/** * HEVC Encoder * - Marko Viitanen ( fador at iki.fi ), Tampere University of Technology, Department of Computer Systems. */ /*! \file decmain.c \brief main file for the Decoder \author Marko Viitanen \date 2012-05 This file contains main() function */ /*! \mainpage HEVC Encoder * * \section Coding style * * Coding style is explained in it's own document. * * \section usage_sec Usage * * \subsection encode_subsec Basic Decoding: * Use encmain.exe -i input.yuv -o output.hevc * * \subsection options_subsec All program options: * - -i : input * - -o : output * - -w : frame width * - -h : frame height * - -n : encode only n frames */ /* Suppress some windows warnings */ #ifdef WIN32 #define _CRT_SECURE_NO_WARNINGS #endif #include #include #include #include "global.h" #include "config.h" #include "encoder.h" #include "cabac.h" #include "picture.h" #include "transform.h" /* Assembly optimizations */ #ifndef X64 #include "x86/test.h" #else #include "x64/test64.h" #endif /*! \brief Program main function. \param argc Argument count from commandline \param argv Argument list \return Program exit state */ int main(int argc, char* argv[]) { int ecx = 0,edx =0; enum { BIT_SSSE3 = 9, BIT_SSE41 = 19, BIT_SSE42 = 20, BIT_MMX = 24, BIT_SSE = 25, BIT_SSE2 = 26}; uint32_t curFrame = 0; config *cfg = NULL; /* Global configuration */ FILE *input = NULL; FILE *output = NULL; double PSNR[3] = { 0.0, 0.0, 0.0 }; #ifdef _DEBUG FILE *recout = fopen("encrec.yuv","wb"); #endif encoder_control* encoder = (encoder_control*)malloc(sizeof(encoder_control));; /* CPU id */ printf("Checking for CPU features...\r\n"); #ifndef X64 cpuId(&ecx,&edx); #else cpuId64(&ecx,&edx); #endif //printf("CPUID ECX: %X EDX: %X\r\n", ecx, edx); printf("CPU features enabled: "); if(edx & (1< -w -h -o \r\n"); fprintf(stderr, "Optional parameters:\r\n"); fprintf(stderr, " -n : number of frames to decode\r\n"); fprintf(stderr, " -s : number of frames to skip from the beginning\r\n"); config_destroy(cfg); return EXIT_FAILURE; } printf("Input: %s, output: %s\n", cfg->input, cfg->output); printf(" Video size: %dx%d\n", cfg->width, cfg->height); /* Open input file and check that it was opened correctly */ input = fopen(cfg->input, "rb"); if(input == NULL) { fprintf(stderr, "Could not open input file, shutting down!\n"); config_destroy(cfg); return EXIT_FAILURE; } /* Open output file and check that it was opened correctly */ output = fopen(cfg->output, "wb"); if(output == NULL) { fprintf(stderr, "Could not open output file, shutting down!\n"); config_destroy(cfg); return EXIT_FAILURE; } /* Initialization */ init_tables(); init_exp_golomb(4096*8); cabac_init(&cabac); scalinglist_init(); init_encoder_control(encoder, (bitstream*)malloc(sizeof(bitstream))); /* Init bitstream */ bitstream_init(encoder->stream); encoder->stream->buffer_pos = 0; encoder->stream->output = 0; /* Alloc 1MB */ bitstream_alloc(encoder->stream, 1024*1024); /* Config pointer to encoder struct */ encoder->cfg = cfg; /* Set output file */ encoder->output = output; /* Set CABAC output bitstream */ cabac.stream = encoder->stream; /* input init (ToDo: read from commandline / config) */ encoder->bitdepth = 8; encoder->frame = 0; encoder->QP = 32; encoder->in.video_format = FORMAT_420; encoder->betaOffsetdiv2 = 0; encoder->tcOffsetdiv2 = 0; init_encoder_input(&encoder->in, input, cfg->width, cfg->height); /* Start coding cycle */ while(!feof(input) && (!cfg->frames || encoder->frame < cfg->frames)) { /* Read one frame from the input */ fread(encoder->in.cur_pic.yData, cfg->width*cfg->height,1,input); fread(encoder->in.cur_pic.uData, cfg->width*cfg->height>>2,1,input); fread(encoder->in.cur_pic.vData, cfg->width*cfg->height>>2,1,input); /* Clear reconstruction buffers (not needed, for debugging) */ /* memset(encoder->in.cur_pic.yRecData, 0, cfg->width*cfg->height); memset(encoder->in.cur_pic.uRecData, 128, cfg->width*cfg->height>>2); memset(encoder->in.cur_pic.vRecData, 128, cfg->width*cfg->height>>2); */ /* /////////////THE ACTUAL CODING HAPPENDS HERE\\\\\\\\\\\\\\\\\\\ */ encode_one_frame(encoder); #ifdef _DEBUG /* Write reconstructed frame out */ fwrite(encoder->in.cur_pic.yRecData,cfg->width*cfg->height,1,recout); fwrite(encoder->in.cur_pic.uRecData,cfg->width*cfg->height>>2,1,recout); fwrite(encoder->in.cur_pic.vRecData,cfg->width*cfg->height>>2,1,recout); #endif { double temp_PSNR[3]; temp_PSNR[0] = imagePSNR(encoder->in.cur_pic.yData,encoder->in.cur_pic.yRecData,cfg->width,cfg->height); temp_PSNR[1] = imagePSNR(encoder->in.cur_pic.uData,encoder->in.cur_pic.uRecData,cfg->width>>1,cfg->height>>1); temp_PSNR[2] = imagePSNR(encoder->in.cur_pic.vData,encoder->in.cur_pic.vRecData,cfg->width>>1,cfg->height>>1); printf("[%d] %c-frame PSNR: %2.4f %2.4f %2.4f\n", encoder->frame, "IPB"[encoder->in.cur_pic.type%3], temp_PSNR[0],temp_PSNR[1],temp_PSNR[2]); PSNR[0]+=temp_PSNR[0]; PSNR[1]+=temp_PSNR[1]; PSNR[2]+=temp_PSNR[2]; } encoder->frame++; } /* Coding finished */ printf(" Processed %d frames, AVG PSNR: %2.4f %2.4f %2.4f\n", encoder->frame,PSNR[0]/encoder->frame,PSNR[1]/encoder->frame,PSNR[2]/encoder->frame); fclose(input); fclose(output); #ifdef _DEBUG fclose(recout); #endif /* Deallocating */ config_destroy(cfg); scalinglist_destroy(); return EXIT_SUCCESS; }