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basis_universal: Sync with upstream a91e94c84

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a91e94c849
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Rémi Verschelde 2022-12-08 13:49:45 +01:00
parent 12ab5731ab
commit d7905b3c0b
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GPG Key ID: C3336907360768E1
6 changed files with 182 additions and 29 deletions
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2
thirdparty/README.md vendored
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@ -20,7 +20,7 @@ Files extracted from upstream source:
## basis_universal
- Upstream: https://github.com/BinomialLLC/basis_universal
- Version: git (1531cfaf9ed5232248a0a45736686a849ca3befc, 2022)
- Version: git (a91e94c8495d7f470d3df326a364d49324cfd4a3, 2022)
- License: Apache 2.0
Files extracted from upstream source:

178
thirdparty/basis_universal/encoder/basisu_comp.cpp vendored
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@ -1501,7 +1501,8 @@ namespace basisu
if (m_params.m_compute_stats)
{
printf("Slice: %u\n", slice_index);
if (m_params.m_print_stats)
printf("Slice: %u\n", slice_index);
image_stats& s = m_stats[slice_index];
@ -1511,81 +1512,100 @@ namespace basisu
// ---- .basis stats
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 0, 3);
em.print(".basis RGB Avg: ");
if (m_params.m_print_stats)
em.print(".basis RGB Avg: ");
s.m_basis_rgb_avg_psnr = em.m_psnr;
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 0, 4);
em.print(".basis RGBA Avg: ");
if (m_params.m_print_stats)
em.print(".basis RGBA Avg: ");
s.m_basis_rgba_avg_psnr = em.m_psnr;
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 0, 1);
em.print(".basis R Avg: ");
if (m_params.m_print_stats)
em.print(".basis R Avg: ");
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 1, 1);
em.print(".basis G Avg: ");
if (m_params.m_print_stats)
em.print(".basis G Avg: ");
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 2, 1);
em.print(".basis B Avg: ");
if (m_params.m_print_stats)
em.print(".basis B Avg: ");
if (m_params.m_uastc)
{
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 3, 1);
em.print(".basis A Avg: ");
if (m_params.m_print_stats)
em.print(".basis A Avg: ");
s.m_basis_a_avg_psnr = em.m_psnr;
}
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 0, 0);
em.print(".basis 709 Luma: ");
if (m_params.m_print_stats)
em.print(".basis 709 Luma: ");
s.m_basis_luma_709_psnr = static_cast<float>(em.m_psnr);
s.m_basis_luma_709_ssim = static_cast<float>(em.m_ssim);
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked[slice_index], 0, 0, true, true);
em.print(".basis 601 Luma: ");
if (m_params.m_print_stats)
em.print(".basis 601 Luma: ");
s.m_basis_luma_601_psnr = static_cast<float>(em.m_psnr);
if (m_slice_descs.size() == 1)
{
const uint32_t output_size = comp_size ? (uint32_t)comp_size : (uint32_t)comp_data.size();
debug_printf(".basis RGB PSNR per bit/texel*10000: %3.3f\n", 10000.0f * s.m_basis_rgb_avg_psnr / ((output_size * 8.0f) / (slice_desc.m_orig_width * slice_desc.m_orig_height)));
debug_printf(".basis Luma 709 PSNR per bit/texel*10000: %3.3f\n", 10000.0f * s.m_basis_luma_709_psnr / ((output_size * 8.0f) / (slice_desc.m_orig_width * slice_desc.m_orig_height)));
if (m_params.m_print_stats)
{
debug_printf(".basis RGB PSNR per bit/texel*10000: %3.3f\n", 10000.0f * s.m_basis_rgb_avg_psnr / ((output_size * 8.0f) / (slice_desc.m_orig_width * slice_desc.m_orig_height)));
debug_printf(".basis Luma 709 PSNR per bit/texel*10000: %3.3f\n", 10000.0f * s.m_basis_luma_709_psnr / ((output_size * 8.0f) / (slice_desc.m_orig_width * slice_desc.m_orig_height)));
}
}
if (m_decoded_output_textures_unpacked_bc7[slice_index].get_width())
{
// ---- BC7 stats
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 0, 3);
em.print("BC7 RGB Avg: ");
if (m_params.m_print_stats)
em.print("BC7 RGB Avg: ");
s.m_bc7_rgb_avg_psnr = em.m_psnr;
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 0, 4);
em.print("BC7 RGBA Avg: ");
if (m_params.m_print_stats)
em.print("BC7 RGBA Avg: ");
s.m_bc7_rgba_avg_psnr = em.m_psnr;
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 0, 1);
em.print("BC7 R Avg: ");
if (m_params.m_print_stats)
em.print("BC7 R Avg: ");
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 1, 1);
em.print("BC7 G Avg: ");
if (m_params.m_print_stats)
em.print("BC7 G Avg: ");
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 2, 1);
em.print("BC7 B Avg: ");
if (m_params.m_print_stats)
em.print("BC7 B Avg: ");
if (m_params.m_uastc)
{
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 3, 1);
em.print("BC7 A Avg: ");
if (m_params.m_print_stats)
em.print("BC7 A Avg: ");
s.m_bc7_a_avg_psnr = em.m_psnr;
}
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 0, 0);
em.print("BC7 709 Luma: ");
if (m_params.m_print_stats)
em.print("BC7 709 Luma: ");
s.m_bc7_luma_709_psnr = static_cast<float>(em.m_psnr);
s.m_bc7_luma_709_ssim = static_cast<float>(em.m_ssim);
em.calc(m_slice_images[slice_index], m_decoded_output_textures_unpacked_bc7[slice_index], 0, 0, true, true);
em.print("BC7 601 Luma: ");
if (m_params.m_print_stats)
em.print("BC7 601 Luma: ");
s.m_bc7_luma_601_psnr = static_cast<float>(em.m_psnr);
}
@ -1593,16 +1613,19 @@ namespace basisu
{
// ---- Nearly best possible ETC1S stats
em.calc(m_slice_images[slice_index], m_best_etc1s_images_unpacked[slice_index], 0, 3);
em.print("Unquantized ETC1S RGB Avg: ");
if (m_params.m_print_stats)
em.print("Unquantized ETC1S RGB Avg: ");
s.m_best_etc1s_rgb_avg_psnr = static_cast<float>(em.m_psnr);
em.calc(m_slice_images[slice_index], m_best_etc1s_images_unpacked[slice_index], 0, 0);
em.print("Unquantized ETC1S 709 Luma: ");
if (m_params.m_print_stats)
em.print("Unquantized ETC1S 709 Luma: ");
s.m_best_etc1s_luma_709_psnr = static_cast<float>(em.m_psnr);
s.m_best_etc1s_luma_709_ssim = static_cast<float>(em.m_ssim);
em.calc(m_slice_images[slice_index], m_best_etc1s_images_unpacked[slice_index], 0, 0, true, true);
em.print("Unquantized ETC1S 601 Luma: ");
if (m_params.m_print_stats)
em.print("Unquantized ETC1S 601 Luma: ");
s.m_best_etc1s_luma_601_psnr = static_cast<float>(em.m_psnr);
}
}
@ -2311,6 +2334,8 @@ namespace basisu
}
comp_params.m_compute_stats = (pStats != nullptr);
comp_params.m_print_stats = (flags_and_quality & cFlagPrintStats) != 0;
comp_params.m_status_output = (flags_and_quality & cFlagPrintStatus) != 0;
// Create the compressor, initialize it, and process the input
basis_compressor comp;
@ -2328,6 +2353,11 @@ namespace basisu
return nullptr;
}
if ((pStats) && (comp.get_opencl_failed()))
{
pStats->m_opencl_failed = true;
}
// Get the output file data and return it to the caller
void* pFile_data = nullptr;
const uint8_vec* pFile_data_vec = comp_params.m_create_ktx2_file ? &comp.get_output_ktx2_file() : &comp.get_output_basis_file();
@ -2388,4 +2418,108 @@ namespace basisu
free(p);
}
bool basis_benchmark_etc1s_opencl(bool* pOpenCL_failed)
{
if (pOpenCL_failed)
*pOpenCL_failed = false;
if (!opencl_is_available())
{
error_printf("basis_benchmark_etc1s_opencl: OpenCL support must be enabled first!\n");
return false;
}
const uint32_t W = 1024, H = 1024;
basisu::vector<image> images;
image& img = images.enlarge(1)->resize(W, H);
const uint32_t NUM_RAND_LETTERS = 6000;// 40000;
rand r;
r.seed(200);
for (uint32_t i = 0; i < NUM_RAND_LETTERS; i++)
{
uint32_t x = r.irand(0, W - 1), y = r.irand(0, H - 1);
uint32_t sx = r.irand(1, 4), sy = r.irand(1, 4);
color_rgba c(r.byte(), r.byte(), r.byte(), 255);
img.debug_text(x, y, sx, sy, c, nullptr, false, "%c", static_cast<char>(r.irand(32, 127)));
}
//save_png("test.png", img);
image_stats stats;
uint32_t flags_and_quality = cFlagSRGB | cFlagThreaded | 255;
size_t comp_size = 0;
double best_cpu_time = 1e+9f, best_gpu_time = 1e+9f;
const uint32_t TIMES_TO_ENCODE = 2;
interval_timer tm;
for (uint32_t i = 0; i < TIMES_TO_ENCODE; i++)
{
tm.start();
void* pComp_data = basis_compress(
images,
flags_and_quality, 1.0f,
&comp_size,
&stats);
double cpu_time = tm.get_elapsed_secs();
if (!pComp_data)
{
error_printf("basis_benchmark_etc1s_opencl: basis_compress() failed (CPU)!\n");
return false;
}
best_cpu_time = minimum(best_cpu_time, cpu_time);
basis_free_data(pComp_data);
}
printf("Best CPU time: %3.3f\n", best_cpu_time);
for (uint32_t i = 0; i < TIMES_TO_ENCODE; i++)
{
tm.start();
void* pComp_data = basis_compress(
images,
flags_and_quality | cFlagUseOpenCL, 1.0f,
&comp_size,
&stats);
if (stats.m_opencl_failed)
{
error_printf("basis_benchmark_etc1s_opencl: OpenCL failed!\n");
basis_free_data(pComp_data);
if (pOpenCL_failed)
*pOpenCL_failed = true;
return false;
}
double gpu_time = tm.get_elapsed_secs();
if (!pComp_data)
{
error_printf("basis_benchmark_etc1s_opencl: basis_compress() failed (GPU)!\n");
return false;
}
best_gpu_time = minimum(best_gpu_time, gpu_time);
basis_free_data(pComp_data);
}
printf("Best GPU time: %3.3f\n", best_gpu_time);
return best_gpu_time < best_cpu_time;
}
} // namespace basisu

21
thirdparty/basis_universal/encoder/basisu_comp.h vendored
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@ -92,6 +92,8 @@ namespace basisu
m_best_etc1s_luma_709_psnr = 0.0f;
m_best_etc1s_luma_601_psnr = 0.0f;
m_best_etc1s_luma_709_ssim = 0.0f;
m_opencl_failed = false;
}
std::string m_filename;
@ -119,6 +121,8 @@ namespace basisu
float m_best_etc1s_luma_709_psnr;
float m_best_etc1s_luma_601_psnr;
float m_best_etc1s_luma_709_ssim;
bool m_opencl_failed;
};
template<bool def>
@ -255,6 +259,7 @@ namespace basisu
m_write_output_basis_files.clear();
m_compression_level.clear();
m_compute_stats.clear();
m_print_stats.clear();
m_check_for_alpha.clear();
m_force_alpha.clear();
m_multithreading.clear();
@ -373,6 +378,9 @@ namespace basisu
// Compute and display image metrics
bool_param<false> m_compute_stats;
// Print stats to stdout, if m_compute_stats is true.
bool_param<true> m_print_stats;
// Check to see if any input image has an alpha channel, if so then the output basis file will have alpha channels
bool_param<true> m_check_for_alpha;
@ -583,11 +591,16 @@ namespace basisu
cFlagYFlip = 1 << 16, // flip source image on Y axis before compression
cFlagUASTC = 1 << 17, // use UASTC compression vs. ETC1S
cFlagUASTCRDO = 1 << 18 // use RDO postprocessing when generating UASTC files (must set uastc_rdo_quality to the quality scalar)
cFlagUASTCRDO = 1 << 18, // use RDO postprocessing when generating UASTC files (must set uastc_rdo_quality to the quality scalar)
cFlagPrintStats = 1 << 19, // print image stats to stdout
cFlagPrintStatus = 1 << 20 // print status to stdout
};
// This function accepts an array of source images.
// If more than one image is provided, it's assumed the images form a mipmap pyramid and automatic mipmap generation is disabled.
// Returns a pointer to the compressed .basis or .ktx2 file data. *pSize is the size of the compressed data. The returned block must be freed using basis_free_data().
// basisu_encoder_init() MUST be called first!
void* basis_compress(
const basisu::vector<image> &source_images,
uint32_t flags_and_quality, float uastc_rdo_quality,
@ -604,6 +617,12 @@ namespace basisu
// Frees the dynamically allocated file data returned by basis_compress().
void basis_free_data(void* p);
// Runs a short benchmark using synthetic image data to time OpenCL encoding vs. CPU encoding, with multithreading enabled.
// Returns true if opencl is worth using on this system, otherwise false.
// If pOpenCL_failed is not null, it will be set to true if OpenCL encoding failed *on this particular machine/driver/BasisU version* and the encoder falled back to CPU encoding.
// basisu_encoder_init() MUST be called first. If OpenCL support wasn't enabled this always returns false.
bool basis_benchmark_etc1s_opencl(bool *pOpenCL_failed = nullptr);
// Parallel compression API
struct parallel_results
{

4
thirdparty/basis_universal/encoder/basisu_enc.cpp vendored
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@ -187,6 +187,8 @@ namespace basisu
opencl_init(opencl_force_serialization);
}
interval_timer::init(); // make sure interval_timer globals are initialized from main thread to avoid TSAN reports
g_library_initialized = true;
}
@ -227,7 +229,7 @@ namespace basisu
{
QueryPerformanceFrequency(reinterpret_cast<LARGE_INTEGER*>(pTicks));
}
#elif defined(__APPLE__) || defined(__FreeBSD__) || defined(__OpenBSD__)
#elif defined(__APPLE__) || defined(__FreeBSD__) || defined(__OpenBSD__) || defined(__EMSCRIPTEN__)
#include <sys/time.h>
inline void query_counter(timer_ticks* pTicks)
{

4
thirdparty/basis_universal/encoder/basisu_frontend.cpp vendored
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@ -2328,8 +2328,6 @@ namespace basisu
m_optimized_cluster_selectors.resize(total_selector_clusters);
uint32_t total_clusters_processed = 0;
// For each selector codebook entry, and for each of the 4x4 selectors, determine which selector minimizes the error across all the blocks that use that quantized selector.
const uint32_t N = 256;
for (uint32_t cluster_index_iter = 0; cluster_index_iter < total_selector_clusters; cluster_index_iter += N)
@ -2338,7 +2336,7 @@ namespace basisu
const uint32_t last_index = minimum<uint32_t>((uint32_t)total_selector_clusters, cluster_index_iter + N);
#ifndef __EMSCRIPTEN__
m_params.m_pJob_pool->add_job([this, first_index, last_index, &total_clusters_processed, &total_selector_clusters] {
m_params.m_pJob_pool->add_job([this, first_index, last_index] {
#endif
for (uint32_t cluster_index = first_index; cluster_index < last_index; cluster_index++)

2
thirdparty/basis_universal/transcoder/basisu_transcoder.cpp vendored
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@ -16867,7 +16867,7 @@ namespace basist
{
m_format = basist::basis_tex_format::cETC1S;
// 3.10.2: "Whether the image has 1 or 2 slices can be determined from the DFD’s sample count."
// 3.10.2: "Whether the image has 1 or 2 slices can be determined from the DFD's sample count."
// If m_has_alpha is true it may be 2-channel RRRG or 4-channel RGBA, but we let the caller deal with that.
m_has_alpha = (m_header.m_dfd_byte_length == 60);