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#include <m4rie/m4rie.h>
#include "cpucycles.h"
#include "benchmarking.h"
struct elim_params {
rci_t e;
rci_t m;
rci_t n;
char const *matrix_type;
char const *direction;
char const *algorithm;
rci_t cutoff;
};
int run_mzed(void *_p, unsigned long long *data, int *data_len) {
struct elim_params *p = (struct elim_params *)_p;
*data_len = 2;
gf2e *ff = gf2e_init(irreducible_polynomials[p->e][1]);
mzed_t *A = mzed_init(ff,p->m,p->m);
mzed_randomize(A);
const int bitmask = (1<<ff->degree)-1;
for(rci_t i=0; i<p->m; i++) {
while(mzed_read_elem(A, i, i) == 0) {
mzed_write_elem(A, i, i, random()&bitmask) ;
}
};
mzed_t *B = mzed_init(ff,p->m,p->n);
mzed_randomize(B);
data[0] = walltime(0);
data[1] = cpucycles();
if (strcmp(p->direction,"lower_left")==0) {
if(strcmp(p->algorithm,"naive")==0)
mzed_trsm_lower_left_naive(A, B);
else if(strcmp(p->algorithm,"newton-john")==0)
mzed_trsm_lower_left_newton_john(A, B);
else
_mzed_trsm_lower_left(A, B, p->cutoff);
} else if (strcmp(p->direction,"upper_left")==0) {
if(strcmp(p->algorithm,"naive")==0)
mzed_trsm_upper_left_naive(A, B);
else if(strcmp(p->algorithm,"newton-john")==0)
mzed_trsm_upper_left_newton_john(A, B);
else
_mzed_trsm_upper_left(A, B, p->cutoff);
} else {
m4ri_die("unknown direction");
}
data[1] = cpucycles() - data[1];
data[0] = walltime(data[0]);
mzed_free(A);
mzed_free(B);
gf2e_free(ff);
return 0;
}
int run_mzd_slice(void *_p, unsigned long long *data, int *data_len) {
struct elim_params *p = (struct elim_params *)_p;
*data_len = 2;
gf2e *ff = gf2e_init(irreducible_polynomials[p->e][1]);
mzd_slice_t *A = mzd_slice_init(ff,p->m,p->m);
mzd_slice_randomize(A);
const int bitmask = (1<<ff->degree)-1;
for(rci_t i=0; i<p->m; i++) {
while(mzd_slice_read_elem(A, i, i) == 0) {
mzd_slice_write_elem(A, i, i, random()&bitmask) ;
}
};
mzd_slice_t *B = mzd_slice_init(ff,p->m,p->n);
mzd_slice_randomize(B);
data[0] = walltime(0);
data[1] = cpucycles();
if (strcmp(p->direction,"lower_left")==0) {
if(strcmp(p->algorithm,"naive")==0)
mzd_slice_trsm_lower_left_naive(A, B);
else if(strcmp(p->algorithm,"newton-john")==0)
mzd_slice_trsm_lower_left_newton_john(A, B);
else
_mzd_slice_trsm_lower_left(A, B, p->cutoff);
} else if (strcmp(p->direction,"upper_left")==0) {
if(strcmp(p->algorithm,"naive")==0)
mzd_slice_trsm_upper_left_naive(A, B);
else if(strcmp(p->algorithm,"newton-john")==0)
mzd_slice_trsm_upper_left_newton_john(A, B);
else
_mzd_slice_trsm_upper_left(A, B, p->cutoff);
} else {
m4ri_die("unknown direction");
}
data[1] = cpucycles() - data[1];
data[0] = walltime(data[0]);
mzd_slice_free(A);
mzd_slice_free(B);
gf2e_free(ff);
return 0;
}
void print_help() {
printf("bench_trsm:\n\n");
printf("REQUIRED\n");
printf(" e -- integer between 2 and 10\n");
printf(" m -- integer > 0, dimension of U or L\n");
printf(" n -- integer > 0\n");
printf(" matrix_type - mzed_t\n");
printf(" - mzd_slice_t\n");
printf(" direction - lower_left\n");
printf(" - upper_left\n");
printf(" algorithm -- default\n");
printf(" naive\n");
printf(" c -- cutoff (for 'default')\n");
printf("\n");
bench_print_global_options(stdout);
}
int main(int argc, char **argv) {
global_options(&argc, &argv);
if (argc < 6) {
print_help();
m4ri_die("");
}
struct elim_params params;
params.e = atoi(argv[1]);
params.m = atoi(argv[2]);
params.n = atoi(argv[3]);
params.matrix_type = argv[4];
params.direction = argv[5];
if (strcmp(params.direction,"lower_left") != 0 && strcmp(params.direction,"upper_left") != 0)
m4ri_die("not implemented.");
if (argc >= 7)
params.algorithm = argv[6];
else
params.algorithm = (char*)"default";
if (argc >= 8)
params.cutoff = atoi(argv[7]);
else
params.cutoff = MZED_TRSM_CUTOFF;
srandom(17);
unsigned long long data[2];
if (strcmp(params.matrix_type,"mzed_t") == 0)
run_bench(run_mzed, (void*)¶ms, data, 2);
else if(strcmp(params.matrix_type,"mzd_slice_t") == 0)
run_bench(run_mzd_slice, (void*)¶ms, data, 2);
else
m4ri_die("unknown type '%s'",params.matrix_type);
double cc_per_op = ((double)data[1])/ ( powl((double)params.m,__M4RIE_OMEGA-1) * params.n );
printf("e: %2d, m: %5d, n: %5d, cutoff: %4d, cpu cycles: %10llu, cc/(mmn^0.807): %.5lf, wall time: %lf\n", params.e, params.m, params.n, params.cutoff, data[1], cc_per_op, data[0] / 1000000.0);
}
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