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Flatten subprojects into a single base monorepo
2026-09-02 16:34:47 -07:00

937 lines
40 KiB
C++

/* ************************************************************************
* Copyright (C) 2021-2025 Advanced Micro Devices, Inc. All rights reserved.
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell cop-
* ies of the Software, and to permit persons to whom the Software is furnished
* to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in all
* copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IM-
* PLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS
* FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR
* COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER
* IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNE-
* CTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.
*
*
* ************************************************************************ */
#pragma once
#include "clientcommon.hpp"
template <testAPI_t API, bool STRIDED, typename T, typename S, typename U>
void syevj_heevj_checkBadArgs(const hipsolverHandle_t handle,
const hipsolverEigMode_t evect,
const hipsolverFillMode_t uplo,
const int n,
T dA,
const int lda,
const int stA,
S dD,
const int stD,
T dWork,
const int lwork,
U dinfo,
const hipsolverSyevjInfo_t params,
const int bc)
{
// handle
EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
STRIDED,
nullptr,
evect,
uplo,
n,
dA,
lda,
stA,
dD,
stD,
dWork,
lwork,
dinfo,
params,
bc),
HIPSOLVER_STATUS_NOT_INITIALIZED);
// values
EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
STRIDED,
handle,
hipsolverEigMode_t(-1),
uplo,
n,
dA,
lda,
stA,
dD,
stD,
dWork,
lwork,
dinfo,
params,
bc),
HIPSOLVER_STATUS_INVALID_ENUM);
EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
hipsolverFillMode_t(-1),
n,
dA,
lda,
stA,
dD,
stD,
dWork,
lwork,
dinfo,
params,
bc),
HIPSOLVER_STATUS_INVALID_ENUM);
#if defined(__HIP_PLATFORM_HCC__) || defined(__HIP_PLATFORM_AMD__)
// pointers
EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
uplo,
n,
(T) nullptr,
lda,
stA,
dD,
stD,
dWork,
lwork,
dinfo,
params,
bc),
HIPSOLVER_STATUS_INVALID_VALUE);
EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
uplo,
n,
dA,
lda,
stA,
(S) nullptr,
stD,
dWork,
lwork,
dinfo,
params,
bc),
HIPSOLVER_STATUS_INVALID_VALUE);
EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
uplo,
n,
dA,
lda,
stA,
dD,
stD,
dWork,
lwork,
(U) nullptr,
params,
bc),
HIPSOLVER_STATUS_INVALID_VALUE);
#endif
}
template <testAPI_t API, bool BATCHED, bool STRIDED, typename T>
void testing_syevj_heevj_bad_arg()
{
using S = decltype(std::real(T{}));
// safe arguments
hipsolver_local_handle handle;
hipsolver_local_syevj_info params;
hipsolverEigMode_t evect = HIPSOLVER_EIG_MODE_NOVECTOR;
hipsolverFillMode_t uplo = HIPSOLVER_FILL_MODE_LOWER;
int n = 1;
int lda = 1;
int stA = 1;
int stD = 1;
int bc = 1;
if(BATCHED)
{
// // memory allocations
// device_batch_vector<T> dA(1, 1, 1);
// device_strided_batch_vector<S> dD(1, 1, 1, 1);
// device_strided_batch_vector<int> dinfo(1, 1, 1, 1);
// CHECK_HIP_ERROR(dA.memcheck());
// CHECK_HIP_ERROR(dD.memcheck());
// CHECK_HIP_ERROR(dinfo.memcheck());
// int size_W;
// hipsolver_syevj_heevj_bufferSize(
// API, handle, evect, uplo, n, dA.data(), lda, dD.data(), &size_W, params, bc);
// size_t bytes_W = std::getenv("HIPSOLVER_BUFFERSIZE_RETURN_BYTES") != nullptr ? size_W : sizeof(T) * size_W;
// device_strided_batch_vector<T> dWork(bytes_W, 1, bytes_W, 1);
// if(size_W)
// CHECK_HIP_ERROR(dWork.memcheck());
// // check bad arguments
// syevj_heevj_checkBadArgs<API, STRIDED>(handle,
// evect,
// uplo,
// n,
// dA.data(),
// lda,
// stA,
// dD.data(),
// stD,
// dWork.data(),
// size_W,
// dinfo.data(),
// params,
// bc);
}
else
{
// memory allocations
device_strided_batch_vector<T> dA(1, 1, 1, 1);
device_strided_batch_vector<S> dD(1, 1, 1, 1);
device_strided_batch_vector<int> dinfo(1, 1, 1, 1);
CHECK_HIP_ERROR(dA.memcheck());
CHECK_HIP_ERROR(dD.memcheck());
CHECK_HIP_ERROR(dinfo.memcheck());
int size_W;
hipsolver_syevj_heevj_bufferSize(
API, STRIDED, handle, evect, uplo, n, dA.data(), lda, dD.data(), &size_W, params, bc);
size_t bytes_W = std::getenv("HIPSOLVER_BUFFERSIZE_RETURN_BYTES") != nullptr
? size_W
: sizeof(T) * size_W;
device_strided_batch_vector<T> dWork(bytes_W, 1, bytes_W, 1);
if(size_W)
CHECK_HIP_ERROR(dWork.memcheck());
// check bad arguments
syevj_heevj_checkBadArgs<API, STRIDED>(handle,
evect,
uplo,
n,
dA.data(),
lda,
stA,
dD.data(),
stD,
dWork.data(),
size_W,
dinfo.data(),
params,
bc);
}
}
template <bool CPU, bool GPU, typename T, typename Td, typename Th>
void syevj_heevj_initData(const hipsolverHandle_t handle,
const hipsolverEigMode_t evect,
const int n,
Td& dA,
const int lda,
const int bc,
Th& hA,
std::vector<T>& A,
bool test = true)
{
if(CPU)
{
rocblas_init<T>(hA, true);
// scale A to avoid singularities
for(int b = 0; b < bc; ++b)
{
for(int i = 0; i < n; i++)
{
for(int j = 0; j < n; j++)
{
if(i == j)
hA[b][i + j * lda] += 400;
else
hA[b][i + j * lda] -= 4;
}
}
// make copy of original data to test vectors if required
if(test)
{
for(int i = 0; i < n; i++)
{
for(int j = 0; j < n; j++)
A[b * lda * n + i + j * lda] = hA[b][i + j * lda];
}
}
}
}
if(GPU)
{
// now copy to the GPU
CHECK_HIP_ERROR(dA.transfer_from(hA));
}
}
template <testAPI_t API,
bool STRIDED,
typename T,
typename Sd,
typename Td,
typename Id,
typename Sh,
typename Th,
typename Uh,
typename Ih>
void syevj_heevj_getError(const hipsolverHandle_t handle,
const hipsolverEigMode_t evect,
const hipsolverFillMode_t uplo,
const int n,
Td& dA,
const int lda,
const int stA,
Sd& dD,
const int stD,
Td& dWork,
const int lwork,
Id& dinfo,
hipsolverSyevjInfo_t params,
const double abstol,
const int max_sweeps,
const int sort_eig,
const int bc,
Th& hA,
Th& hAres,
Sh& hD,
Sh& hDres,
Ih& hinfo,
Ih& hinfoRes,
Uh& hResidualRes,
Ih& hSweepsRes,
double* max_err)
{
constexpr bool COMPLEX = is_complex<T>;
using S = decltype(std::real(T{}));
S atol = (abstol <= 0) ? get_epsilon<T>() : abstol;
int sizeE, ltwork;
if(!COMPLEX)
{
sizeE = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? 2 * n + 1 : 1 + 6 * n + 2 * n * n);
ltwork = 0;
}
else
{
sizeE = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? n : 1 + 5 * n + 2 * n * n);
ltwork = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? n + 1 : 2 * n + n * n);
}
int liwork = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? 1 : 3 + 5 * n);
std::vector<T> work(ltwork);
std::vector<S> hE(sizeE);
std::vector<int> iwork(liwork);
std::vector<T> A(lda * n * bc);
// input data initialization
syevj_heevj_initData<true, true, T>(handle, evect, n, dA, lda, bc, hA, A);
// execute computations
// GPU lapack
CHECK_ROCBLAS_ERROR(hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
uplo,
n,
dA.data(),
lda,
stA,
dD.data(),
stD,
dWork.data(),
lwork,
dinfo.data(),
params,
bc));
CHECK_HIP_ERROR(hDres.transfer_from(dD));
CHECK_HIP_ERROR(hinfoRes.transfer_from(dinfo));
if(evect == HIPSOLVER_EIG_MODE_VECTOR)
CHECK_HIP_ERROR(hAres.transfer_from(dA));
hipsolverXsyevjGetResidual(handle, params, hResidualRes.data());
hipsolverXsyevjGetSweeps(handle, params, hSweepsRes.data());
// CPU lapack
for(int b = 0; b < bc; ++b)
cpu_syevd_heevd(evect,
uplo,
n,
hA[b],
lda,
hD[b],
work.data(),
ltwork,
hE.data(),
sizeE,
iwork.data(),
liwork,
hinfo[b]);
// Check info for non-convergence
*max_err = 0;
for(int b = 0; b < bc; ++b)
{
EXPECT_EQ(hinfo[b][0], hinfoRes[b][0]) << "where b = " << b;
if(hinfo[b][0] != hinfoRes[b][0])
*max_err += 1;
}
if(!STRIDED)
{
// Also check validity of residual
for(rocblas_int b = 0; b < bc; ++b)
{
EXPECT_GE(hResidualRes[b][0], 0) << "where b = " << b;
if(hResidualRes[b][0] < 0)
*max_err += 1;
else
{
S threshold = snorm('F', n, n, A.data() + b * lda * n, lda) * atol;
EXPECT_LE(hResidualRes[b][0], threshold) << "where b = " << b;
if(hResidualRes[b][0] > threshold)
*max_err += 1;
}
}
// Also check validity of sweeps
for(rocblas_int b = 0; b < bc; ++b)
{
EXPECT_GE(hSweepsRes[b][0], 0) << "where b = " << b;
EXPECT_LE(hSweepsRes[b][0], max_sweeps) << "where b = " << b;
if(hSweepsRes[b][0] < 0 || hSweepsRes[b][0] > max_sweeps)
*max_err += 1;
}
}
double err = 0;
for(int b = 0; b < bc; ++b)
{
if(evect != HIPSOLVER_EIG_MODE_VECTOR)
{
// only eigenvalues needed; can compare with LAPACK
// error is ||hD - hDRes|| / ||hD||
// using frobenius norm
if(hinfo[b][0] == 0 && sort_eig)
err = norm_error('F', 1, n, 1, hD[b], hDres[b]);
*max_err = err > *max_err ? err : *max_err;
}
else
{
// both eigenvalues and eigenvectors needed; need to implicitly test
// eigenvectors due to non-uniqueness of eigenvectors under scaling
if(hinfo[b][0] == 0)
{
// multiply A with each of the n eigenvectors and divide by corresponding
// eigenvalues
T alpha;
T beta = 0;
for(int j = 0; j < n; j++)
{
alpha = T(1) / hDres[b][j];
cpu_symv_hemv(uplo,
n,
alpha,
A.data() + b * lda * n,
lda,
hAres[b] + j * lda,
1,
beta,
hA[b] + j * lda,
1);
}
// error is ||hA - hARes|| / ||hA||
// using frobenius norm
err = norm_error('F', n, n, lda, hA[b], hAres[b]);
*max_err = err > *max_err ? err : *max_err;
}
}
}
}
template <testAPI_t API,
bool STRIDED,
typename T,
typename Sd,
typename Td,
typename Id,
typename Sh,
typename Th,
typename Ih>
void syevj_heevj_getPerfData(const hipsolverHandle_t handle,
const hipsolverEigMode_t evect,
const hipsolverFillMode_t uplo,
const int n,
Td& dA,
const int lda,
const int stA,
Sd& dD,
const int stD,
Td& dWork,
const int lwork,
Id& dinfo,
hipsolverSyevjInfo_t params,
const int bc,
Th& hA,
Sh& hD,
Ih& hinfo,
double* gpu_time_used,
double* cpu_time_used,
const int hot_calls,
const bool perf)
{
constexpr bool COMPLEX = is_complex<T>;
using S = decltype(std::real(T{}));
int sizeE, ltwork;
if(!COMPLEX)
{
sizeE = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? 2 * n + 1 : 1 + 6 * n + 2 * n * n);
ltwork = 0;
}
else
{
sizeE = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? n : 1 + 5 * n + 2 * n * n);
ltwork = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? n + 1 : 2 * n + n * n);
}
int liwork = (evect == HIPSOLVER_EIG_MODE_NOVECTOR ? 1 : 3 + 5 * n);
std::vector<T> work(ltwork);
std::vector<S> hE(sizeE);
std::vector<int> iwork(liwork);
std::vector<T> A;
if(!perf)
{
syevj_heevj_initData<true, false, T>(handle, evect, n, dA, lda, bc, hA, A, 0);
// cpu-lapack performance (only if not in perf mode)
*cpu_time_used = get_time_us_no_sync();
for(int b = 0; b < bc; ++b)
cpu_syevd_heevd(evect,
uplo,
n,
hA[b],
lda,
hD[b],
work.data(),
ltwork,
hE.data(),
sizeE,
iwork.data(),
liwork,
hinfo[b]);
*cpu_time_used = get_time_us_no_sync() - *cpu_time_used;
}
syevj_heevj_initData<true, false, T>(handle, evect, n, dA, lda, bc, hA, A, 0);
// cold calls
for(int iter = 0; iter < 2; iter++)
{
syevj_heevj_initData<false, true, T>(handle, evect, n, dA, lda, bc, hA, A, 0);
CHECK_ROCBLAS_ERROR(hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
uplo,
n,
dA.data(),
lda,
stA,
dD.data(),
stD,
dWork.data(),
lwork,
dinfo.data(),
params,
bc));
}
// gpu-lapack performance
hipStream_t stream;
CHECK_ROCBLAS_ERROR(hipsolverGetStream(handle, &stream));
double start;
for(int iter = 0; iter < hot_calls; iter++)
{
syevj_heevj_initData<false, true, T>(handle, evect, n, dA, lda, bc, hA, A, 0);
start = get_time_us_sync(stream);
hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
uplo,
n,
dA.data(),
lda,
stA,
dD.data(),
stD,
dWork.data(),
lwork,
dinfo.data(),
params,
bc);
*gpu_time_used += get_time_us_sync(stream) - start;
}
*gpu_time_used /= hot_calls;
}
template <testAPI_t API, bool BATCHED, bool STRIDED, typename T>
void testing_syevj_heevj(Arguments& argus)
{
using S = decltype(std::real(T{}));
// get arguments
hipsolver_local_handle handle;
hipsolver_local_syevj_info params;
char evectC = argus.get<char>("jobz");
char uploC = argus.get<char>("uplo");
int n = argus.get<int>("n");
int lda = argus.get<int>("lda", n);
int stA = lda * n;
int stD = n;
double abstol = argus.get<double>("tolerance", 2 * get_epsilon<T>());
rocblas_int max_sweeps = argus.get<int>("max_sweeps", 100);
rocblas_int sort_eig = argus.get<int>("sort_eig", 1);
hipsolverXsyevjSetTolerance(params, abstol);
hipsolverXsyevjSetMaxSweeps(params, max_sweeps);
hipsolverXsyevjSetSortEig(params, sort_eig);
hipsolverEigMode_t evect = char2hipsolver_evect(evectC);
hipsolverFillMode_t uplo = char2hipsolver_fill(uploC);
int bc = argus.batch_count;
int hot_calls = argus.iters;
// determine sizes
size_t size_A = size_t(lda) * n;
size_t size_D = n;
size_t size_Ares = (argus.unit_check || argus.norm_check) ? size_A : 0;
size_t size_Dres = (argus.unit_check || argus.norm_check) ? size_D : 0;
double max_error = 0, gpu_time_used = 0, cpu_time_used = 0;
// check invalid sizes
bool invalid_size = (n < 0 || lda < n || bc < 0);
if(invalid_size)
{
if(BATCHED)
{
// EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
// STRIDED,
// handle,
// evect,
// uplo,
// n,
// (T* const*)nullptr,
// lda,
// stA,
// (S*)nullptr,
// stD,
// (T*)nullptr,
// 0,
// (int*)nullptr,
// params,
// bc),
// HIPSOLVER_STATUS_INVALID_VALUE);
}
else
{
EXPECT_ROCBLAS_STATUS(hipsolver_syevj_heevj(API,
STRIDED,
handle,
evect,
uplo,
n,
(T*)nullptr,
lda,
stA,
(S*)nullptr,
stD,
(T*)nullptr,
0,
(int*)nullptr,
params,
bc),
HIPSOLVER_STATUS_INVALID_VALUE);
}
if(argus.timing)
rocsolver_bench_inform(inform_invalid_size);
return;
}
// memory size query is necessary
int size_W;
hipsolver_syevj_heevj_bufferSize(
API, STRIDED, handle, evect, uplo, n, (T*)nullptr, lda, (S*)nullptr, &size_W, params, bc);
size_t bytes_W
= std::getenv("HIPSOLVER_BUFFERSIZE_RETURN_BYTES") != nullptr ? size_W : sizeof(T) * size_W;
if(argus.mem_query)
{
rocsolver_bench_inform(inform_mem_query, bytes_W);
return;
}
// memory allocations (all cases)
// host
host_strided_batch_vector<double> hResidualRes(1, 1, 1, bc);
host_strided_batch_vector<int> hSweepsRes(1, 1, 1, bc);
host_strided_batch_vector<S> hD(size_D, 1, stD, bc);
host_strided_batch_vector<int> hinfo(1, 1, 1, bc);
host_strided_batch_vector<int> hinfoRes(1, 1, 1, bc);
host_strided_batch_vector<S> hDres(size_Dres, 1, stD, bc);
// device
device_strided_batch_vector<S> dD(size_D, 1, stD, bc);
device_strided_batch_vector<int> dinfo(1, 1, 1, bc);
device_strided_batch_vector<T> dWork(bytes_W, 1, bytes_W, 1); // bytes_W accounts for bc
if(size_D)
CHECK_HIP_ERROR(dD.memcheck());
CHECK_HIP_ERROR(dinfo.memcheck());
if(size_W)
CHECK_HIP_ERROR(dWork.memcheck());
if(BATCHED)
{
// // memory allocations
// host_batch_vector<T> hA(size_A, 1, bc);
// host_batch_vector<T> hAres(size_Ares, 1, bc);
// device_batch_vector<T> dA(size_A, 1, bc);
// if(size_A)
// CHECK_HIP_ERROR(dA.memcheck());
// // check computations
// if(argus.unit_check || argus.norm_check)
// {
// syevj_heevj_getError<API, STRIDED, T>(handle,
// evect,
// uplo,
// n,
// dA,
// lda,
// stA,
// dD,
// stD,
// dWork,
// size_W,
// dinfo,
// params,
// abstol,
// max_sweeps,
// sort_eig,
// bc,
// hA,
// hAres,
// hD,
// hDres,
// hinfo,
// hinfoRes,
// hResidualRes,
// hSweepsRes,
// &max_error);
// }
// // collect performance data
// if(argus.timing)
// {
// syevj_heevj_getPerfData<API, STRIDED, T>(handle,
// evect,
// uplo,
// n,
// dA,
// lda,
// stA,
// dD,
// stD,
// dWork,
// size_W,
// dinfo,
// params,
// bc,
// hA,
// hD,
// hinfo,
// &gpu_time_used,
// &cpu_time_used,
// hot_calls,
// argus.perf);
// }
}
else
{
// memory allocations
host_strided_batch_vector<T> hA(size_A, 1, stA, bc);
host_strided_batch_vector<T> hAres(size_Ares, 1, stA, bc);
device_strided_batch_vector<T> dA(size_A, 1, stA, bc);
if(size_A)
CHECK_HIP_ERROR(dA.memcheck());
// check computations
if(argus.unit_check || argus.norm_check)
{
syevj_heevj_getError<API, STRIDED, T>(handle,
evect,
uplo,
n,
dA,
lda,
stA,
dD,
stD,
dWork,
size_W,
dinfo,
params,
abstol,
max_sweeps,
sort_eig,
bc,
hA,
hAres,
hD,
hDres,
hinfo,
hinfoRes,
hResidualRes,
hSweepsRes,
&max_error);
}
// collect performance data
if(argus.timing)
{
syevj_heevj_getPerfData<API, STRIDED, T>(handle,
evect,
uplo,
n,
dA,
lda,
stA,
dD,
stD,
dWork,
size_W,
dinfo,
params,
bc,
hA,
hD,
hinfo,
&gpu_time_used,
&cpu_time_used,
hot_calls,
argus.perf);
}
}
// validate results for rocsolver-test
// using 4 * n * machine_precision as tolerance
if(argus.unit_check)
ROCSOLVER_TEST_CHECK(T, max_error, 4 * n);
// output results for rocsolver-bench
if(argus.timing)
{
if(!argus.perf)
{
std::cerr << "\n============================================\n";
std::cerr << "Arguments:\n";
std::cerr << "============================================\n";
if(BATCHED)
{
rocsolver_bench_output("jobz",
"uplo",
"n",
"lda",
"strideD",
"tolerance",
"max_sweeps",
"sort_eig",
"batch_c");
rocsolver_bench_output(
evectC, uploC, n, lda, stD, abstol, max_sweeps, sort_eig, bc);
}
else if(STRIDED)
{
rocsolver_bench_output("jobz",
"uplo",
"n",
"lda",
"strideA",
"strideD",
"tolerance",
"max_sweeps",
"sort_eig",
"batch_c");
rocsolver_bench_output(
evectC, uploC, n, lda, stA, stD, abstol, max_sweeps, sort_eig, bc);
}
else
{
rocsolver_bench_output(
"jobz", "uplo", "n", "lda", "tolerance", "max_sweeps", "sort_eig");
rocsolver_bench_output(evectC, uploC, n, lda, abstol, max_sweeps, sort_eig);
}
std::cerr << "\n============================================\n";
std::cerr << "Results:\n";
std::cerr << "============================================\n";
if(argus.norm_check)
{
rocsolver_bench_output("cpu_time", "gpu_time", "error");
rocsolver_bench_output(cpu_time_used, gpu_time_used, max_error);
}
else
{
rocsolver_bench_output("cpu_time", "gpu_time");
rocsolver_bench_output(cpu_time_used, gpu_time_used);
}
std::cerr << std::endl;
}
else
{
if(argus.norm_check)
rocsolver_bench_output(gpu_time_used, max_error);
else
rocsolver_bench_output(gpu_time_used);
}
}
// ensure all arguments were consumed
argus.validate_consumed();
}