/* * Copyright (c) 2012 The WebM project authors. All Rights Reserved. * * Use of this source code is governed by a BSD-style license * that can be found in the LICENSE file in the root of the source * tree. An additional intellectual property rights grant can be found * in the file PATENTS. All contributing project authors may * be found in the AUTHORS file in the root of the source tree. */ #include <math.h>#include <stdlib.h>#include <string.h>#include <tuple> #include "third_party/googletest/src/include/gtest/gtest.h" #include "./vp9_rtcd.h"#include "./vpx_config.h"#include "./vpx_dsp_rtcd.h"#include "test/acm_random.h"#include "test/bench.h"#include "test/clear_system_state.h"#include "test/register_state_check.h"#include "test/util.h"#include "vp9/common/vp9_entropy.h"#include "vpx/vpx_codec.h"#include "vpx/vpx_integer.h"#include "vpx_ports/mem.h"#include "vpx_ports/msvc.h" // for round() using libvpx_test::ACMRandom; namespace { const int kNumCoeffs = 1024;const double kPi = 3.141592653589793238462643383279502884;void reference_32x32_dct_1d(const double in[32], double out[32]) { const double kInvSqrt2 = 0.707106781186547524400844362104; for (int k = 0; k < 32; k++) { out[k] = 0.0; for (int n = 0; n < 32; n++) { out[k] += in[n] * cos(kPi * (2 * n + 1) * k / 64.0); } if (k == 0) out[k] = out[k] * kInvSqrt2; }} void reference_32x32_dct_2d(const int16_t input[kNumCoeffs], double output[kNumCoeffs]) { // First transform columns for (int i = 0; i < 32; ++i) { double temp_in[32], temp_out[32]; for (int j = 0; j < 32; ++j) temp_in[j] = input[j * 32 + i]; reference_32x32_dct_1d(temp_in, temp_out); for (int j = 0; j < 32; ++j) output[j * 32 + i] = temp_out[j]; } // Then transform rows for (int i = 0; i < 32; ++i) { double temp_in[32], temp_out[32]; for (int j = 0; j < 32; ++j) temp_in[j] = output[j + i * 32]; reference_32x32_dct_1d(temp_in, temp_out); // Scale by some magic number for (int j = 0; j < 32; ++j) output[j + i * 32] = temp_out[j] / 4; }} typedef void (*FwdTxfmFunc)(const int16_t *in, tran_low_t *out, int stride);typedef void (*InvTxfmFunc)(const tran_low_t *in, uint8_t *out, int stride); typedef std::tuple<FwdTxfmFunc, InvTxfmFunc, int, vpx_bit_depth_t> Trans32x32Param; #if CONFIG_VP9_HIGHBITDEPTHvoid idct32x32_10(const tran_low_t *in, uint8_t *out, int stride) { vpx_highbd_idct32x32_1024_add_c(in, CAST_TO_SHORTPTR(out), stride, 10);} void idct32x32_12(const tran_low_t *in, uint8_t *out, int stride) { vpx_highbd_idct32x32_1024_add_c(in, CAST_TO_SHORTPTR(out), stride, 12);}#endif // CONFIG_VP9_HIGHBITDEPTH class Trans32x32Test : public AbstractBench, public ::testing::TestWithParam<Trans32x32Param> { public: virtual ~Trans32x32Test() {} virtual void SetUp() { fwd_txfm_ = GET_PARAM(0); inv_txfm_ = GET_PARAM(1); version_ = GET_PARAM(2); // 0: high precision forward transform // 1: low precision version for rd loop bit_depth_ = GET_PARAM(3); mask_ = (1 << bit_depth_) - 1; } virtual void TearDown() { libvpx_test::ClearSystemState(); } protected: int version_; vpx_bit_depth_t bit_depth_; int mask_; FwdTxfmFunc fwd_txfm_; InvTxfmFunc inv_txfm_; int16_t *bench_in_; tran_low_t *bench_out_; virtual void Run();}; void Trans32x32Test::Run() { fwd_txfm_(bench_in_, bench_out_, 32); } TEST_P(Trans32x32Test, AccuracyCheck) { ACMRandom rnd(ACMRandom::DeterministicSeed()); uint32_t max_error = 0; int64_t total_error = 0; const int count_test_block = 10000; DECLARE_ALIGNED(16, int16_t, test_input_block[kNumCoeffs]); DECLARE_ALIGNED(16, tran_low_t, test_temp_block[kNumCoeffs]); DECLARE_ALIGNED(16, uint8_t, dst[kNumCoeffs]); DECLARE_ALIGNED(16, uint8_t, src[kNumCoeffs]);#if CONFIG_VP9_HIGHBITDEPTH DECLARE_ALIGNED(16, uint16_t, dst16[kNumCoeffs]); DECLARE_ALIGNED(16, uint16_t, src16[kNumCoeffs]);#endif for (int i = 0; i < count_test_block; ++i) { // Initialize a test block with input range [-mask_, mask_]. for (int j = 0; j < kNumCoeffs; ++j) { if (bit_depth_ == VPX_BITS_8) { src[j] = rnd.Rand8(); dst[j] = rnd.Rand8(); test_input_block[j] = src[j] - dst[j];#if CONFIG_VP9_HIGHBITDEPTH } else { src16[j] = rnd.Rand16() & mask_; dst16[j] = rnd.Rand16() & mask_; test_input_block[j] = src16[j] - dst16[j];#endif } } ASM_REGISTER_STATE_CHECK(fwd_txfm_(test_input_block, test_temp_block, 32)); if (bit_depth_ == VPX_BITS_8) { ASM_REGISTER_STATE_CHECK(inv_txfm_(test_temp_block, dst, 32));#if CONFIG_VP9_HIGHBITDEPTH } else { ASM_REGISTER_STATE_CHECK( inv_txfm_(test_temp_block, CAST_TO_BYTEPTR(dst16), 32));#endif } for (int j = 0; j < kNumCoeffs; ++j) {#if CONFIG_VP9_HIGHBITDEPTH const int32_t diff = bit_depth_ == VPX_BITS_8 ? dst[j] - src[j] : dst16[j] - src16[j];#else const int32_t diff = dst[j] - src[j];#endif const uint32_t error = diff * diff; if (max_error < error) max_error = error; total_error += error; } } if (version_ == 1) { max_error /= 2; total_error /= 45; } EXPECT_GE(1u << 2 * (bit_depth_ - 8), max_error) << "Error: 32x32 FDCT/IDCT has an individual round-trip error > 1"; EXPECT_GE(count_test_block << 2 * (bit_depth_ - 8), total_error) << "Error: 32x32 FDCT/IDCT has average round-trip error > 1 per block";} TEST_P(Trans32x32Test, CoeffCheck) { ACMRandom rnd(ACMRandom::DeterministicSeed()); const int count_test_block = 1000; DECLARE_ALIGNED(16, int16_t, input_block[kNumCoeffs]); DECLARE_ALIGNED(16, tran_low_t, output_ref_block[kNumCoeffs]); DECLARE_ALIGNED(16, tran_low_t, output_block[kNumCoeffs]); for (int i = 0; i < count_test_block; ++i) { for (int j = 0; j < kNumCoeffs; ++j) { input_block[j] = (rnd.Rand16() & mask_) - (rnd.Rand16() & mask_); } const int stride = 32; vpx_fdct32x32_c(input_block, output_ref_block, stride); ASM_REGISTER_STATE_CHECK(fwd_txfm_(input_block, output_block, stride)); if (version_ == 0) { for (int j = 0; j < kNumCoeffs; ++j) EXPECT_EQ(output_block[j], output_ref_block[j]) << "Error: 32x32 FDCT versions have mismatched coefficients"; } else { for (int j = 0; j < kNumCoeffs; ++j) EXPECT_GE(6, abs(output_block[j] - output_ref_block[j])) << "Error: 32x32 FDCT rd has mismatched coefficients"; } }} TEST_P(Trans32x32Test, MemCheck) { ACMRandom rnd(ACMRandom::DeterministicSeed()); const int count_test_block = 2000; DECLARE_ALIGNED(16, int16_t, input_extreme_block[kNumCoeffs]); DECLARE_ALIGNED(16, tran_low_t, output_ref_block[kNumCoeffs]); DECLARE_ALIGNED(16, tran_low_t, output_block[kNumCoeffs]); for (int i = 0; i < count_test_block; ++i) { // Initialize a test block with input range [-mask_, mask_]. for (int j = 0; j < kNumCoeffs; ++j) { input_extreme_block[j] = rnd.Rand8() & 1 ? mask_ : -mask_; } if (i == 0) { for (int j = 0; j < kNumCoeffs; ++j) input_extreme_block[j] = mask_; } else if (i == 1) { for (int j = 0; j < kNumCoeffs; ++j) input_extreme_block[j] = -mask_; } const int stride = 32; vpx_fdct32x32_c(input_extreme_block, output_ref_block, stride); ASM_REGISTER_STATE_CHECK( fwd_txfm_(input_extreme_block, output_block, stride)); // The minimum quant value is 4. for (int j = 0; j < kNumCoeffs; ++j) { if (version_ == 0) { EXPECT_EQ(output_block[j], output_ref_block[j]) << "Error: 32x32 FDCT versions have mismatched coefficients"; } else { EXPECT_GE(6, abs(output_block[j] - output_ref_block[j])) << "Error: 32x32 FDCT rd has mismatched coefficients"; } EXPECT_GE(4 * DCT_MAX_VALUE << (bit_depth_ - 8), abs(output_ref_block[j])) << "Error: 32x32 FDCT C has coefficient larger than 4*DCT_MAX_VALUE"; EXPECT_GE(4 * DCT_MAX_VALUE << (bit_depth_ - 8), abs(output_block[j])) << "Error: 32x32 FDCT has coefficient larger than " << "4*DCT_MAX_VALUE"; } }} TEST_P(Trans32x32Test, DISABLED_Speed) { ACMRandom rnd(ACMRandom::DeterministicSeed()); DECLARE_ALIGNED(16, int16_t, input_extreme_block[kNumCoeffs]); DECLARE_ALIGNED(16, tran_low_t, output_block[kNumCoeffs]); bench_in_ = input_extreme_block; bench_out_ = output_block; RunNTimes(INT16_MAX); PrintMedian("32x32");} TEST_P(Trans32x32Test, InverseAccuracy) { ACMRandom rnd(ACMRandom::DeterministicSeed()); const int count_test_block = 1000; DECLARE_ALIGNED(16, int16_t, in[kNumCoeffs]); DECLARE_ALIGNED(16, tran_low_t, coeff[kNumCoeffs]); DECLARE_ALIGNED(16, uint8_t, dst[kNumCoeffs]); DECLARE_ALIGNED(16, uint8_t, src[kNumCoeffs]);#if CONFIG_VP9_HIGHBITDEPTH DECLARE_ALIGNED(16, uint16_t, dst16[kNumCoeffs]); DECLARE_ALIGNED(16, uint16_t, src16[kNumCoeffs]);#endif for (int i = 0; i < count_test_block; ++i) { double out_r[kNumCoeffs]; // Initialize a test block with input range [-255, 255] for (int j = 0; j < kNumCoeffs; ++j) { if (bit_depth_ == VPX_BITS_8) { src[j] = rnd.Rand8(); dst[j] = rnd.Rand8(); in[j] = src[j] - dst[j];#if CONFIG_VP9_HIGHBITDEPTH } else { src16[j] = rnd.Rand16() & mask_; dst16[j] = rnd.Rand16() & mask_; in[j] = src16[j] - dst16[j];#endif } } reference_32x32_dct_2d(in, out_r); for (int j = 0; j < kNumCoeffs; ++j) { coeff[j] = static_cast<tran_low_t>(round(out_r[j])); } if (bit_depth_ == VPX_BITS_8) { ASM_REGISTER_STATE_CHECK(inv_txfm_(coeff, dst, 32));#if CONFIG_VP9_HIGHBITDEPTH } else { ASM_REGISTER_STATE_CHECK(inv_txfm_(coeff, CAST_TO_BYTEPTR(dst16), 32));#endif } for (int j = 0; j < kNumCoeffs; ++j) {#if CONFIG_VP9_HIGHBITDEPTH const int diff = bit_depth_ == VPX_BITS_8 ? dst[j] - src[j] : dst16[j] - src16[j];#else const int diff = dst[j] - src[j];#endif const int error = diff * diff; EXPECT_GE(1, error) << "Error: 32x32 IDCT has error " << error << " at index " << j; } }} using std::make_tuple; #if CONFIG_VP9_HIGHBITDEPTHINSTANTIATE_TEST_SUITE_P( C, Trans32x32Test, ::testing::Values( make_tuple(&vpx_highbd_fdct32x32_c, &idct32x32_10, 0, VPX_BITS_10), make_tuple(&vpx_highbd_fdct32x32_rd_c, &idct32x32_10, 1, VPX_BITS_10), make_tuple(&vpx_highbd_fdct32x32_c, &idct32x32_12, 0, VPX_BITS_12), make_tuple(&vpx_highbd_fdct32x32_rd_c, &idct32x32_12, 1, VPX_BITS_12), make_tuple(&vpx_fdct32x32_c, &vpx_idct32x32_1024_add_c, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_c, &vpx_idct32x32_1024_add_c, 1, VPX_BITS_8)));#elseINSTANTIATE_TEST_SUITE_P( C, Trans32x32Test, ::testing::Values(make_tuple(&vpx_fdct32x32_c, &vpx_idct32x32_1024_add_c, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_c, &vpx_idct32x32_1024_add_c, 1, VPX_BITS_8)));#endif // CONFIG_VP9_HIGHBITDEPTH #if HAVE_NEON && !CONFIG_EMULATE_HARDWAREINSTANTIATE_TEST_SUITE_P( NEON, Trans32x32Test, ::testing::Values(make_tuple(&vpx_fdct32x32_neon, &vpx_idct32x32_1024_add_neon, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_neon, &vpx_idct32x32_1024_add_neon, 1, VPX_BITS_8)));#endif // HAVE_NEON && !CONFIG_EMULATE_HARDWARE #if HAVE_SSE2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWAREINSTANTIATE_TEST_SUITE_P( SSE2, Trans32x32Test, ::testing::Values(make_tuple(&vpx_fdct32x32_sse2, &vpx_idct32x32_1024_add_sse2, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_sse2, &vpx_idct32x32_1024_add_sse2, 1, VPX_BITS_8)));#endif // HAVE_SSE2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE #if HAVE_SSE2 && CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWAREINSTANTIATE_TEST_SUITE_P( SSE2, Trans32x32Test, ::testing::Values( make_tuple(&vpx_highbd_fdct32x32_sse2, &idct32x32_10, 0, VPX_BITS_10), make_tuple(&vpx_highbd_fdct32x32_rd_sse2, &idct32x32_10, 1, VPX_BITS_10), make_tuple(&vpx_highbd_fdct32x32_sse2, &idct32x32_12, 0, VPX_BITS_12), make_tuple(&vpx_highbd_fdct32x32_rd_sse2, &idct32x32_12, 1, VPX_BITS_12), make_tuple(&vpx_fdct32x32_sse2, &vpx_idct32x32_1024_add_c, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_sse2, &vpx_idct32x32_1024_add_c, 1, VPX_BITS_8)));#endif // HAVE_SSE2 && CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE #if HAVE_AVX2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWAREINSTANTIATE_TEST_SUITE_P( AVX2, Trans32x32Test, ::testing::Values(make_tuple(&vpx_fdct32x32_avx2, &vpx_idct32x32_1024_add_sse2, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_avx2, &vpx_idct32x32_1024_add_sse2, 1, VPX_BITS_8)));#endif // HAVE_AVX2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE #if HAVE_MSA && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWAREINSTANTIATE_TEST_SUITE_P( MSA, Trans32x32Test, ::testing::Values(make_tuple(&vpx_fdct32x32_msa, &vpx_idct32x32_1024_add_msa, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_msa, &vpx_idct32x32_1024_add_msa, 1, VPX_BITS_8)));#endif // HAVE_MSA && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE #if HAVE_VSX && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWAREINSTANTIATE_TEST_SUITE_P( VSX, Trans32x32Test, ::testing::Values(make_tuple(&vpx_fdct32x32_c, &vpx_idct32x32_1024_add_vsx, 0, VPX_BITS_8), make_tuple(&vpx_fdct32x32_rd_vsx, &vpx_idct32x32_1024_add_vsx, 1, VPX_BITS_8)));#endif // HAVE_VSX && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE} // namespace
/*
* Copyright (c) 2012 The WebM project authors. All Rights Reserved.
*
* Use of this source code is governed by a BSD-style license
* that can be found in the LICENSE file in the root of the source
* tree. An additional intellectual property rights grant can be found
* in the file PATENTS. All contributing project authors may
* be found in the AUTHORS file in the root of the source tree.
*/
#include <math.h>
#include <stdlib.h>
#include <string.h>
#include <tuple>
#include "third_party/googletest/src/include/gtest/gtest.h"
#include "./vp9_rtcd.h"
#include "./vpx_config.h"
#include "./vpx_dsp_rtcd.h"
#include "test/acm_random.h"
#include "test/bench.h"
#include "test/clear_system_state.h"
#include "test/register_state_check.h"
#include "test/util.h"
#include "vp9/common/vp9_entropy.h"
#include "vpx/vpx_codec.h"
#include "vpx/vpx_integer.h"
#include "vpx_ports/mem.h"
#include "vpx_ports/msvc.h" // for round()
using libvpx_test::ACMRandom;
namespace {
const int kNumCoeffs = 1024;
const double kPi = 3.141592653589793238462643383279502884;
void reference_32x32_dct_1d(const double in[32], double out[32]) {
const double kInvSqrt2 = 0.707106781186547524400844362104;
for (int k = 0; k < 32; k++) {
out[k] = 0.0;
for (int n = 0; n < 32; n++) {
out[k] += in[n] * cos(kPi * (2 * n + 1) * k / 64.0);
}
if (k == 0) out[k] = out[k] * kInvSqrt2;
}
}
void reference_32x32_dct_2d(const int16_t input[kNumCoeffs],
double output[kNumCoeffs]) {
// First transform columns
for (int i = 0; i < 32; ++i) {
double temp_in[32], temp_out[32];
for (int j = 0; j < 32; ++j) temp_in[j] = input[j * 32 + i];
reference_32x32_dct_1d(temp_in, temp_out);
for (int j = 0; j < 32; ++j) output[j * 32 + i] = temp_out[j];
}
// Then transform rows
for (int i = 0; i < 32; ++i) {
double temp_in[32], temp_out[32];
for (int j = 0; j < 32; ++j) temp_in[j] = output[j + i * 32];
reference_32x32_dct_1d(temp_in, temp_out);
// Scale by some magic number
for (int j = 0; j < 32; ++j) output[j + i * 32] = temp_out[j] / 4;
}
}
typedef void (*FwdTxfmFunc)(const int16_t *in, tran_low_t *out, int stride);
typedef void (*InvTxfmFunc)(const tran_low_t *in, uint8_t *out, int stride);
typedef std::tuple<FwdTxfmFunc, InvTxfmFunc, int, vpx_bit_depth_t>
Trans32x32Param;
#if CONFIG_VP9_HIGHBITDEPTH
void idct32x32_10(const tran_low_t *in, uint8_t *out, int stride) {
vpx_highbd_idct32x32_1024_add_c(in, CAST_TO_SHORTPTR(out), stride, 10);
}
void idct32x32_12(const tran_low_t *in, uint8_t *out, int stride) {
vpx_highbd_idct32x32_1024_add_c(in, CAST_TO_SHORTPTR(out), stride, 12);
}
#endif // CONFIG_VP9_HIGHBITDEPTH
class Trans32x32Test : public AbstractBench,
public ::testing::TestWithParam<Trans32x32Param> {
public:
virtual ~Trans32x32Test() {}
virtual void SetUp() {
fwd_txfm_ = GET_PARAM(0);
inv_txfm_ = GET_PARAM(1);
version_ = GET_PARAM(2); // 0: high precision forward transform
// 1: low precision version for rd loop
bit_depth_ = GET_PARAM(3);
mask_ = (1 << bit_depth_) - 1;
}
virtual void TearDown() { libvpx_test::ClearSystemState(); }
protected:
int version_;
vpx_bit_depth_t bit_depth_;
int mask_;
FwdTxfmFunc fwd_txfm_;
InvTxfmFunc inv_txfm_;
int16_t *bench_in_;
tran_low_t *bench_out_;
virtual void Run();
};
void Trans32x32Test::Run() { fwd_txfm_(bench_in_, bench_out_, 32); }
TEST_P(Trans32x32Test, AccuracyCheck) {
ACMRandom rnd(ACMRandom::DeterministicSeed());
uint32_t max_error = 0;
int64_t total_error = 0;
const int count_test_block = 10000;
DECLARE_ALIGNED(16, int16_t, test_input_block[kNumCoeffs]);
DECLARE_ALIGNED(16, tran_low_t, test_temp_block[kNumCoeffs]);
DECLARE_ALIGNED(16, uint8_t, dst[kNumCoeffs]);
DECLARE_ALIGNED(16, uint8_t, src[kNumCoeffs]);
#if CONFIG_VP9_HIGHBITDEPTH
DECLARE_ALIGNED(16, uint16_t, dst16[kNumCoeffs]);
DECLARE_ALIGNED(16, uint16_t, src16[kNumCoeffs]);
#endif
for (int i = 0; i < count_test_block; ++i) {
// Initialize a test block with input range [-mask_, mask_].
for (int j = 0; j < kNumCoeffs; ++j) {
if (bit_depth_ == VPX_BITS_8) {
src[j] = rnd.Rand8();
dst[j] = rnd.Rand8();
test_input_block[j] = src[j] - dst[j];
#if CONFIG_VP9_HIGHBITDEPTH
} else {
src16[j] = rnd.Rand16() & mask_;
dst16[j] = rnd.Rand16() & mask_;
test_input_block[j] = src16[j] - dst16[j];
#endif
}
}
ASM_REGISTER_STATE_CHECK(fwd_txfm_(test_input_block, test_temp_block, 32));
if (bit_depth_ == VPX_BITS_8) {
ASM_REGISTER_STATE_CHECK(inv_txfm_(test_temp_block, dst, 32));
#if CONFIG_VP9_HIGHBITDEPTH
} else {
ASM_REGISTER_STATE_CHECK(
inv_txfm_(test_temp_block, CAST_TO_BYTEPTR(dst16), 32));
#endif
}
for (int j = 0; j < kNumCoeffs; ++j) {
#if CONFIG_VP9_HIGHBITDEPTH
const int32_t diff =
bit_depth_ == VPX_BITS_8 ? dst[j] - src[j] : dst16[j] - src16[j];
#else
const int32_t diff = dst[j] - src[j];
#endif
const uint32_t error = diff * diff;
if (max_error < error) max_error = error;
total_error += error;
}
}
if (version_ == 1) {
max_error /= 2;
total_error /= 45;
}
EXPECT_GE(1u << 2 * (bit_depth_ - 8), max_error)
<< "Error: 32x32 FDCT/IDCT has an individual round-trip error > 1";
EXPECT_GE(count_test_block << 2 * (bit_depth_ - 8), total_error)
<< "Error: 32x32 FDCT/IDCT has average round-trip error > 1 per block";
}
TEST_P(Trans32x32Test, CoeffCheck) {
ACMRandom rnd(ACMRandom::DeterministicSeed());
const int count_test_block = 1000;
DECLARE_ALIGNED(16, int16_t, input_block[kNumCoeffs]);
DECLARE_ALIGNED(16, tran_low_t, output_ref_block[kNumCoeffs]);
DECLARE_ALIGNED(16, tran_low_t, output_block[kNumCoeffs]);
for (int i = 0; i < count_test_block; ++i) {
for (int j = 0; j < kNumCoeffs; ++j) {
input_block[j] = (rnd.Rand16() & mask_) - (rnd.Rand16() & mask_);
}
const int stride = 32;
vpx_fdct32x32_c(input_block, output_ref_block, stride);
ASM_REGISTER_STATE_CHECK(fwd_txfm_(input_block, output_block, stride));
if (version_ == 0) {
for (int j = 0; j < kNumCoeffs; ++j)
EXPECT_EQ(output_block[j], output_ref_block[j])
<< "Error: 32x32 FDCT versions have mismatched coefficients";
} else {
for (int j = 0; j < kNumCoeffs; ++j)
EXPECT_GE(6, abs(output_block[j] - output_ref_block[j]))
<< "Error: 32x32 FDCT rd has mismatched coefficients";
}
}
}
TEST_P(Trans32x32Test, MemCheck) {
ACMRandom rnd(ACMRandom::DeterministicSeed());
const int count_test_block = 2000;
DECLARE_ALIGNED(16, int16_t, input_extreme_block[kNumCoeffs]);
DECLARE_ALIGNED(16, tran_low_t, output_ref_block[kNumCoeffs]);
DECLARE_ALIGNED(16, tran_low_t, output_block[kNumCoeffs]);
for (int i = 0; i < count_test_block; ++i) {
// Initialize a test block with input range [-mask_, mask_].
for (int j = 0; j < kNumCoeffs; ++j) {
input_extreme_block[j] = rnd.Rand8() & 1 ? mask_ : -mask_;
}
if (i == 0) {
for (int j = 0; j < kNumCoeffs; ++j) input_extreme_block[j] = mask_;
} else if (i == 1) {
for (int j = 0; j < kNumCoeffs; ++j) input_extreme_block[j] = -mask_;
}
const int stride = 32;
vpx_fdct32x32_c(input_extreme_block, output_ref_block, stride);
ASM_REGISTER_STATE_CHECK(
fwd_txfm_(input_extreme_block, output_block, stride));
// The minimum quant value is 4.
for (int j = 0; j < kNumCoeffs; ++j) {
if (version_ == 0) {
EXPECT_EQ(output_block[j], output_ref_block[j])
<< "Error: 32x32 FDCT versions have mismatched coefficients";
} else {
EXPECT_GE(6, abs(output_block[j] - output_ref_block[j]))
<< "Error: 32x32 FDCT rd has mismatched coefficients";
}
EXPECT_GE(4 * DCT_MAX_VALUE << (bit_depth_ - 8), abs(output_ref_block[j]))
<< "Error: 32x32 FDCT C has coefficient larger than 4*DCT_MAX_VALUE";
EXPECT_GE(4 * DCT_MAX_VALUE << (bit_depth_ - 8), abs(output_block[j]))
<< "Error: 32x32 FDCT has coefficient larger than "
<< "4*DCT_MAX_VALUE";
}
}
}
TEST_P(Trans32x32Test, DISABLED_Speed) {
ACMRandom rnd(ACMRandom::DeterministicSeed());
DECLARE_ALIGNED(16, int16_t, input_extreme_block[kNumCoeffs]);
DECLARE_ALIGNED(16, tran_low_t, output_block[kNumCoeffs]);
bench_in_ = input_extreme_block;
bench_out_ = output_block;
RunNTimes(INT16_MAX);
PrintMedian("32x32");
}
TEST_P(Trans32x32Test, InverseAccuracy) {
ACMRandom rnd(ACMRandom::DeterministicSeed());
const int count_test_block = 1000;
DECLARE_ALIGNED(16, int16_t, in[kNumCoeffs]);
DECLARE_ALIGNED(16, tran_low_t, coeff[kNumCoeffs]);
DECLARE_ALIGNED(16, uint8_t, dst[kNumCoeffs]);
DECLARE_ALIGNED(16, uint8_t, src[kNumCoeffs]);
#if CONFIG_VP9_HIGHBITDEPTH
DECLARE_ALIGNED(16, uint16_t, dst16[kNumCoeffs]);
DECLARE_ALIGNED(16, uint16_t, src16[kNumCoeffs]);
#endif
for (int i = 0; i < count_test_block; ++i) {
double out_r[kNumCoeffs];
// Initialize a test block with input range [-255, 255]
for (int j = 0; j < kNumCoeffs; ++j) {
if (bit_depth_ == VPX_BITS_8) {
src[j] = rnd.Rand8();
dst[j] = rnd.Rand8();
in[j] = src[j] - dst[j];
#if CONFIG_VP9_HIGHBITDEPTH
} else {
src16[j] = rnd.Rand16() & mask_;
dst16[j] = rnd.Rand16() & mask_;
in[j] = src16[j] - dst16[j];
#endif
}
}
reference_32x32_dct_2d(in, out_r);
for (int j = 0; j < kNumCoeffs; ++j) {
coeff[j] = static_cast<tran_low_t>(round(out_r[j]));
}
if (bit_depth_ == VPX_BITS_8) {
ASM_REGISTER_STATE_CHECK(inv_txfm_(coeff, dst, 32));
#if CONFIG_VP9_HIGHBITDEPTH
} else {
ASM_REGISTER_STATE_CHECK(inv_txfm_(coeff, CAST_TO_BYTEPTR(dst16), 32));
#endif
}
for (int j = 0; j < kNumCoeffs; ++j) {
#if CONFIG_VP9_HIGHBITDEPTH
const int diff =
bit_depth_ == VPX_BITS_8 ? dst[j] - src[j] : dst16[j] - src16[j];
#else
const int diff = dst[j] - src[j];
#endif
const int error = diff * diff;
EXPECT_GE(1, error) << "Error: 32x32 IDCT has error " << error
<< " at index " << j;
}
}
}
using std::make_tuple;
#if CONFIG_VP9_HIGHBITDEPTH
INSTANTIATE_TEST_SUITE_P(
C, Trans32x32Test,
::testing::Values(
make_tuple(&vpx_highbd_fdct32x32_c, &idct32x32_10, 0, VPX_BITS_10),
make_tuple(&vpx_highbd_fdct32x32_rd_c, &idct32x32_10, 1, VPX_BITS_10),
make_tuple(&vpx_highbd_fdct32x32_c, &idct32x32_12, 0, VPX_BITS_12),
make_tuple(&vpx_highbd_fdct32x32_rd_c, &idct32x32_12, 1, VPX_BITS_12),
make_tuple(&vpx_fdct32x32_c, &vpx_idct32x32_1024_add_c, 0, VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_c, &vpx_idct32x32_1024_add_c, 1,
VPX_BITS_8)));
#else
INSTANTIATE_TEST_SUITE_P(
C, Trans32x32Test,
::testing::Values(make_tuple(&vpx_fdct32x32_c, &vpx_idct32x32_1024_add_c, 0,
VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_c, &vpx_idct32x32_1024_add_c,
1, VPX_BITS_8)));
#endif // CONFIG_VP9_HIGHBITDEPTH
#if HAVE_NEON && !CONFIG_EMULATE_HARDWARE
INSTANTIATE_TEST_SUITE_P(
NEON, Trans32x32Test,
::testing::Values(make_tuple(&vpx_fdct32x32_neon,
&vpx_idct32x32_1024_add_neon, 0, VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_neon,
&vpx_idct32x32_1024_add_neon, 1, VPX_BITS_8)));
#endif // HAVE_NEON && !CONFIG_EMULATE_HARDWARE
#if HAVE_SSE2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
INSTANTIATE_TEST_SUITE_P(
SSE2, Trans32x32Test,
::testing::Values(make_tuple(&vpx_fdct32x32_sse2,
&vpx_idct32x32_1024_add_sse2, 0, VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_sse2,
&vpx_idct32x32_1024_add_sse2, 1, VPX_BITS_8)));
#endif // HAVE_SSE2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
#if HAVE_SSE2 && CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
INSTANTIATE_TEST_SUITE_P(
SSE2, Trans32x32Test,
::testing::Values(
make_tuple(&vpx_highbd_fdct32x32_sse2, &idct32x32_10, 0, VPX_BITS_10),
make_tuple(&vpx_highbd_fdct32x32_rd_sse2, &idct32x32_10, 1,
VPX_BITS_10),
make_tuple(&vpx_highbd_fdct32x32_sse2, &idct32x32_12, 0, VPX_BITS_12),
make_tuple(&vpx_highbd_fdct32x32_rd_sse2, &idct32x32_12, 1,
VPX_BITS_12),
make_tuple(&vpx_fdct32x32_sse2, &vpx_idct32x32_1024_add_c, 0,
VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_sse2, &vpx_idct32x32_1024_add_c, 1,
VPX_BITS_8)));
#endif // HAVE_SSE2 && CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
#if HAVE_AVX2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
INSTANTIATE_TEST_SUITE_P(
AVX2, Trans32x32Test,
::testing::Values(make_tuple(&vpx_fdct32x32_avx2,
&vpx_idct32x32_1024_add_sse2, 0, VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_avx2,
&vpx_idct32x32_1024_add_sse2, 1, VPX_BITS_8)));
#endif // HAVE_AVX2 && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
#if HAVE_MSA && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
INSTANTIATE_TEST_SUITE_P(
MSA, Trans32x32Test,
::testing::Values(make_tuple(&vpx_fdct32x32_msa,
&vpx_idct32x32_1024_add_msa, 0, VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_msa,
&vpx_idct32x32_1024_add_msa, 1, VPX_BITS_8)));
#endif // HAVE_MSA && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
#if HAVE_VSX && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
INSTANTIATE_TEST_SUITE_P(
VSX, Trans32x32Test,
::testing::Values(make_tuple(&vpx_fdct32x32_c, &vpx_idct32x32_1024_add_vsx,
0, VPX_BITS_8),
make_tuple(&vpx_fdct32x32_rd_vsx,
&vpx_idct32x32_1024_add_vsx, 1, VPX_BITS_8)));
#endif // HAVE_VSX && !CONFIG_VP9_HIGHBITDEPTH && !CONFIG_EMULATE_HARDWARE
} // namespace