT_PARAM
#ifdef QUDA_MMA_AVAILABLE
P(setup_use_mma[i], QUDA_BOOLEAN_TRUE);
#else
P(setup_use_mma[i], QUDA_BOOLEAN_FALSE);
#endif
P(dslash_use_mma[i], QUDA_BOOLEAN_FALSE);
#else
P(setup_use_mma[i], QUDA_BOOLEAN_INVALID);
P(dslash_use_mma[i], QUDA_BOOLEAN_INVALID);
#endif
#ifdef INIT_PARAM
P(setup_inv_type[i], QUDA_BICGSTAB_INVERTER);
#else
P(setup_inv_type[i], QUDA_INVALID_INVERTER);
#endif
#ifdef INIT_PARAM
P(num_setup_iter[i], 1);
#else
P(num_setup_iter[i], INVALID_INT);
#endif
#ifdef INIT_PARAM
P(use_eig_solver[i], QUDA_BOOLEAN_FALSE);
#else
P(use_eig_solver[i], QUDA_BOOLEAN_INVALID);
#endif
#ifdef INIT_PARAM
P(setup_tol[i], 5e-6);
P(setup_maxiter[i], 500);
P(setup_maxiter_refresh[i], 0);
#else
P(setup_tol[i], INVALID_DOUBLE);
P(setup_maxiter[i], INVALID_INT);
P(setup_maxiter_refresh[i], INVALID_INT);
#endif
#ifdef INIT_PARAM
P(setup_ca_basis[i], QUDA_POWER_BASIS);
P(setup_ca_basis_size[i], 4);
P(setup_ca_lambda_min[i], 0.0);
P(setup_ca_lambda_max[i], -1.0);
#else
P(setup_ca_basis[i], QUDA_INVALID_BASIS);
P(setup_ca_basis_size[i], INVALID_INT);
P(setup_ca_lambda_min[i], INVALID_DOUBLE);
P(setup_ca_lambda_max[i], INVALID_DOUBLE);
#endif
#ifdef INIT_PARAM
P(n_block_ortho[i], 1);
P(block_ortho_two_pass[i], QUDA_BOOLEAN_TRUE);
#else
P(n_block_ortho[i], INVALID_INT);
P(block_ortho_two_pass[i], QUDA_BOOLEAN_INVALID);
#endif
P(coarse_solver[i], QUDA_INVALID_INVERTER);
P(coarse_solver_maxiter[i], INVALID_INT);
P(smoother[i], QUDA_INVALID_INVERTER);
P(smoother_solve_type[i], QUDA_INVALID_SOLVE);
#ifdef INIT_PARAM
P(coarse_solver_ca_basis[i], QUDA_POWER_BASIS);
P(coarse_solver_ca_basis_size[i], 4);
P(coarse_solver_ca_lambda_min[i], 0.0);
P(coarse_solver_ca_lambda_max[i], -1.0);
#else
P(coarse_solver_ca_basis[i], QUDA_INVALID_BASIS);
P(coarse_solver_ca_basis_size[i], INVALID_INT);
P(coarse_solver_ca_lambda_min[i], INVALID_DOUBLE);
P(coarse_solver_ca_lambda_max[i], INVALID_DOUBLE);
#endif
#ifndef CHECK_PARAM
P(smoother_halo_precision[i], QUDA_INVALID_PRECISION);
P(smoother_schwarz_type[i], QUDA_INVALID_SCHWARZ);
P(smoother_schwarz_cycle[i], 1);
#else
P(smoother_schwarz_cycle[i], INVALID_INT);
#endif
// these parameters are not set for the bottom grid
if (i<n_level-1) {
for (int j=0; j<4; j++) P(geo_block_size[i][j], INVALID_INT);
P(spin_block_size[i], INVALID_INT);
#ifdef INIT_PARAM
P(precision_null[i], QUDA_SINGLE_PRECISION);
#else
P(precision_null[i], INVALID_INT);
#endif
P(cycle_type[i], QUDA_MG_CYCLE_INVALID);
P(nu_pre[i], INVALID_INT);
P(nu_post[i], INVALID_INT);
P(coarse_grid_solution_type[i], QUDA_INVALID_SOLUTION);
}
#ifdef INIT_PARAM
P(smoother_solver_ca_basis[i], QUDA_POWER_BASIS);
P(smoother_solver_ca_lambda_min[i], 0.0);
P(smoother_solver_ca_lambda_max[i], -1.0);
#else
P(smoother_solver_ca_basis[i], QUDA_INVALID_BASIS);
P(smoother_solver_ca_lambda_min[i], INVALID_DOUBLE);
P(smoother_solver_ca_lambda_max[i], INVALID_DOUBLE);
#endif
#ifdef INIT_PARAM
if (i < QUDA_MAX_MG_LEVEL) {
P(n_vec[i], INVALID_INT);
P(n_vec_batch[i], INVALID_INT);
}
#else
if (i < n_level-1) {
P(n_vec[i], INVALID_INT);
P(n_vec_batch[i], INVALID_INT);
}
#endif
#ifdef INIT_PARAM
P(transfer_type[i], QUDA_TRANSFER_AGGREGATE);
#else
P(transfer_type[i], QUDA_TRANSFER_INVALID);
#endif
#ifdef INIT_PARAM
P(mu_factor[i], 1);
#else