int tc_against_gold_v(struct ut_suite *suite, struct ut_tcase *tcase)
{
size_t i;
/* Skip test if we're generation gold data */
if (generate_gold_flag)
return UT_SKIP;
for (i = 0; i < gold_size; i++) {
#if IS_UNARY
ut_assert_msg(compare(res[i], gold[i].gold), "%s(%f): %f != %f",
XSTRING(FUNCTION), ai[i], res[i], gold[i].gold);
#else
ut_assert_msg(compare(res[i], gold[i].gold), "%s(%f, %f): %f != %f",
XSTRING(FUNCTION), ai[i], bi[i], res[i], gold[i].gold);
#endif
#ifdef SCALAR_OUTPUT /* Scalar output so only first address is valid */
i++;
break;
#endif
}
ut_assert_msg(res[i] == OUTPUT_END_MARKER,
"Output end marker was overwritten");
return 0;
}
int tc_against_gold_v(struct ut_suite *suite, struct ut_tcase *tcase)
{
size_t i;
for (i = 0; i < ARRAY_SIZE(out1); i++) {
ut_assert_msg(check_data(test_out1[i], out1[i], MAX_REL_DIFF) == OK,
"p_xcorr_f32() Test 1: Large diff for index: %d, ref: %f, test: %f, rel: %f\n",
i, out1[i], test_out1[i], test_out1[i]/out1[i]);
}
for (i = 0; i < ARRAY_SIZE(out2); i++) {
ut_assert_msg(check_data(test_out2[i], out2[i], MAX_REL_DIFF) == OK,
"p_xcorr_f32() Test 1: Large diff for index: %d, ref: %f, test: %f, rel: %f\n",
i, out2[i], test_out2[i], test_out2[i]/out2[i]);
}
#if 0
// This test is not used, since the code today requires nx >= ny
for (i = 0; i < ARRAY_SIZE(out3); i++) {
ut_assert_msg(check_data(test_out3[i], out3[i], MAX_REL_DIFF) == OK,
"p_xcorr_f32() Test 1: Large diff for index: %d, ref: %f, test: %f, rel: %f\n",
i, out3[i], test_out3[i], test_out3[i]/out3[i]);
}
#endif
return 0;
}
int tc_against_gold_v(struct ut_suite *suite, struct ut_tcase *tcase)
{
size_t i;
for (i = 0; i < ARRAY_SIZE(expected); i++) {
ut_assert_msg(compare(test_out[i], expected[i]),
"p_box3x3_f32(): Large diff for index: %d, ref: %f, test: %f, diff: %f\n",
i, expected[i], test_out[i], expected[i]-test_out[i]);
}
ut_assert_msg((*(int*)(&test_out[ARRAY_SIZE(test_out) - 1]) == CANARY),
"p_box3x3_f32(): CANARY overwritten\n");
return 0;
}
int tc_against_ref_v(struct ut_suite *suite, struct ut_tcase *tcase)
{
size_t i;
for (i = 0; i < gold_size; i++) {
ut_assert_msg(compare(resSin[i], sinf(gold[i].ai)),
"p_sincos_f32(%f): sin: %f != %f",
ai[i], resSin[i], sinf(gold[i].ai));
ut_assert_msg(compare(resCos[i], cosf(gold[i].ai)),
"p_sincos_f32(%f): cos: %f != %f",
ai[i], resCos[i], cosf(gold[i].ai));
}
return 0;
}
int tc_against_gold_v(struct ut_suite *suite, struct ut_tcase *tcase)
{
size_t i;
for (i = 0; i < gold_size; i++) {
ut_assert_msg(compare(resSin[i], gold[i].bi),
"p_sincos(%f): sin: %f != %f",
ai[i], resSin[i], gold[i].bi);
ut_assert_msg(compare(resCos[i], gold[i].gold),
"p_sincos(%f): cos: %f != %f",
ai[i], resCos[i], gold[i].gold);
}
ut_assert_msg(resSin[i] == OUTPUT_END_MARKER,
"Output end marker was overwritten");
ut_assert_msg(resCos[i] == OUTPUT_END_MARKER,
"Output end marker was overwritten");
return 0;
}
int tc_against_gold_v(struct ut_suite *suite, struct ut_tcase *tcase)
{
size_t i;
for ( i = 0; i < out_size; i++ ) {
ut_assert_msg((check_data(test_out[i], out[i], MAX_REL_DIFF) == OK),
"p_rgb2greyscale_f32(): Large diff for index: %d, ref: %f, test: %f, rel: %f\n",
i, out[i], test_out[i], out[i]/test_out[i]);
}
return 0;
}
int tc_against_ref_v(struct ut_suite *suite, struct ut_tcase *tcase)
{
size_t i;
generate_ref(ref, gold_size);
for (i = 0; i < gold_size; i++) {
#if IS_UNARY
ut_assert_msg(compare(res[i], ref[i]), "%s(%f): %f != %f",
XSTRING(FUNCTION), ai[i], res[i], ref[i]);
#else
ut_assert_msg(compare(res[i], ref[i]), "%s(%f, %f): %f != %f",
XSTRING(FUNCTION), ai[i], bi[i], res[i], ref[i]);
#endif
#ifdef SCALAR_OUTPUT /* Scalar output so only first address is valid */
i++;
break;
#endif
}
return 0;
}
