/* * Copyright (c) 2010 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 "./vpx_config.h" #include "vp9/encoder/vp9_encodeframe.h" #include "vp9/encoder/vp9_encodemb.h" #include "vp9/encoder/vp9_encodemv.h" #include "vp9/common/vp9_common.h" #include "vp9/encoder/vp9_onyx_int.h" #include "vp9/common/vp9_extend.h" #include "vp9/common/vp9_entropy.h" #include "vp9/common/vp9_entropymode.h" #include "vp9/common/vp9_quant_common.h" #include "vp9/encoder/vp9_segmentation.h" #include "vp9/common/vp9_setupintrarecon.h" #include "vp9/encoder/vp9_encodeintra.h" #include "vp9/common/vp9_reconinter.h" #include "vp9/common/vp9_invtrans.h" #include "vp9/encoder/vp9_rdopt.h" #include "vp9/common/vp9_findnearmv.h" #include "vp9/common/vp9_reconintra.h" #include "vp9/common/vp9_seg_common.h" #include "vp9/common/vp9_tile_common.h" #include "vp9/encoder/vp9_tokenize.h" #include "./vp9_rtcd.h" #include #include #include #include "vpx_ports/vpx_timer.h" #include "vp9/common/vp9_pred_common.h" #include "vp9/common/vp9_mvref_common.h" #define DBG_PRNT_SEGMAP 0 // #define ENC_DEBUG #ifdef ENC_DEBUG int enc_debug = 0; #endif void vp9_select_interp_filter_type(VP9_COMP *cpi); static void encode_macroblock(VP9_COMP *cpi, TOKENEXTRA **t, int output_enabled, int mb_row, int mb_col); static void encode_superblock32(VP9_COMP *cpi, TOKENEXTRA **t, int output_enabled, int mb_row, int mb_col); static void encode_superblock64(VP9_COMP *cpi, TOKENEXTRA **t, int output_enabled, int mb_row, int mb_col); static void adjust_act_zbin(VP9_COMP *cpi, MACROBLOCK *x); #ifdef MODE_STATS unsigned int inter_y_modes[MB_MODE_COUNT]; unsigned int inter_uv_modes[VP9_UV_MODES]; unsigned int inter_b_modes[B_MODE_COUNT]; unsigned int y_modes[VP9_YMODES]; unsigned int i8x8_modes[VP9_I8X8_MODES]; unsigned int uv_modes[VP9_UV_MODES]; unsigned int uv_modes_y[VP9_YMODES][VP9_UV_MODES]; unsigned int b_modes[B_MODE_COUNT]; #endif /* activity_avg must be positive, or flat regions could get a zero weight * (infinite lambda), which confounds analysis. * This also avoids the need for divide by zero checks in * vp9_activity_masking(). */ #define VP9_ACTIVITY_AVG_MIN (64) /* This is used as a reference when computing the source variance for the * purposes of activity masking. * Eventually this should be replaced by custom no-reference routines, * which will be faster. */ static const uint8_t VP9_VAR_OFFS[16] = { 128, 128, 128, 128, 128, 128, 128, 128, 128, 128, 128, 128, 128, 128, 128, 128 }; // Original activity measure from Tim T's code. static unsigned int tt_activity_measure(VP9_COMP *cpi, MACROBLOCK *x) { unsigned int act; unsigned int sse; /* TODO: This could also be done over smaller areas (8x8), but that would * require extensive changes elsewhere, as lambda is assumed to be fixed * over an entire MB in most of the code. * Another option is to compute four 8x8 variances, and pick a single * lambda using a non-linear combination (e.g., the smallest, or second * smallest, etc.). */ act = vp9_variance16x16(x->src.y_buffer, x->src.y_stride, VP9_VAR_OFFS, 0, &sse); act <<= 4; /* If the region is flat, lower the activity some more. */ if (act < 8 << 12) act = act < 5 << 12 ? act : 5 << 12; return act; } // Stub for alternative experimental activity measures. static unsigned int alt_activity_measure(VP9_COMP *cpi, MACROBLOCK *x, int use_dc_pred) { return vp9_encode_intra(cpi, x, use_dc_pred); } // Measure the activity of the current macroblock // What we measure here is TBD so abstracted to this function #define ALT_ACT_MEASURE 1 static unsigned int mb_activity_measure(VP9_COMP *cpi, MACROBLOCK *x, int mb_row, int mb_col) { unsigned int mb_activity; if (ALT_ACT_MEASURE) { int use_dc_pred = (mb_col || mb_row) && (!mb_col || !mb_row); // Or use and alternative. mb_activity = alt_activity_measure(cpi, x, use_dc_pred); } else { // Original activity measure from Tim T's code. mb_activity = tt_activity_measure(cpi, x); } if (mb_activity < VP9_ACTIVITY_AVG_MIN) mb_activity = VP9_ACTIVITY_AVG_MIN; return mb_activity; } // Calculate an "average" mb activity value for the frame #define ACT_MEDIAN 0 static void calc_av_activity(VP9_COMP *cpi, int64_t activity_sum) { #if ACT_MEDIAN // Find median: Simple n^2 algorithm for experimentation { unsigned int median; unsigned int i, j; unsigned int *sortlist; unsigned int tmp; // Create a list to sort to CHECK_MEM_ERROR(sortlist, vpx_calloc(sizeof(unsigned int), cpi->common.MBs)); // Copy map to sort list vpx_memcpy(sortlist, cpi->mb_activity_map, sizeof(unsigned int) * cpi->common.MBs); // Ripple each value down to its correct position for (i = 1; i < cpi->common.MBs; i ++) { for (j = i; j > 0; j --) { if (sortlist[j] < sortlist[j - 1]) { // Swap values tmp = sortlist[j - 1]; sortlist[j - 1] = sortlist[j]; sortlist[j] = tmp; } else break; } } // Even number MBs so estimate median as mean of two either side. median = (1 + sortlist[cpi->common.MBs >> 1] + sortlist[(cpi->common.MBs >> 1) + 1]) >> 1; cpi->activity_avg = median; vpx_free(sortlist); } #else // Simple mean for now cpi->activity_avg = (unsigned int)(activity_sum / cpi->common.MBs); #endif if (cpi->activity_avg < VP9_ACTIVITY_AVG_MIN) cpi->activity_avg = VP9_ACTIVITY_AVG_MIN; // Experimental code: return fixed value normalized for several clips if (ALT_ACT_MEASURE) cpi->activity_avg = 100000; } #define USE_ACT_INDEX 0 #define OUTPUT_NORM_ACT_STATS 0 #if USE_ACT_INDEX // Calculate and activity index for each mb static void calc_activity_index(VP9_COMP *cpi, MACROBLOCK *x) { VP9_COMMON *const cm = &cpi->common; int mb_row, mb_col; int64_t act; int64_t a; int64_t b; #if OUTPUT_NORM_ACT_STATS FILE *f = fopen("norm_act.stt", "a"); fprintf(f, "\n%12d\n", cpi->activity_avg); #endif // Reset pointers to start of activity map x->mb_activity_ptr = cpi->mb_activity_map; // Calculate normalized mb activity number. for (mb_row = 0; mb_row < cm->mb_rows; mb_row++) { // for each macroblock col in image for (mb_col = 0; mb_col < cm->mb_cols; mb_col++) { // Read activity from the map act = *(x->mb_activity_ptr); // Calculate a normalized activity number a = act + 4 * cpi->activity_avg; b = 4 * act + cpi->activity_avg; if (b >= a) *(x->activity_ptr) = (int)((b + (a >> 1)) / a) - 1; else *(x->activity_ptr) = 1 - (int)((a + (b >> 1)) / b); #if OUTPUT_NORM_ACT_STATS fprintf(f, " %6d", *(x->mb_activity_ptr)); #endif // Increment activity map pointers x->mb_activity_ptr++; } #if OUTPUT_NORM_ACT_STATS fprintf(f, "\n"); #endif } #if OUTPUT_NORM_ACT_STATS fclose(f); #endif } #endif // Loop through all MBs. Note activity of each, average activity and // calculate a normalized activity for each static void build_activity_map(VP9_COMP *cpi) { MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *xd = &x->e_mbd; VP9_COMMON *const cm = &cpi->common; #if ALT_ACT_MEASURE YV12_BUFFER_CONFIG *new_yv12 = &cm->yv12_fb[cm->new_fb_idx]; int recon_yoffset; int recon_y_stride = new_yv12->y_stride; #endif int mb_row, mb_col; unsigned int mb_activity; int64_t activity_sum = 0; // for each macroblock row in image for (mb_row = 0; mb_row < cm->mb_rows; mb_row++) { #if ALT_ACT_MEASURE // reset above block coeffs xd->up_available = (mb_row != 0); recon_yoffset = (mb_row * recon_y_stride * 16); #endif // for each macroblock col in image for (mb_col = 0; mb_col < cm->mb_cols; mb_col++) { #if ALT_ACT_MEASURE xd->dst.y_buffer = new_yv12->y_buffer + recon_yoffset; xd->left_available = (mb_col != 0); recon_yoffset += 16; #endif // measure activity mb_activity = mb_activity_measure(cpi, x, mb_row, mb_col); // Keep frame sum activity_sum += mb_activity; // Store MB level activity details. *x->mb_activity_ptr = mb_activity; // Increment activity map pointer x->mb_activity_ptr++; // adjust to the next column of source macroblocks x->src.y_buffer += 16; } // adjust to the next row of mbs x->src.y_buffer += 16 * x->src.y_stride - 16 * cm->mb_cols; #if ALT_ACT_MEASURE // extend the recon for intra prediction vp9_extend_mb_row(new_yv12, xd->dst.y_buffer + 16, xd->dst.u_buffer + 8, xd->dst.v_buffer + 8); #endif } // Calculate an "average" MB activity calc_av_activity(cpi, activity_sum); #if USE_ACT_INDEX // Calculate an activity index number of each mb calc_activity_index(cpi, x); #endif } // Macroblock activity masking void vp9_activity_masking(VP9_COMP *cpi, MACROBLOCK *x) { #if USE_ACT_INDEX x->rdmult += *(x->mb_activity_ptr) * (x->rdmult >> 2); x->errorperbit = x->rdmult * 100 / (110 * x->rddiv); x->errorperbit += (x->errorperbit == 0); #else int64_t a; int64_t b; int64_t act = *(x->mb_activity_ptr); // Apply the masking to the RD multiplier. a = act + (2 * cpi->activity_avg); b = (2 * act) + cpi->activity_avg; x->rdmult = (unsigned int)(((int64_t)x->rdmult * b + (a >> 1)) / a); x->errorperbit = x->rdmult * 100 / (110 * x->rddiv); x->errorperbit += (x->errorperbit == 0); #endif // Activity based Zbin adjustment adjust_act_zbin(cpi, x); } #if CONFIG_NEW_MVREF static int vp9_cost_mv_ref_id(vp9_prob * ref_id_probs, int mv_ref_id) { int cost; // Encode the index for the MV reference. switch (mv_ref_id) { case 0: cost = vp9_cost_zero(ref_id_probs[0]); break; case 1: cost = vp9_cost_one(ref_id_probs[0]); cost += vp9_cost_zero(ref_id_probs[1]); break; case 2: cost = vp9_cost_one(ref_id_probs[0]); cost += vp9_cost_one(ref_id_probs[1]); cost += vp9_cost_zero(ref_id_probs[2]); break; case 3: cost = vp9_cost_one(ref_id_probs[0]); cost += vp9_cost_one(ref_id_probs[1]); cost += vp9_cost_one(ref_id_probs[2]); break; // TRAP.. This should not happen default: assert(0); break; } return cost; } // Estimate the cost of each coding the vector using each reference candidate static unsigned int pick_best_mv_ref(MACROBLOCK *x, MV_REFERENCE_FRAME ref_frame, int_mv target_mv, int_mv * mv_ref_list, int_mv * best_ref) { int i; int best_index = 0; int cost, cost2; int zero_seen = (mv_ref_list[0].as_int) ? FALSE : TRUE; MACROBLOCKD *xd = &x->e_mbd; int max_mv = MV_MAX; cost = vp9_cost_mv_ref_id(xd->mb_mv_ref_probs[ref_frame], 0) + vp9_mv_bit_cost(&target_mv, &mv_ref_list[0], x->nmvjointcost, x->mvcost, 96, xd->allow_high_precision_mv); for (i = 1; i < MAX_MV_REF_CANDIDATES; ++i) { // If we see a 0,0 reference vector for a second time we have reached // the end of the list of valid candidate vectors. if (!mv_ref_list[i].as_int) { if (zero_seen) break; else zero_seen = TRUE; } // Check for cases where the reference choice would give rise to an // uncodable/out of range residual for row or col. if ((abs(target_mv.as_mv.row - mv_ref_list[i].as_mv.row) > max_mv) || (abs(target_mv.as_mv.col - mv_ref_list[i].as_mv.col) > max_mv)) { continue; } cost2 = vp9_cost_mv_ref_id(xd->mb_mv_ref_probs[ref_frame], i) + vp9_mv_bit_cost(&target_mv, &mv_ref_list[i], x->nmvjointcost, x->mvcost, 96, xd->allow_high_precision_mv); if (cost2 < cost) { cost = cost2; best_index = i; } } best_ref->as_int = mv_ref_list[best_index].as_int; return best_index; } #endif static void update_state(VP9_COMP *cpi, PICK_MODE_CONTEXT *ctx, int block_size, int output_enabled) { int i, x_idx, y; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; MODE_INFO *mi = &ctx->mic; MB_MODE_INFO *const mbmi = &xd->mode_info_context->mbmi; int mb_mode = mi->mbmi.mode; int mb_mode_index = ctx->best_mode_index; const int mis = cpi->common.mode_info_stride; int mb_block_size = 1 << mi->mbmi.sb_type; #if CONFIG_DEBUG assert(mb_mode < MB_MODE_COUNT); assert(mb_mode_index < MAX_MODES); assert(mi->mbmi.ref_frame < MAX_REF_FRAMES); #endif assert(mi->mbmi.sb_type == (block_size >> 5)); // Restore the coding context of the MB to that that was in place // when the mode was picked for it for (y = 0; y < mb_block_size; y++) { for (x_idx = 0; x_idx < mb_block_size; x_idx++) { if ((xd->mb_to_right_edge >> 7) + mb_block_size > x_idx && (xd->mb_to_bottom_edge >> 7) + mb_block_size > y) { MODE_INFO *mi_addr = xd->mode_info_context + x_idx + y * mis; vpx_memcpy(mi_addr, mi, sizeof(MODE_INFO)); } } } if (block_size == 16) { ctx->txfm_rd_diff[ALLOW_32X32] = ctx->txfm_rd_diff[ALLOW_16X16]; } if (mb_mode == B_PRED) { for (i = 0; i < 16; i++) { xd->block[i].bmi.as_mode = xd->mode_info_context->bmi[i].as_mode; assert(xd->block[i].bmi.as_mode.first < B_MODE_COUNT); } } else if (mb_mode == I8X8_PRED) { for (i = 0; i < 16; i++) { xd->block[i].bmi = xd->mode_info_context->bmi[i]; } } else if (mb_mode == SPLITMV) { vpx_memcpy(x->partition_info, &ctx->partition_info, sizeof(PARTITION_INFO)); mbmi->mv[0].as_int = x->partition_info->bmi[15].mv.as_int; mbmi->mv[1].as_int = x->partition_info->bmi[15].second_mv.as_int; } x->skip = ctx->skip; if (!output_enabled) return; { int segment_id = mbmi->segment_id; if (!vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)) { for (i = 0; i < NB_TXFM_MODES; i++) { cpi->rd_tx_select_diff[i] += ctx->txfm_rd_diff[i]; } } } if (cpi->common.frame_type == KEY_FRAME) { // Restore the coding modes to that held in the coding context // if (mb_mode == B_PRED) // for (i = 0; i < 16; i++) // { // xd->block[i].bmi.as_mode = // xd->mode_info_context->bmi[i].as_mode; // assert(xd->mode_info_context->bmi[i].as_mode < MB_MODE_COUNT); // } #if CONFIG_INTERNAL_STATS static const int kf_mode_index[] = { THR_DC /*DC_PRED*/, THR_V_PRED /*V_PRED*/, THR_H_PRED /*H_PRED*/, THR_D45_PRED /*D45_PRED*/, THR_D135_PRED /*D135_PRED*/, THR_D117_PRED /*D117_PRED*/, THR_D153_PRED /*D153_PRED*/, THR_D27_PRED /*D27_PRED*/, THR_D63_PRED /*D63_PRED*/, THR_TM /*TM_PRED*/, THR_I8X8_PRED /*I8X8_PRED*/, THR_B_PRED /*B_PRED*/, }; cpi->mode_chosen_counts[kf_mode_index[mb_mode]]++; #endif } else { /* // Reduce the activation RD thresholds for the best choice mode if ((cpi->rd_baseline_thresh[mb_mode_index] > 0) && (cpi->rd_baseline_thresh[mb_mode_index] < (INT_MAX >> 2))) { int best_adjustment = (cpi->rd_thresh_mult[mb_mode_index] >> 2); cpi->rd_thresh_mult[mb_mode_index] = (cpi->rd_thresh_mult[mb_mode_index] >= (MIN_THRESHMULT + best_adjustment)) ? cpi->rd_thresh_mult[mb_mode_index] - best_adjustment : MIN_THRESHMULT; cpi->rd_threshes[mb_mode_index] = (cpi->rd_baseline_thresh[mb_mode_index] >> 7) * cpi->rd_thresh_mult[mb_mode_index]; } */ // Note how often each mode chosen as best cpi->mode_chosen_counts[mb_mode_index]++; if (mbmi->mode == SPLITMV || mbmi->mode == NEWMV) { int_mv best_mv, best_second_mv; MV_REFERENCE_FRAME rf = mbmi->ref_frame; #if CONFIG_NEW_MVREF unsigned int best_index; MV_REFERENCE_FRAME sec_ref_frame = mbmi->second_ref_frame; #endif best_mv.as_int = ctx->best_ref_mv.as_int; best_second_mv.as_int = ctx->second_best_ref_mv.as_int; if (mbmi->mode == NEWMV) { best_mv.as_int = mbmi->ref_mvs[rf][0].as_int; best_second_mv.as_int = mbmi->ref_mvs[mbmi->second_ref_frame][0].as_int; #if CONFIG_NEW_MVREF best_index = pick_best_mv_ref(x, rf, mbmi->mv[0], mbmi->ref_mvs[rf], &best_mv); mbmi->best_index = best_index; ++cpi->mb_mv_ref_count[rf][best_index]; if (mbmi->second_ref_frame > 0) { unsigned int best_index; best_index = pick_best_mv_ref(x, sec_ref_frame, mbmi->mv[1], mbmi->ref_mvs[sec_ref_frame], &best_second_mv); mbmi->best_second_index = best_index; ++cpi->mb_mv_ref_count[sec_ref_frame][best_index]; } #endif } mbmi->best_mv.as_int = best_mv.as_int; mbmi->best_second_mv.as_int = best_second_mv.as_int; vp9_update_nmv_count(cpi, x, &best_mv, &best_second_mv); } #if CONFIG_COMP_INTERINTRA_PRED if (mbmi->mode >= NEARESTMV && mbmi->mode < SPLITMV && mbmi->second_ref_frame <= INTRA_FRAME) { if (mbmi->second_ref_frame == INTRA_FRAME) { ++cpi->interintra_count[1]; ++cpi->ymode_count[mbmi->interintra_mode]; #if SEPARATE_INTERINTRA_UV ++cpi->y_uv_mode_count[mbmi->interintra_mode][mbmi->interintra_uv_mode]; #endif } else { ++cpi->interintra_count[0]; } } #endif if (cpi->common.mcomp_filter_type == SWITCHABLE && mbmi->mode >= NEARESTMV && mbmi->mode <= SPLITMV) { ++cpi->switchable_interp_count [vp9_get_pred_context(&cpi->common, xd, PRED_SWITCHABLE_INTERP)] [vp9_switchable_interp_map[mbmi->interp_filter]]; } cpi->rd_comp_pred_diff[SINGLE_PREDICTION_ONLY] += ctx->single_pred_diff; cpi->rd_comp_pred_diff[COMP_PREDICTION_ONLY] += ctx->comp_pred_diff; cpi->rd_comp_pred_diff[HYBRID_PREDICTION] += ctx->hybrid_pred_diff; } } static unsigned find_seg_id(uint8_t *buf, int block_size, int start_y, int height, int start_x, int width) { const int end_x = MIN(start_x + block_size, width); const int end_y = MIN(start_y + block_size, height); int x, y; unsigned seg_id = -1; buf += width * start_y; for (y = start_y; y < end_y; y++, buf += width) { for (x = start_x; x < end_x; x++) { seg_id = MIN(seg_id, buf[x]); } } return seg_id; } static void set_offsets(VP9_COMP *cpi, int mb_row, int mb_col, int block_size) { MACROBLOCK *const x = &cpi->mb; VP9_COMMON *const cm = &cpi->common; MACROBLOCKD *const xd = &x->e_mbd; MB_MODE_INFO *mbmi; const int dst_fb_idx = cm->new_fb_idx; const int idx_map = mb_row * cm->mb_cols + mb_col; const int idx_str = xd->mode_info_stride * mb_row + mb_col; // entropy context structures xd->above_context = cm->above_context + mb_col; xd->left_context = cm->left_context + (mb_row & 3); // GF active flags data structure x->gf_active_ptr = (signed char *)&cpi->gf_active_flags[idx_map]; // Activity map pointer x->mb_activity_ptr = &cpi->mb_activity_map[idx_map]; x->active_ptr = cpi->active_map + idx_map; /* pointers to mode info contexts */ x->partition_info = x->pi + idx_str; xd->mode_info_context = cm->mi + idx_str; mbmi = &xd->mode_info_context->mbmi; xd->prev_mode_info_context = cm->prev_mi + idx_str; // Set up destination pointers setup_pred_block(&xd->dst, &cm->yv12_fb[dst_fb_idx], mb_row, mb_col, NULL, NULL); /* Set up limit values for MV components to prevent them from * extending beyond the UMV borders assuming 16x16 block size */ x->mv_row_min = -((mb_row * 16) + VP9BORDERINPIXELS - VP9_INTERP_EXTEND); x->mv_col_min = -((mb_col * 16) + VP9BORDERINPIXELS - VP9_INTERP_EXTEND); x->mv_row_max = ((cm->mb_rows - mb_row) * 16 + (VP9BORDERINPIXELS - block_size - VP9_INTERP_EXTEND)); x->mv_col_max = ((cm->mb_cols - mb_col) * 16 + (VP9BORDERINPIXELS - block_size - VP9_INTERP_EXTEND)); // Set up distance of MB to edge of frame in 1/8th pel units block_size >>= 4; // in macroblock units assert(!(mb_col & (block_size - 1)) && !(mb_row & (block_size - 1))); set_mb_row(cm, xd, mb_row, block_size); set_mb_col(cm, xd, mb_col, block_size); /* set up source buffers */ setup_pred_block(&x->src, cpi->Source, mb_row, mb_col, NULL, NULL); /* R/D setup */ x->rddiv = cpi->RDDIV; x->rdmult = cpi->RDMULT; /* segment ID */ if (xd->segmentation_enabled) { if (xd->update_mb_segmentation_map) { mbmi->segment_id = find_seg_id(cpi->segmentation_map, block_size, mb_row, cm->mb_rows, mb_col, cm->mb_cols); } else { mbmi->segment_id = find_seg_id(cm->last_frame_seg_map, block_size, mb_row, cm->mb_rows, mb_col, cm->mb_cols); } assert(mbmi->segment_id <= 3); vp9_mb_init_quantizer(cpi, x); if (xd->segmentation_enabled && cpi->seg0_cnt > 0 && !vp9_segfeature_active(xd, 0, SEG_LVL_REF_FRAME) && vp9_segfeature_active(xd, 1, SEG_LVL_REF_FRAME) && vp9_check_segref(xd, 1, INTRA_FRAME) + vp9_check_segref(xd, 1, LAST_FRAME) + vp9_check_segref(xd, 1, GOLDEN_FRAME) + vp9_check_segref(xd, 1, ALTREF_FRAME) == 1) { cpi->seg0_progress = (cpi->seg0_idx << 16) / cpi->seg0_cnt; } else { const int y = mb_row & ~3; const int x = mb_col & ~3; const int p16 = ((mb_row & 1) << 1) + (mb_col & 1); const int p32 = ((mb_row & 2) << 2) + ((mb_col & 2) << 1); const int tile_progress = cm->cur_tile_mb_col_start * cm->mb_rows; const int mb_cols = cm->cur_tile_mb_col_end - cm->cur_tile_mb_col_start; cpi->seg0_progress = ((y * mb_cols + x * 4 + p32 + p16 + tile_progress) << 16) / cm->MBs; } } else { mbmi->segment_id = 0; } } static int pick_mb_modes(VP9_COMP *cpi, int mb_row0, int mb_col0, TOKENEXTRA **tp, int *totalrate, int *totaldist) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; int i; int splitmodes_used = 0; ENTROPY_CONTEXT_PLANES left_context[2]; ENTROPY_CONTEXT_PLANES above_context[2]; ENTROPY_CONTEXT_PLANES *initial_above_context_ptr = cm->above_context + mb_col0; /* Function should not modify L & A contexts; save and restore on exit */ vpx_memcpy(left_context, cm->left_context + (mb_row0 & 2), sizeof(left_context)); vpx_memcpy(above_context, initial_above_context_ptr, sizeof(above_context)); /* Encode MBs in raster order within the SB */ for (i = 0; i < 4; i++) { const int x_idx = i & 1, y_idx = i >> 1; const int mb_row = mb_row0 + y_idx; const int mb_col = mb_col0 + x_idx; MB_MODE_INFO *mbmi; if ((mb_row >= cm->mb_rows) || (mb_col >= cm->mb_cols)) { // MB lies outside frame, move on continue; } // Index of the MB in the SB 0..3 xd->mb_index = i; set_offsets(cpi, mb_row, mb_col, 16); if (cpi->oxcf.tuning == VP8_TUNE_SSIM) vp9_activity_masking(cpi, x); mbmi = &xd->mode_info_context->mbmi; mbmi->sb_type = BLOCK_SIZE_MB16X16; // Find best coding mode & reconstruct the MB so it is available // as a predictor for MBs that follow in the SB if (cm->frame_type == KEY_FRAME) { int r, d; #ifdef ENC_DEBUG if (enc_debug) printf("intra pick_mb_modes %d %d\n", mb_row, mb_col); #endif vp9_rd_pick_intra_mode(cpi, x, &r, &d); *totalrate += r; *totaldist += d; // Dummy encode, do not do the tokenization encode_macroblock(cpi, tp, 0, mb_row, mb_col); // Note the encoder may have changed the segment_id // Save the coding context vpx_memcpy(&x->mb_context[xd->sb_index][i].mic, xd->mode_info_context, sizeof(MODE_INFO)); } else { int seg_id, r, d; #ifdef ENC_DEBUG if (enc_debug) printf("inter pick_mb_modes %d %d\n", mb_row, mb_col); #endif vp9_pick_mode_inter_macroblock(cpi, x, mb_row, mb_col, &r, &d); *totalrate += r; *totaldist += d; splitmodes_used += (mbmi->mode == SPLITMV); // Dummy encode, do not do the tokenization encode_macroblock(cpi, tp, 0, mb_row, mb_col); seg_id = mbmi->segment_id; if (cpi->mb.e_mbd.segmentation_enabled && seg_id == 0) { cpi->seg0_idx++; } if (!xd->segmentation_enabled || !vp9_segfeature_active(xd, seg_id, SEG_LVL_REF_FRAME) || vp9_check_segref(xd, seg_id, INTRA_FRAME) + vp9_check_segref(xd, seg_id, LAST_FRAME) + vp9_check_segref(xd, seg_id, GOLDEN_FRAME) + vp9_check_segref(xd, seg_id, ALTREF_FRAME) > 1) { // Get the prediction context and status int pred_flag = vp9_get_pred_flag(xd, PRED_REF); int pred_context = vp9_get_pred_context(cm, xd, PRED_REF); // Count prediction success cpi->ref_pred_count[pred_context][pred_flag]++; } } } /* Restore L & A coding context to those in place on entry */ vpx_memcpy(cm->left_context + (mb_row0 & 2), left_context, sizeof(left_context)); vpx_memcpy(initial_above_context_ptr, above_context, sizeof(above_context)); return splitmodes_used; } static void pick_sb_modes(VP9_COMP *cpi, int mb_row, int mb_col, TOKENEXTRA **tp, int *totalrate, int *totaldist) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; set_offsets(cpi, mb_row, mb_col, 32); xd->mode_info_context->mbmi.sb_type = BLOCK_SIZE_SB32X32; if (cpi->oxcf.tuning == VP8_TUNE_SSIM) vp9_activity_masking(cpi, x); /* Find best coding mode & reconstruct the MB so it is available * as a predictor for MBs that follow in the SB */ if (cm->frame_type == KEY_FRAME) { vp9_rd_pick_intra_mode_sb32(cpi, x, totalrate, totaldist); /* Save the coding context */ vpx_memcpy(&x->sb32_context[xd->sb_index].mic, xd->mode_info_context, sizeof(MODE_INFO)); } else { vp9_rd_pick_inter_mode_sb32(cpi, x, mb_row, mb_col, totalrate, totaldist); } } static void pick_sb64_modes(VP9_COMP *cpi, int mb_row, int mb_col, TOKENEXTRA **tp, int *totalrate, int *totaldist) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; set_offsets(cpi, mb_row, mb_col, 64); xd->mode_info_context->mbmi.sb_type = BLOCK_SIZE_SB64X64; if (cpi->oxcf.tuning == VP8_TUNE_SSIM) vp9_activity_masking(cpi, x); /* Find best coding mode & reconstruct the MB so it is available * as a predictor for MBs that follow in the SB */ if (cm->frame_type == KEY_FRAME) { vp9_rd_pick_intra_mode_sb64(cpi, x, totalrate, totaldist); /* Save the coding context */ vpx_memcpy(&x->sb64_context.mic, xd->mode_info_context, sizeof(MODE_INFO)); } else { vp9_rd_pick_inter_mode_sb64(cpi, x, mb_row, mb_col, totalrate, totaldist); } } static void update_stats(VP9_COMP *cpi, int mb_row, int mb_col) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; MODE_INFO *mi = xd->mode_info_context; MB_MODE_INFO *const mbmi = &mi->mbmi; if (cm->frame_type == KEY_FRAME) { #ifdef MODE_STATS y_modes[mbmi->mode]++; #endif } else { int segment_id, seg_ref_active; if (mbmi->ref_frame) { int pred_context = vp9_get_pred_context(cm, xd, PRED_COMP); if (mbmi->second_ref_frame <= INTRA_FRAME) cpi->single_pred_count[pred_context]++; else cpi->comp_pred_count[pred_context]++; } #ifdef MODE_STATS inter_y_modes[mbmi->mode]++; if (mbmi->mode == SPLITMV) { int b; for (b = 0; b < x->partition_info->count; b++) { inter_b_modes[x->partition_info->bmi[b].mode]++; } } #endif // If we have just a single reference frame coded for a segment then // exclude from the reference frame counts used to work out // probabilities. NOTE: At the moment we dont support custom trees // for the reference frame coding for each segment but this is a // possible future action. segment_id = mbmi->segment_id; seg_ref_active = vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME); if (!seg_ref_active || ((vp9_check_segref(xd, segment_id, INTRA_FRAME) + vp9_check_segref(xd, segment_id, LAST_FRAME) + vp9_check_segref(xd, segment_id, GOLDEN_FRAME) + vp9_check_segref(xd, segment_id, ALTREF_FRAME)) > 1)) { cpi->count_mb_ref_frame_usage[mbmi->ref_frame]++; } // Count of last ref frame 0,0 usage if ((mbmi->mode == ZEROMV) && (mbmi->ref_frame == LAST_FRAME)) cpi->inter_zz_count++; } #if CONFIG_CODE_NONZEROCOUNT vp9_update_nzc_counts(&cpi->common, xd, mb_row, mb_col); #endif } static void encode_sb(VP9_COMP *cpi, int mb_row, int mb_col, int output_enabled, TOKENEXTRA **tp, int is_sb) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; cpi->sb32_count[is_sb]++; if (is_sb) { set_offsets(cpi, mb_row, mb_col, 32); update_state(cpi, &x->sb32_context[xd->sb_index], 32, output_enabled); encode_superblock32(cpi, tp, output_enabled, mb_row, mb_col); if (output_enabled) { update_stats(cpi, mb_row, mb_col); } if (output_enabled) { (*tp)->Token = EOSB_TOKEN; (*tp)++; if (mb_row < cm->mb_rows) cpi->tplist[mb_row].stop = *tp; } } else { int i; for (i = 0; i < 4; i++) { const int x_idx = i & 1, y_idx = i >> 1; if ((mb_row + y_idx >= cm->mb_rows) || (mb_col + x_idx >= cm->mb_cols)) { // MB lies outside frame, move on continue; } set_offsets(cpi, mb_row + y_idx, mb_col + x_idx, 16); xd->mb_index = i; update_state(cpi, &x->mb_context[xd->sb_index][i], 16, output_enabled); if (cpi->oxcf.tuning == VP8_TUNE_SSIM) vp9_activity_masking(cpi, x); encode_macroblock(cpi, tp, output_enabled, mb_row + y_idx, mb_col + x_idx); if (output_enabled) { update_stats(cpi, mb_row + y_idx, mb_col + x_idx); } if (output_enabled) { (*tp)->Token = EOSB_TOKEN; (*tp)++; if (mb_row + y_idx < cm->mb_rows) cpi->tplist[mb_row + y_idx].stop = *tp; } } } // debug output #if DBG_PRNT_SEGMAP { FILE *statsfile; statsfile = fopen("segmap2.stt", "a"); fprintf(statsfile, "\n"); fclose(statsfile); } #endif } static void encode_sb64(VP9_COMP *cpi, int mb_row, int mb_col, TOKENEXTRA **tp, int is_sb[4]) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; cpi->sb64_count[is_sb[0] == 2]++; if (is_sb[0] == 2) { set_offsets(cpi, mb_row, mb_col, 64); update_state(cpi, &x->sb64_context, 64, 1); encode_superblock64(cpi, tp, 1, mb_row, mb_col); update_stats(cpi, mb_row, mb_col); (*tp)->Token = EOSB_TOKEN; (*tp)++; if (mb_row < cm->mb_rows) cpi->tplist[mb_row].stop = *tp; } else { int i; for (i = 0; i < 4; i++) { const int x_idx = i & 1, y_idx = i >> 1; if (mb_row + y_idx * 2 >= cm->mb_rows || mb_col + x_idx * 2 >= cm->mb_cols) { // MB lies outside frame, move on continue; } xd->sb_index = i; encode_sb(cpi, mb_row + 2 * y_idx, mb_col + 2 * x_idx, 1, tp, is_sb[i]); } } } static void encode_sb_row(VP9_COMP *cpi, int mb_row, TOKENEXTRA **tp, int *totalrate) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; int mb_col; // Initialize the left context for the new SB row vpx_memset(cm->left_context, 0, sizeof(cm->left_context)); // Code each SB in the row for (mb_col = cm->cur_tile_mb_col_start; mb_col < cm->cur_tile_mb_col_end; mb_col += 4) { int i; int sb32_rate = 0, sb32_dist = 0; int is_sb[4]; int sb64_rate = INT_MAX, sb64_dist; int sb64_skip = 0; ENTROPY_CONTEXT_PLANES l[4], a[4]; TOKENEXTRA *tp_orig = *tp; memcpy(&a, cm->above_context + mb_col, sizeof(a)); memcpy(&l, cm->left_context, sizeof(l)); for (i = 0; i < 4; i++) { const int x_idx = (i & 1) << 1, y_idx = i & 2; int mb_rate = 0, mb_dist = 0; int sb_rate = INT_MAX, sb_dist; int splitmodes_used = 0; int sb32_skip = 0; if (mb_row + y_idx >= cm->mb_rows || mb_col + x_idx >= cm->mb_cols) continue; xd->sb_index = i; splitmodes_used = pick_mb_modes(cpi, mb_row + y_idx, mb_col + x_idx, tp, &mb_rate, &mb_dist); mb_rate += vp9_cost_bit(cm->sb32_coded, 0); if (cpi->sf.splitmode_breakout) { sb32_skip = splitmodes_used; sb64_skip += splitmodes_used; } if ( !sb32_skip && !(((cm->mb_cols & 1) && mb_col + x_idx == cm->mb_cols - 1) || ((cm->mb_rows & 1) && mb_row + y_idx == cm->mb_rows - 1))) { /* Pick a mode assuming that it applies to all 4 of the MBs in the SB */ pick_sb_modes(cpi, mb_row + y_idx, mb_col + x_idx, tp, &sb_rate, &sb_dist); sb_rate += vp9_cost_bit(cm->sb32_coded, 1); } /* Decide whether to encode as a SB or 4xMBs */ if (sb_rate < INT_MAX && RDCOST(x->rdmult, x->rddiv, sb_rate, sb_dist) < RDCOST(x->rdmult, x->rddiv, mb_rate, mb_dist)) { is_sb[i] = 1; sb32_rate += sb_rate; sb32_dist += sb_dist; } else { is_sb[i] = 0; sb32_rate += mb_rate; sb32_dist += mb_dist; // If we used 16x16 instead of 32x32 then skip 64x64 (if enabled). if (cpi->sf.mb16_breakout) { ++sb64_skip; } } /* Encode SB using best computed mode(s) */ // FIXME(rbultje): there really shouldn't be any need to encode_mb/sb // for each level that we go up, we can just keep tokens and recon // pixels of the lower level; also, inverting SB/MB order (big->small // instead of small->big) means we can use as threshold for small, which // may enable breakouts if RD is not good enough (i.e. faster) encode_sb(cpi, mb_row + y_idx, mb_col + x_idx, 0, tp, is_sb[i]); } memcpy(cm->above_context + mb_col, &a, sizeof(a)); memcpy(cm->left_context, &l, sizeof(l)); sb32_rate += vp9_cost_bit(cm->sb64_coded, 0); if (!sb64_skip && !(((cm->mb_cols & 3) && mb_col + 3 >= cm->mb_cols) || ((cm->mb_rows & 3) && mb_row + 3 >= cm->mb_rows))) { pick_sb64_modes(cpi, mb_row, mb_col, tp, &sb64_rate, &sb64_dist); sb64_rate += vp9_cost_bit(cm->sb64_coded, 1); } /* Decide whether to encode as a SB or 4xMBs */ if (sb64_rate < INT_MAX && RDCOST(x->rdmult, x->rddiv, sb64_rate, sb64_dist) < RDCOST(x->rdmult, x->rddiv, sb32_rate, sb32_dist)) { is_sb[0] = 2; *totalrate += sb64_rate; } else { *totalrate += sb32_rate; } assert(tp_orig == *tp); encode_sb64(cpi, mb_row, mb_col, tp, is_sb); assert(tp_orig < *tp); } } static void init_encode_frame_mb_context(VP9_COMP *cpi) { MACROBLOCK *const x = &cpi->mb; VP9_COMMON *const cm = &cpi->common; MACROBLOCKD *const xd = &x->e_mbd; x->act_zbin_adj = 0; cpi->seg0_idx = 0; vpx_memset(cpi->ref_pred_count, 0, sizeof(cpi->ref_pred_count)); xd->mode_info_stride = cm->mode_info_stride; xd->frame_type = cm->frame_type; xd->frames_since_golden = cm->frames_since_golden; xd->frames_till_alt_ref_frame = cm->frames_till_alt_ref_frame; // reset intra mode contexts if (cm->frame_type == KEY_FRAME) vp9_init_mbmode_probs(cm); // Copy data over into macro block data structures. x->src = *cpi->Source; xd->pre = cm->yv12_fb[cm->ref_frame_map[cpi->lst_fb_idx]]; xd->dst = cm->yv12_fb[cm->new_fb_idx]; // set up frame for intra coded blocks vp9_setup_intra_recon(&cm->yv12_fb[cm->new_fb_idx]); vp9_build_block_offsets(x); vp9_setup_block_dptrs(&x->e_mbd); vp9_setup_block_ptrs(x); xd->mode_info_context->mbmi.mode = DC_PRED; xd->mode_info_context->mbmi.uv_mode = DC_PRED; vp9_zero(cpi->count_mb_ref_frame_usage) vp9_zero(cpi->bmode_count) vp9_zero(cpi->ymode_count) vp9_zero(cpi->i8x8_mode_count) vp9_zero(cpi->y_uv_mode_count) vp9_zero(cpi->sub_mv_ref_count) vp9_zero(cpi->mbsplit_count) vp9_zero(cpi->common.fc.mv_ref_ct) vp9_zero(cpi->sb_ymode_count) vp9_zero(cpi->sb32_count); vp9_zero(cpi->sb64_count); #if CONFIG_COMP_INTERINTRA_PRED vp9_zero(cpi->interintra_count); vp9_zero(cpi->interintra_select_count); #endif vpx_memset(cm->above_context, 0, sizeof(ENTROPY_CONTEXT_PLANES) * cm->mb_cols); xd->fullpixel_mask = cm->full_pixel ? 0xfffffff8 : 0xffffffff; } static void switch_lossless_mode(VP9_COMP *cpi, int lossless) { if (lossless) { cpi->mb.fwd_txm8x4 = vp9_short_walsh8x4; cpi->mb.fwd_txm4x4 = vp9_short_walsh4x4; cpi->mb.e_mbd.inv_txm4x4_1 = vp9_short_iwalsh4x4_1; cpi->mb.e_mbd.inv_txm4x4 = vp9_short_iwalsh4x4; cpi->mb.optimize = 0; cpi->common.filter_level = 0; cpi->zbin_mode_boost_enabled = FALSE; cpi->common.txfm_mode = ONLY_4X4; } else { cpi->mb.fwd_txm8x4 = vp9_short_fdct8x4; cpi->mb.fwd_txm4x4 = vp9_short_fdct4x4; cpi->mb.e_mbd.inv_txm4x4_1 = vp9_short_idct4x4_1; cpi->mb.e_mbd.inv_txm4x4 = vp9_short_idct4x4; } } static void encode_frame_internal(VP9_COMP *cpi) { int mb_row; MACROBLOCK *const x = &cpi->mb; VP9_COMMON *const cm = &cpi->common; MACROBLOCKD *const xd = &x->e_mbd; int totalrate; // fprintf(stderr, "encode_frame_internal frame %d (%d) type %d\n", // cpi->common.current_video_frame, cpi->common.show_frame, // cm->frame_type); // Compute a modified set of reference frame probabilities to use when // prediction fails. These are based on the current general estimates for // this frame which may be updated with each iteration of the recode loop. vp9_compute_mod_refprobs(cm); // debug output #if DBG_PRNT_SEGMAP { FILE *statsfile; statsfile = fopen("segmap2.stt", "a"); fprintf(statsfile, "\n"); fclose(statsfile); } #endif totalrate = 0; // Reset frame count of inter 0,0 motion vector usage. cpi->inter_zz_count = 0; cpi->skip_true_count[0] = cpi->skip_true_count[1] = cpi->skip_true_count[2] = 0; cpi->skip_false_count[0] = cpi->skip_false_count[1] = cpi->skip_false_count[2] = 0; vp9_zero(cpi->switchable_interp_count); vp9_zero(cpi->best_switchable_interp_count); xd->mode_info_context = cm->mi; xd->prev_mode_info_context = cm->prev_mi; vp9_zero(cpi->NMVcount); vp9_zero(cpi->coef_counts_4x4); vp9_zero(cpi->coef_counts_8x8); vp9_zero(cpi->coef_counts_16x16); vp9_zero(cpi->coef_counts_32x32); #if CONFIG_CODE_NONZEROCOUNT vp9_zero(cm->fc.nzc_counts_4x4); vp9_zero(cm->fc.nzc_counts_8x8); vp9_zero(cm->fc.nzc_counts_16x16); vp9_zero(cm->fc.nzc_counts_32x32); vp9_zero(cm->fc.nzc_pcat_counts); #endif #if CONFIG_NEW_MVREF vp9_zero(cpi->mb_mv_ref_count); #endif // force lossless mode if (cm->base_qindex <= 4) cm->base_qindex = 0; cpi->mb.e_mbd.lossless = (cm->base_qindex == 0 && cm->y1dc_delta_q == 0 && cm->uvdc_delta_q == 0 && cm->uvac_delta_q == 0); switch_lossless_mode(cpi, cpi->mb.e_mbd.lossless); vp9_frame_init_quantizer(cpi); vp9_initialize_rd_consts(cpi, cm->base_qindex + cm->y1dc_delta_q); vp9_initialize_me_consts(cpi, cm->base_qindex); if (cpi->oxcf.tuning == VP8_TUNE_SSIM) { // Initialize encode frame context. init_encode_frame_mb_context(cpi); // Build a frame level activity map build_activity_map(cpi); } // re-initencode frame context. init_encode_frame_mb_context(cpi); vpx_memset(cpi->rd_comp_pred_diff, 0, sizeof(cpi->rd_comp_pred_diff)); vpx_memset(cpi->single_pred_count, 0, sizeof(cpi->single_pred_count)); vpx_memset(cpi->comp_pred_count, 0, sizeof(cpi->comp_pred_count)); vpx_memset(cpi->txfm_count_32x32p, 0, sizeof(cpi->txfm_count_32x32p)); vpx_memset(cpi->txfm_count_16x16p, 0, sizeof(cpi->txfm_count_16x16p)); vpx_memset(cpi->txfm_count_8x8p, 0, sizeof(cpi->txfm_count_8x8p)); vpx_memset(cpi->rd_tx_select_diff, 0, sizeof(cpi->rd_tx_select_diff)); { struct vpx_usec_timer emr_timer; vpx_usec_timer_start(&emr_timer); { // Take tiles into account and give start/end MB int tile_col, tile_row; TOKENEXTRA *tp = cpi->tok; for (tile_row = 0; tile_row < cm->tile_rows; tile_row++) { vp9_get_tile_row_offsets(cm, tile_row); for (tile_col = 0; tile_col < cm->tile_columns; tile_col++) { TOKENEXTRA *tp_old = tp; // For each row of SBs in the frame vp9_get_tile_col_offsets(cm, tile_col); for (mb_row = cm->cur_tile_mb_row_start; mb_row < cm->cur_tile_mb_row_end; mb_row += 4) { encode_sb_row(cpi, mb_row, &tp, &totalrate); } cpi->tok_count[tile_col] = (unsigned int)(tp - tp_old); } } } vpx_usec_timer_mark(&emr_timer); cpi->time_encode_mb_row += vpx_usec_timer_elapsed(&emr_timer); } // 256 rate units to the bit, // projected_frame_size in units of BYTES cpi->projected_frame_size = totalrate >> 8; #if 0 // Keep record of the total distortion this time around for future use cpi->last_frame_distortion = cpi->frame_distortion; #endif } static int check_dual_ref_flags(VP9_COMP *cpi) { MACROBLOCKD *xd = &cpi->mb.e_mbd; int ref_flags = cpi->ref_frame_flags; if (vp9_segfeature_active(xd, 1, SEG_LVL_REF_FRAME)) { if ((ref_flags & (VP9_LAST_FLAG | VP9_GOLD_FLAG)) == (VP9_LAST_FLAG | VP9_GOLD_FLAG) && vp9_check_segref(xd, 1, LAST_FRAME)) return 1; if ((ref_flags & (VP9_GOLD_FLAG | VP9_ALT_FLAG)) == (VP9_GOLD_FLAG | VP9_ALT_FLAG) && vp9_check_segref(xd, 1, GOLDEN_FRAME)) return 1; if ((ref_flags & (VP9_ALT_FLAG | VP9_LAST_FLAG)) == (VP9_ALT_FLAG | VP9_LAST_FLAG) && vp9_check_segref(xd, 1, ALTREF_FRAME)) return 1; return 0; } else { return (!!(ref_flags & VP9_GOLD_FLAG) + !!(ref_flags & VP9_LAST_FLAG) + !!(ref_flags & VP9_ALT_FLAG)) >= 2; } } static void reset_skip_txfm_size_mb(VP9_COMP *cpi, MODE_INFO *mi, TX_SIZE txfm_max) { MB_MODE_INFO *const mbmi = &mi->mbmi; if (mbmi->txfm_size > txfm_max) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; const int segment_id = mbmi->segment_id; xd->mode_info_context = mi; assert((vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)) || (cm->mb_no_coeff_skip && mbmi->mb_skip_coeff)); mbmi->txfm_size = txfm_max; } } static int get_skip_flag(MODE_INFO *mi, int mis, int ymbs, int xmbs) { int x, y; for (y = 0; y < ymbs; y++) { for (x = 0; x < xmbs; x++) { if (!mi[y * mis + x].mbmi.mb_skip_coeff) return 0; } } return 1; } static void set_txfm_flag(MODE_INFO *mi, int mis, int ymbs, int xmbs, TX_SIZE txfm_size) { int x, y; for (y = 0; y < ymbs; y++) { for (x = 0; x < xmbs; x++) mi[y * mis + x].mbmi.txfm_size = txfm_size; } } static void reset_skip_txfm_size_sb32(VP9_COMP *cpi, MODE_INFO *mi, int mis, TX_SIZE txfm_max, int mb_rows_left, int mb_cols_left) { MB_MODE_INFO *const mbmi = &mi->mbmi; if (mbmi->txfm_size > txfm_max) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; const int segment_id = mbmi->segment_id; const int ymbs = MIN(2, mb_rows_left); const int xmbs = MIN(2, mb_cols_left); xd->mode_info_context = mi; assert((vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)) || (cm->mb_no_coeff_skip && get_skip_flag(mi, mis, ymbs, xmbs))); set_txfm_flag(mi, mis, ymbs, xmbs, txfm_max); } } static void reset_skip_txfm_size_sb64(VP9_COMP *cpi, MODE_INFO *mi, int mis, TX_SIZE txfm_max, int mb_rows_left, int mb_cols_left) { MB_MODE_INFO *const mbmi = &mi->mbmi; if (mbmi->txfm_size > txfm_max) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; const int segment_id = mbmi->segment_id; const int ymbs = MIN(4, mb_rows_left); const int xmbs = MIN(4, mb_cols_left); xd->mode_info_context = mi; assert((vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)) || (cm->mb_no_coeff_skip && get_skip_flag(mi, mis, ymbs, xmbs))); set_txfm_flag(mi, mis, ymbs, xmbs, txfm_max); } } static void reset_skip_txfm_size(VP9_COMP *cpi, TX_SIZE txfm_max) { VP9_COMMON *const cm = &cpi->common; int mb_row, mb_col; const int mis = cm->mode_info_stride; MODE_INFO *mi, *mi_ptr = cm->mi; for (mb_row = 0; mb_row < cm->mb_rows; mb_row += 4, mi_ptr += 4 * mis) { mi = mi_ptr; for (mb_col = 0; mb_col < cm->mb_cols; mb_col += 4, mi += 4) { if (mi->mbmi.sb_type == BLOCK_SIZE_SB64X64) { reset_skip_txfm_size_sb64(cpi, mi, mis, txfm_max, cm->mb_rows - mb_row, cm->mb_cols - mb_col); } else { int i; for (i = 0; i < 4; i++) { const int x_idx_sb = (i & 1) << 1, y_idx_sb = i & 2; MODE_INFO *sb_mi = mi + y_idx_sb * mis + x_idx_sb; if (mb_row + y_idx_sb >= cm->mb_rows || mb_col + x_idx_sb >= cm->mb_cols) continue; if (sb_mi->mbmi.sb_type) { reset_skip_txfm_size_sb32(cpi, sb_mi, mis, txfm_max, cm->mb_rows - mb_row - y_idx_sb, cm->mb_cols - mb_col - x_idx_sb); } else { int m; for (m = 0; m < 4; m++) { const int x_idx = x_idx_sb + (m & 1), y_idx = y_idx_sb + (m >> 1); MODE_INFO *mb_mi; if (mb_col + x_idx >= cm->mb_cols || mb_row + y_idx >= cm->mb_rows) continue; mb_mi = mi + y_idx * mis + x_idx; assert(mb_mi->mbmi.sb_type == BLOCK_SIZE_MB16X16); reset_skip_txfm_size_mb(cpi, mb_mi, txfm_max); } } } } } } } void vp9_encode_frame(VP9_COMP *cpi) { if (cpi->sf.RD) { int i, frame_type, pred_type; TXFM_MODE txfm_type; /* * This code does a single RD pass over the whole frame assuming * either compound, single or hybrid prediction as per whatever has * worked best for that type of frame in the past. * It also predicts whether another coding mode would have worked * better that this coding mode. If that is the case, it remembers * that for subsequent frames. * It does the same analysis for transform size selection also. */ if (cpi->common.frame_type == KEY_FRAME) frame_type = 0; else if (cpi->is_src_frame_alt_ref && cpi->refresh_golden_frame) frame_type = 3; else if (cpi->refresh_golden_frame || cpi->refresh_alt_ref_frame) frame_type = 1; else frame_type = 2; /* prediction (compound, single or hybrid) mode selection */ if (frame_type == 3) pred_type = SINGLE_PREDICTION_ONLY; else if (cpi->rd_prediction_type_threshes[frame_type][1] > cpi->rd_prediction_type_threshes[frame_type][0] && cpi->rd_prediction_type_threshes[frame_type][1] > cpi->rd_prediction_type_threshes[frame_type][2] && check_dual_ref_flags(cpi) && cpi->static_mb_pct == 100) pred_type = COMP_PREDICTION_ONLY; else if (cpi->rd_prediction_type_threshes[frame_type][0] > cpi->rd_prediction_type_threshes[frame_type][2]) pred_type = SINGLE_PREDICTION_ONLY; else pred_type = HYBRID_PREDICTION; /* transform size (4x4, 8x8, 16x16 or select-per-mb) selection */ cpi->mb.e_mbd.lossless = 0; if (cpi->oxcf.lossless) { txfm_type = ONLY_4X4; cpi->mb.e_mbd.lossless = 1; } else #if 0 /* FIXME (rbultje): this code is disabled until we support cost updates * while a frame is being encoded; the problem is that each time we * "revert" to 4x4 only (or even 8x8 only), the coefficient probabilities * for 16x16 (and 8x8) start lagging behind, thus leading to them lagging * further behind and not being chosen for subsequent frames either. This * is essentially a local minimum problem that we can probably fix by * estimating real costs more closely within a frame, perhaps by re- * calculating costs on-the-fly as frame encoding progresses. */ if (cpi->rd_tx_select_threshes[frame_type][TX_MODE_SELECT] > cpi->rd_tx_select_threshes[frame_type][ONLY_4X4] && cpi->rd_tx_select_threshes[frame_type][TX_MODE_SELECT] > cpi->rd_tx_select_threshes[frame_type][ALLOW_16X16] && cpi->rd_tx_select_threshes[frame_type][TX_MODE_SELECT] > cpi->rd_tx_select_threshes[frame_type][ALLOW_8X8]) { txfm_type = TX_MODE_SELECT; } else if (cpi->rd_tx_select_threshes[frame_type][ONLY_4X4] > cpi->rd_tx_select_threshes[frame_type][ALLOW_8X8] && cpi->rd_tx_select_threshes[frame_type][ONLY_4X4] > cpi->rd_tx_select_threshes[frame_type][ALLOW_16X16] ) { txfm_type = ONLY_4X4; } else if (cpi->rd_tx_select_threshes[frame_type][ALLOW_16X16] >= cpi->rd_tx_select_threshes[frame_type][ALLOW_8X8]) { txfm_type = ALLOW_16X16; } else txfm_type = ALLOW_8X8; #else txfm_type = cpi->rd_tx_select_threshes[frame_type][ALLOW_32X32] >= cpi->rd_tx_select_threshes[frame_type][TX_MODE_SELECT] ? ALLOW_32X32 : TX_MODE_SELECT; #endif cpi->common.txfm_mode = txfm_type; if (txfm_type != TX_MODE_SELECT) { cpi->common.prob_tx[0] = 128; cpi->common.prob_tx[1] = 128; } cpi->common.comp_pred_mode = pred_type; encode_frame_internal(cpi); for (i = 0; i < NB_PREDICTION_TYPES; ++i) { const int diff = (int)(cpi->rd_comp_pred_diff[i] / cpi->common.MBs); cpi->rd_prediction_type_threshes[frame_type][i] += diff; cpi->rd_prediction_type_threshes[frame_type][i] >>= 1; } for (i = 0; i < NB_TXFM_MODES; ++i) { int64_t pd = cpi->rd_tx_select_diff[i]; int diff; if (i == TX_MODE_SELECT) pd -= RDCOST(cpi->mb.rdmult, cpi->mb.rddiv, 2048 * (TX_SIZE_MAX_SB - 1), 0); diff = (int)(pd / cpi->common.MBs); cpi->rd_tx_select_threshes[frame_type][i] += diff; cpi->rd_tx_select_threshes[frame_type][i] /= 2; } if (cpi->common.comp_pred_mode == HYBRID_PREDICTION) { int single_count_zero = 0; int comp_count_zero = 0; for (i = 0; i < COMP_PRED_CONTEXTS; i++) { single_count_zero += cpi->single_pred_count[i]; comp_count_zero += cpi->comp_pred_count[i]; } if (comp_count_zero == 0) { cpi->common.comp_pred_mode = SINGLE_PREDICTION_ONLY; } else if (single_count_zero == 0) { cpi->common.comp_pred_mode = COMP_PREDICTION_ONLY; } } if (cpi->common.txfm_mode == TX_MODE_SELECT) { const int count4x4 = cpi->txfm_count_16x16p[TX_4X4] + cpi->txfm_count_32x32p[TX_4X4] + cpi->txfm_count_8x8p[TX_4X4]; const int count8x8_lp = cpi->txfm_count_32x32p[TX_8X8] + cpi->txfm_count_16x16p[TX_8X8]; const int count8x8_8x8p = cpi->txfm_count_8x8p[TX_8X8]; const int count16x16_16x16p = cpi->txfm_count_16x16p[TX_16X16]; const int count16x16_lp = cpi->txfm_count_32x32p[TX_16X16]; const int count32x32 = cpi->txfm_count_32x32p[TX_32X32]; if (count4x4 == 0 && count16x16_lp == 0 && count16x16_16x16p == 0 && count32x32 == 0) { cpi->common.txfm_mode = ALLOW_8X8; reset_skip_txfm_size(cpi, TX_8X8); } else if (count8x8_8x8p == 0 && count16x16_16x16p == 0 && count8x8_lp == 0 && count16x16_lp == 0 && count32x32 == 0) { cpi->common.txfm_mode = ONLY_4X4; reset_skip_txfm_size(cpi, TX_4X4); } else if (count8x8_lp == 0 && count16x16_lp == 0 && count4x4 == 0) { cpi->common.txfm_mode = ALLOW_32X32; } else if (count32x32 == 0 && count8x8_lp == 0 && count4x4 == 0) { cpi->common.txfm_mode = ALLOW_16X16; reset_skip_txfm_size(cpi, TX_16X16); } } // Update interpolation filter strategy for next frame. if ((cpi->common.frame_type != KEY_FRAME) && (cpi->sf.search_best_filter)) vp9_select_interp_filter_type(cpi); } else { encode_frame_internal(cpi); } } void vp9_setup_block_ptrs(MACROBLOCK *x) { int r, c; int i; for (r = 0; r < 4; r++) { for (c = 0; c < 4; c++) x->block[r * 4 + c].src_diff = x->src_diff + r * 4 * 16 + c * 4; } for (r = 0; r < 2; r++) { for (c = 0; c < 2; c++) x->block[16 + r * 2 + c].src_diff = x->src_diff + 256 + r * 4 * 8 + c * 4; } for (r = 0; r < 2; r++) { for (c = 0; c < 2; c++) x->block[20 + r * 2 + c].src_diff = x->src_diff + 320 + r * 4 * 8 + c * 4; } for (i = 0; i < 24; i++) x->block[i].coeff = x->coeff + i * 16; } void vp9_build_block_offsets(MACROBLOCK *x) { int block = 0; int br, bc; vp9_build_block_doffsets(&x->e_mbd); for (br = 0; br < 4; br++) { for (bc = 0; bc < 4; bc++) { BLOCK *this_block = &x->block[block]; // this_block->base_src = &x->src.y_buffer; // this_block->src_stride = x->src.y_stride; // this_block->src = 4 * br * this_block->src_stride + 4 * bc; this_block->base_src = &x->src.y_buffer; this_block->src_stride = x->src.y_stride; this_block->src = 4 * br * this_block->src_stride + 4 * bc; ++block; } } // u blocks for (br = 0; br < 2; br++) { for (bc = 0; bc < 2; bc++) { BLOCK *this_block = &x->block[block]; this_block->base_src = &x->src.u_buffer; this_block->src_stride = x->src.uv_stride; this_block->src = 4 * br * this_block->src_stride + 4 * bc; ++block; } } // v blocks for (br = 0; br < 2; br++) { for (bc = 0; bc < 2; bc++) { BLOCK *this_block = &x->block[block]; this_block->base_src = &x->src.v_buffer; this_block->src_stride = x->src.uv_stride; this_block->src = 4 * br * this_block->src_stride + 4 * bc; ++block; } } } static void sum_intra_stats(VP9_COMP *cpi, MACROBLOCK *x) { const MACROBLOCKD *xd = &x->e_mbd; const MB_PREDICTION_MODE m = xd->mode_info_context->mbmi.mode; const MB_PREDICTION_MODE uvm = xd->mode_info_context->mbmi.uv_mode; #ifdef MODE_STATS const int is_key = cpi->common.frame_type == KEY_FRAME; ++ (is_key ? uv_modes : inter_uv_modes)[uvm]; ++ uv_modes_y[m][uvm]; if (m == B_PRED) { unsigned int *const bct = is_key ? b_modes : inter_b_modes; int b = 0; do { ++ bct[xd->block[b].bmi.as_mode.first]; } while (++b < 16); } if (m == I8X8_PRED) { i8x8_modes[xd->block[0].bmi.as_mode.first]++; i8x8_modes[xd->block[2].bmi.as_mode.first]++; i8x8_modes[xd->block[8].bmi.as_mode.first]++; i8x8_modes[xd->block[10].bmi.as_mode.first]++; } #endif if (xd->mode_info_context->mbmi.sb_type) { ++cpi->sb_ymode_count[m]; } else { ++cpi->ymode_count[m]; } if (m != I8X8_PRED) ++cpi->y_uv_mode_count[m][uvm]; else { cpi->i8x8_mode_count[xd->block[0].bmi.as_mode.first]++; cpi->i8x8_mode_count[xd->block[2].bmi.as_mode.first]++; cpi->i8x8_mode_count[xd->block[8].bmi.as_mode.first]++; cpi->i8x8_mode_count[xd->block[10].bmi.as_mode.first]++; } if (m == B_PRED) { int b = 0; do { int m = xd->block[b].bmi.as_mode.first; #if CONFIG_NEWBINTRAMODES if (m == B_CONTEXT_PRED) m -= CONTEXT_PRED_REPLACEMENTS; #endif ++cpi->bmode_count[m]; } while (++b < 16); } } // Experimental stub function to create a per MB zbin adjustment based on // some previously calculated measure of MB activity. static void adjust_act_zbin(VP9_COMP *cpi, MACROBLOCK *x) { #if USE_ACT_INDEX x->act_zbin_adj = *(x->mb_activity_ptr); #else int64_t a; int64_t b; int64_t act = *(x->mb_activity_ptr); // Apply the masking to the RD multiplier. a = act + 4 * cpi->activity_avg; b = 4 * act + cpi->activity_avg; if (act > cpi->activity_avg) x->act_zbin_adj = (int)(((int64_t)b + (a >> 1)) / a) - 1; else x->act_zbin_adj = 1 - (int)(((int64_t)a + (b >> 1)) / b); #endif } static void update_sb64_skip_coeff_state(VP9_COMP *cpi, ENTROPY_CONTEXT_PLANES ta[16], ENTROPY_CONTEXT_PLANES tl[16], TOKENEXTRA *t[16], TOKENEXTRA **tp, int skip[16], int output_enabled) { MACROBLOCK *const x = &cpi->mb; if (x->e_mbd.mode_info_context->mbmi.txfm_size == TX_32X32) { TOKENEXTRA tokens[4][1024+512]; int n_tokens[4], n; // if there were no skips, we don't need to do anything if (!skip[0] && !skip[1] && !skip[2] && !skip[3]) return; // if we don't do coeff skipping for this frame, we don't // need to do anything here if (!cpi->common.mb_no_coeff_skip) return; // if all 4 MBs skipped coeff coding, nothing to be done if (skip[0] && skip[1] && skip[2] && skip[3]) return; // so the situation now is that we want to skip coeffs // for some MBs, but not all, and we didn't code EOB // coefficients for them. However, the skip flag for this // SB will be 0 overall, so we need to insert EOBs in the // middle of the token tree. Do so here. for (n = 0; n < 4; n++) { if (n < 3) { n_tokens[n] = t[n + 1] - t[n]; } else { n_tokens[n] = *tp - t[3]; } if (n_tokens[n]) { memcpy(tokens[n], t[n], n_tokens[n] * sizeof(*t[0])); } } // reset pointer, stuff EOBs where necessary *tp = t[0]; for (n = 0; n < 4; n++) { if (skip[n]) { x->e_mbd.above_context = &ta[n * 2]; x->e_mbd.left_context = &tl[n * 2]; vp9_stuff_sb(cpi, &x->e_mbd, tp, !output_enabled); } else { if (n_tokens[n]) { memcpy(*tp, tokens[n], sizeof(*t[0]) * n_tokens[n]); } (*tp) += n_tokens[n]; } } } else { TOKENEXTRA tokens[16][16 * 25]; int n_tokens[16], n; // if there were no skips, we don't need to do anything if (!skip[ 0] && !skip[ 1] && !skip[ 2] && !skip[ 3] && !skip[ 4] && !skip[ 5] && !skip[ 6] && !skip[ 7] && !skip[ 8] && !skip[ 9] && !skip[10] && !skip[11] && !skip[12] && !skip[13] && !skip[14] && !skip[15]) return; // if we don't do coeff skipping for this frame, we don't // need to do anything here if (!cpi->common.mb_no_coeff_skip) return; // if all 4 MBs skipped coeff coding, nothing to be done if (skip[ 0] && skip[ 1] && skip[ 2] && skip[ 3] && skip[ 4] && skip[ 5] && skip[ 6] && skip[ 7] && skip[ 8] && skip[ 9] && skip[10] && skip[11] && skip[12] && skip[13] && skip[14] && skip[15]) return; // so the situation now is that we want to skip coeffs // for some MBs, but not all, and we didn't code EOB // coefficients for them. However, the skip flag for this // SB will be 0 overall, so we need to insert EOBs in the // middle of the token tree. Do so here. for (n = 0; n < 16; n++) { if (n < 15) { n_tokens[n] = t[n + 1] - t[n]; } else { n_tokens[n] = *tp - t[15]; } if (n_tokens[n]) { memcpy(tokens[n], t[n], n_tokens[n] * sizeof(*t[0])); } } // reset pointer, stuff EOBs where necessary *tp = t[0]; for (n = 0; n < 16; n++) { if (skip[n]) { x->e_mbd.above_context = &ta[n]; x->e_mbd.left_context = &tl[n]; vp9_stuff_mb(cpi, &x->e_mbd, tp, !output_enabled); } else { if (n_tokens[n]) { memcpy(*tp, tokens[n], sizeof(*t[0]) * n_tokens[n]); } (*tp) += n_tokens[n]; } } } } #if CONFIG_CODE_NONZEROCOUNT static void gather_nzcs_mb16(VP9_COMMON *const cm, MACROBLOCKD *xd) { int i; vpx_memset(xd->mode_info_context->mbmi.nzcs, 0, 384 * sizeof(xd->mode_info_context->mbmi.nzcs[0])); switch (xd->mode_info_context->mbmi.txfm_size) { case TX_4X4: for (i = 0; i < 24; ++i) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; case TX_8X8: for (i = 0; i < 16; i += 4) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } if (xd->mode_info_context->mbmi.mode == I8X8_PRED || xd->mode_info_context->mbmi.mode == SPLITMV) { for (i = 16; i < 24; ++i) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } } else { for (i = 16; i < 24; i += 4) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } } break; case TX_16X16: xd->mode_info_context->mbmi.nzcs[0] = xd->nzcs[0]; for (i = 16; i < 24; i += 4) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; default: break; } } static void gather_nzcs_sb32(VP9_COMMON *const cm, MACROBLOCKD *xd) { int i, j; MODE_INFO *m = xd->mode_info_context; int mis = cm->mode_info_stride; vpx_memset(m->mbmi.nzcs, 0, 384 * sizeof(xd->mode_info_context->mbmi.nzcs[0])); switch (xd->mode_info_context->mbmi.txfm_size) { case TX_4X4: for (i = 0; i < 96; ++i) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; case TX_8X8: for (i = 0; i < 96; i += 4) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; case TX_16X16: for (i = 0; i < 96; i += 16) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; case TX_32X32: xd->mode_info_context->mbmi.nzcs[0] = xd->nzcs[0]; for (i = 64; i < 96; i += 16) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; default: break; } for (i = 0; i < 2; ++i) for (j = 0; j < 2; ++j) { if (i == 0 && j == 0) continue; vpx_memcpy((m + j + mis * i)->mbmi.nzcs, m->mbmi.nzcs, 384 * sizeof(m->mbmi.nzcs[0])); } } static void gather_nzcs_sb64(VP9_COMMON *const cm, MACROBLOCKD *xd) { int i, j; MODE_INFO *m = xd->mode_info_context; int mis = cm->mode_info_stride; vpx_memset(xd->mode_info_context->mbmi.nzcs, 0, 384 * sizeof(xd->mode_info_context->mbmi.nzcs[0])); switch (xd->mode_info_context->mbmi.txfm_size) { case TX_4X4: for (i = 0; i < 384; ++i) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; case TX_8X8: for (i = 0; i < 384; i += 4) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; case TX_16X16: for (i = 0; i < 384; i += 16) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; case TX_32X32: for (i = 0; i < 384; i += 64) { xd->mode_info_context->mbmi.nzcs[i] = xd->nzcs[i]; } break; default: break; } for (i = 0; i < 4; ++i) for (j = 0; j < 4; ++j) { if (i == 0 && j == 0) continue; vpx_memcpy((m + j + mis * i)->mbmi.nzcs, m->mbmi.nzcs, 384 * sizeof(m->mbmi.nzcs[0])); } } #endif static void encode_macroblock(VP9_COMP *cpi, TOKENEXTRA **t, int output_enabled, int mb_row, int mb_col) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; MODE_INFO *mi = xd->mode_info_context; MB_MODE_INFO *const mbmi = &mi->mbmi; const int mis = cm->mode_info_stride; unsigned char ref_pred_flag; assert(!xd->mode_info_context->mbmi.sb_type); #ifdef ENC_DEBUG enc_debug = (cpi->common.current_video_frame == 1 && mb_row == 0 && mb_col == 0 && output_enabled); if (enc_debug) printf("Encode MB %d %d output %d\n", mb_row, mb_col, output_enabled); #endif if (cm->frame_type == KEY_FRAME) { if (cpi->oxcf.tuning == VP8_TUNE_SSIM && output_enabled) { // Adjust the zbin based on this MB rate. adjust_act_zbin(cpi, x); vp9_update_zbin_extra(cpi, x); } } else { vp9_setup_interp_filters(xd, mbmi->interp_filter, cm); if (cpi->oxcf.tuning == VP8_TUNE_SSIM) { // Adjust the zbin based on this MB rate. adjust_act_zbin(cpi, x); } // Experimental code. Special case for gf and arf zeromv modes. // Increase zbin size to suppress noise cpi->zbin_mode_boost = 0; if (cpi->zbin_mode_boost_enabled) { if (mbmi->ref_frame != INTRA_FRAME) { if (mbmi->mode == ZEROMV) { if (mbmi->ref_frame != LAST_FRAME) cpi->zbin_mode_boost = GF_ZEROMV_ZBIN_BOOST; else cpi->zbin_mode_boost = LF_ZEROMV_ZBIN_BOOST; } else if (mbmi->mode == SPLITMV) cpi->zbin_mode_boost = 0; else cpi->zbin_mode_boost = MV_ZBIN_BOOST; } } vp9_update_zbin_extra(cpi, x); // SET VARIOUS PREDICTION FLAGS // Did the chosen reference frame match its predicted value. ref_pred_flag = ((mbmi->ref_frame == vp9_get_pred_ref(cm, xd))); vp9_set_pred_flag(xd, PRED_REF, ref_pred_flag); } if (mbmi->ref_frame == INTRA_FRAME) { #ifdef ENC_DEBUG if (enc_debug) { printf("Mode %d skip %d tx_size %d\n", mbmi->mode, x->skip, mbmi->txfm_size); } #endif if (mbmi->mode == B_PRED) { vp9_encode_intra16x16mbuv(cm, x); vp9_encode_intra4x4mby(x); } else if (mbmi->mode == I8X8_PRED) { vp9_encode_intra8x8mby(x); vp9_encode_intra8x8mbuv(x); } else { vp9_encode_intra16x16mbuv(cm, x); vp9_encode_intra16x16mby(cm, x); } if (output_enabled) sum_intra_stats(cpi, x); } else { int ref_fb_idx; #ifdef ENC_DEBUG if (enc_debug) printf("Mode %d skip %d tx_size %d ref %d ref2 %d mv %d %d interp %d\n", mbmi->mode, x->skip, mbmi->txfm_size, mbmi->ref_frame, mbmi->second_ref_frame, mbmi->mv[0].as_mv.row, mbmi->mv[0].as_mv.col, mbmi->interp_filter); #endif assert(cm->frame_type != KEY_FRAME); if (mbmi->ref_frame == LAST_FRAME) ref_fb_idx = cpi->common.ref_frame_map[cpi->lst_fb_idx]; else if (mbmi->ref_frame == GOLDEN_FRAME) ref_fb_idx = cpi->common.ref_frame_map[cpi->gld_fb_idx]; else ref_fb_idx = cpi->common.ref_frame_map[cpi->alt_fb_idx]; setup_pred_block(&xd->pre, &cpi->common.yv12_fb[ref_fb_idx], mb_row, mb_col, &xd->scale_factor[0], &xd->scale_factor_uv[0]); if (mbmi->second_ref_frame > 0) { int second_ref_fb_idx; if (mbmi->second_ref_frame == LAST_FRAME) second_ref_fb_idx = cpi->common.ref_frame_map[cpi->lst_fb_idx]; else if (mbmi->second_ref_frame == GOLDEN_FRAME) second_ref_fb_idx = cpi->common.ref_frame_map[cpi->gld_fb_idx]; else second_ref_fb_idx = cpi->common.ref_frame_map[cpi->alt_fb_idx]; setup_pred_block(&xd->second_pre, &cpi->common.yv12_fb[second_ref_fb_idx], mb_row, mb_col, &xd->scale_factor[1], &xd->scale_factor_uv[1]); } if (!x->skip) { vp9_encode_inter16x16(cm, x, mb_row, mb_col); // Clear mb_skip_coeff if mb_no_coeff_skip is not set if (!cpi->common.mb_no_coeff_skip) mbmi->mb_skip_coeff = 0; } else { vp9_build_inter16x16_predictors_mb(xd, xd->dst.y_buffer, xd->dst.u_buffer, xd->dst.v_buffer, xd->dst.y_stride, xd->dst.uv_stride, mb_row, mb_col); #if CONFIG_COMP_INTERINTRA_PRED if (xd->mode_info_context->mbmi.second_ref_frame == INTRA_FRAME) { vp9_build_interintra_16x16_predictors_mb(xd, xd->dst.y_buffer, xd->dst.u_buffer, xd->dst.v_buffer, xd->dst.y_stride, xd->dst.uv_stride); } #endif } } if (!x->skip) { #ifdef ENC_DEBUG if (enc_debug) { int i, j; printf("\n"); printf("qcoeff\n"); for (i = 0; i < 384; i++) { printf("%3d ", xd->qcoeff[i]); if (i % 16 == 15) printf("\n"); } printf("\n"); printf("predictor\n"); for (i = 0; i < 384; i++) { printf("%3d ", xd->predictor[i]); if (i % 16 == 15) printf("\n"); } printf("\n"); printf("src_diff\n"); for (i = 0; i < 384; i++) { printf("%3d ", x->src_diff[i]); if (i % 16 == 15) printf("\n"); } printf("\n"); printf("diff\n"); for (i = 0; i < 384; i++) { printf("%3d ", xd->block[0].diff[i]); if (i % 16 == 15) printf("\n"); } printf("\n"); printf("final y\n"); for (i = 0; i < 16; i++) { for (j = 0; j < 16; j++) printf("%3d ", xd->dst.y_buffer[i * xd->dst.y_stride + j]); printf("\n"); } printf("\n"); printf("final u\n"); for (i = 0; i < 8; i++) { for (j = 0; j < 8; j++) printf("%3d ", xd->dst.u_buffer[i * xd->dst.uv_stride + j]); printf("\n"); } printf("\n"); printf("final v\n"); for (i = 0; i < 8; i++) { for (j = 0; j < 8; j++) printf("%3d ", xd->dst.v_buffer[i * xd->dst.uv_stride + j]); printf("\n"); } fflush(stdout); } #endif #if CONFIG_CODE_NONZEROCOUNT gather_nzcs_mb16(cm, xd); #endif vp9_tokenize_mb(cpi, xd, t, !output_enabled); } else { // FIXME(rbultje): not tile-aware (mi - 1) int mb_skip_context = cpi->common.mb_no_coeff_skip ? (mi - 1)->mbmi.mb_skip_coeff + (mi - mis)->mbmi.mb_skip_coeff : 0; if (cm->mb_no_coeff_skip) { mbmi->mb_skip_coeff = 1; if (output_enabled) cpi->skip_true_count[mb_skip_context]++; vp9_reset_mb_tokens_context(xd); } else { vp9_stuff_mb(cpi, xd, t, !output_enabled); mbmi->mb_skip_coeff = 0; if (output_enabled) cpi->skip_false_count[mb_skip_context]++; } } if (output_enabled) { int segment_id = mbmi->segment_id; if (cpi->common.txfm_mode == TX_MODE_SELECT && !((cpi->common.mb_no_coeff_skip && mbmi->mb_skip_coeff) || (vp9_segfeature_active(&x->e_mbd, segment_id, SEG_LVL_SKIP)))) { assert(mbmi->txfm_size <= TX_16X16); if (mbmi->mode != B_PRED && mbmi->mode != I8X8_PRED && mbmi->mode != SPLITMV) { cpi->txfm_count_16x16p[mbmi->txfm_size]++; } else if (mbmi->mode == I8X8_PRED || (mbmi->mode == SPLITMV && mbmi->partitioning != PARTITIONING_4X4)) { cpi->txfm_count_8x8p[mbmi->txfm_size]++; } } else if (mbmi->mode != B_PRED && mbmi->mode != I8X8_PRED && mbmi->mode != SPLITMV && cpi->common.txfm_mode >= ALLOW_16X16) { mbmi->txfm_size = TX_16X16; } else if (mbmi->mode != B_PRED && !(mbmi->mode == SPLITMV && mbmi->partitioning == PARTITIONING_4X4) && cpi->common.txfm_mode >= ALLOW_8X8) { mbmi->txfm_size = TX_8X8; } else { mbmi->txfm_size = TX_4X4; } } } static void encode_superblock32(VP9_COMP *cpi, TOKENEXTRA **t, int output_enabled, int mb_row, int mb_col) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; const uint8_t *src = x->src.y_buffer; uint8_t *dst = xd->dst.y_buffer; const uint8_t *usrc = x->src.u_buffer; uint8_t *udst = xd->dst.u_buffer; const uint8_t *vsrc = x->src.v_buffer; uint8_t *vdst = xd->dst.v_buffer; int src_y_stride = x->src.y_stride, dst_y_stride = xd->dst.y_stride; int src_uv_stride = x->src.uv_stride, dst_uv_stride = xd->dst.uv_stride; unsigned char ref_pred_flag; MODE_INFO *mi = x->e_mbd.mode_info_context; unsigned int segment_id = mi->mbmi.segment_id; const int mis = cm->mode_info_stride; #ifdef ENC_DEBUG enc_debug = (cpi->common.current_video_frame == 1 && mb_row == 0 && mb_col == 0 && output_enabled); if (enc_debug) printf("Encode SB32 %d %d output %d\n", mb_row, mb_col, output_enabled); #endif if (cm->frame_type == KEY_FRAME) { if (cpi->oxcf.tuning == VP8_TUNE_SSIM) { adjust_act_zbin(cpi, x); vp9_update_zbin_extra(cpi, x); } } else { vp9_setup_interp_filters(xd, xd->mode_info_context->mbmi.interp_filter, cm); if (cpi->oxcf.tuning == VP8_TUNE_SSIM) { // Adjust the zbin based on this MB rate. adjust_act_zbin(cpi, x); } // Experimental code. Special case for gf and arf zeromv modes. // Increase zbin size to suppress noise cpi->zbin_mode_boost = 0; if (cpi->zbin_mode_boost_enabled) { if (xd->mode_info_context->mbmi.ref_frame != INTRA_FRAME) { if (xd->mode_info_context->mbmi.mode == ZEROMV) { if (xd->mode_info_context->mbmi.ref_frame != LAST_FRAME) cpi->zbin_mode_boost = GF_ZEROMV_ZBIN_BOOST; else cpi->zbin_mode_boost = LF_ZEROMV_ZBIN_BOOST; } else if (xd->mode_info_context->mbmi.mode == SPLITMV) cpi->zbin_mode_boost = 0; else cpi->zbin_mode_boost = MV_ZBIN_BOOST; } } vp9_update_zbin_extra(cpi, x); // SET VARIOUS PREDICTION FLAGS // Did the chosen reference frame match its predicted value. ref_pred_flag = ((xd->mode_info_context->mbmi.ref_frame == vp9_get_pred_ref(cm, xd))); vp9_set_pred_flag(xd, PRED_REF, ref_pred_flag); } if (xd->mode_info_context->mbmi.ref_frame == INTRA_FRAME) { vp9_build_intra_predictors_sby_s(&x->e_mbd); vp9_build_intra_predictors_sbuv_s(&x->e_mbd); if (output_enabled) sum_intra_stats(cpi, x); } else { int ref_fb_idx; assert(cm->frame_type != KEY_FRAME); if (xd->mode_info_context->mbmi.ref_frame == LAST_FRAME) ref_fb_idx = cpi->common.ref_frame_map[cpi->lst_fb_idx]; else if (xd->mode_info_context->mbmi.ref_frame == GOLDEN_FRAME) ref_fb_idx = cpi->common.ref_frame_map[cpi->gld_fb_idx]; else ref_fb_idx = cpi->common.ref_frame_map[cpi->alt_fb_idx]; setup_pred_block(&xd->pre, &cpi->common.yv12_fb[ref_fb_idx], mb_row, mb_col, &xd->scale_factor[0], &xd->scale_factor_uv[0]); if (xd->mode_info_context->mbmi.second_ref_frame > 0) { int second_ref_fb_idx; if (xd->mode_info_context->mbmi.second_ref_frame == LAST_FRAME) second_ref_fb_idx = cpi->common.ref_frame_map[cpi->lst_fb_idx]; else if (xd->mode_info_context->mbmi.second_ref_frame == GOLDEN_FRAME) second_ref_fb_idx = cpi->common.ref_frame_map[cpi->gld_fb_idx]; else second_ref_fb_idx = cpi->common.ref_frame_map[cpi->alt_fb_idx]; setup_pred_block(&xd->second_pre, &cpi->common.yv12_fb[second_ref_fb_idx], mb_row, mb_col, &xd->scale_factor[1], &xd->scale_factor_uv[1]); } vp9_build_inter32x32_predictors_sb(xd, xd->dst.y_buffer, xd->dst.u_buffer, xd->dst.v_buffer, xd->dst.y_stride, xd->dst.uv_stride, mb_row, mb_col); } if (!x->skip) { vp9_subtract_sby_s_c(x->src_diff, src, src_y_stride, dst, dst_y_stride); vp9_subtract_sbuv_s_c(x->src_diff, usrc, vsrc, src_uv_stride, udst, vdst, dst_uv_stride); switch (mi->mbmi.txfm_size) { case TX_32X32: vp9_transform_sby_32x32(x); vp9_transform_sbuv_16x16(x); vp9_quantize_sby_32x32(x); vp9_quantize_sbuv_16x16(x); if (x->optimize) { vp9_optimize_sby_32x32(cm, x); vp9_optimize_sbuv_16x16(cm, x); } vp9_inverse_transform_sby_32x32(xd); vp9_inverse_transform_sbuv_16x16(xd); break; case TX_16X16: vp9_transform_sby_16x16(x); vp9_transform_sbuv_16x16(x); vp9_quantize_sby_16x16(x); vp9_quantize_sbuv_16x16(x); if (x->optimize) { vp9_optimize_sby_16x16(cm, x); vp9_optimize_sbuv_16x16(cm, x); } vp9_inverse_transform_sby_16x16(xd); vp9_inverse_transform_sbuv_16x16(xd); break; case TX_8X8: vp9_transform_sby_8x8(x); vp9_transform_sbuv_8x8(x); vp9_quantize_sby_8x8(x); vp9_quantize_sbuv_8x8(x); if (x->optimize) { vp9_optimize_sby_8x8(cm, x); vp9_optimize_sbuv_8x8(cm, x); } vp9_inverse_transform_sby_8x8(xd); vp9_inverse_transform_sbuv_8x8(xd); break; case TX_4X4: vp9_transform_sby_4x4(x); vp9_transform_sbuv_4x4(x); vp9_quantize_sby_4x4(x); vp9_quantize_sbuv_4x4(x); if (x->optimize) { vp9_optimize_sby_4x4(cm, x); vp9_optimize_sbuv_4x4(cm, x); } vp9_inverse_transform_sby_4x4(xd); vp9_inverse_transform_sbuv_4x4(xd); break; default: assert(0); } vp9_recon_sby_s_c(xd, dst); vp9_recon_sbuv_s_c(xd, udst, vdst); #if CONFIG_CODE_NONZEROCOUNT gather_nzcs_sb32(cm, xd); #endif vp9_tokenize_sb(cpi, xd, t, !output_enabled); } else { // FIXME(rbultje): not tile-aware (mi - 1) int mb_skip_context = cm->mb_no_coeff_skip ? (mi - 1)->mbmi.mb_skip_coeff + (mi - mis)->mbmi.mb_skip_coeff : 0; mi->mbmi.mb_skip_coeff = 1; if (cm->mb_no_coeff_skip) { if (output_enabled) cpi->skip_true_count[mb_skip_context]++; vp9_reset_sb_tokens_context(xd); } else { vp9_stuff_sb(cpi, xd, t, !output_enabled); if (output_enabled) cpi->skip_false_count[mb_skip_context]++; } } // copy skip flag on all mb_mode_info contexts in this SB // if this was a skip at this txfm size if (mb_col < cm->mb_cols - 1) mi[1].mbmi.mb_skip_coeff = mi->mbmi.mb_skip_coeff; if (mb_row < cm->mb_rows - 1) { mi[mis].mbmi.mb_skip_coeff = mi->mbmi.mb_skip_coeff; if (mb_col < cm->mb_cols - 1) mi[mis + 1].mbmi.mb_skip_coeff = mi->mbmi.mb_skip_coeff; } if (output_enabled) { if (cm->txfm_mode == TX_MODE_SELECT && !((cm->mb_no_coeff_skip && mi->mbmi.mb_skip_coeff) || (vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)))) { cpi->txfm_count_32x32p[mi->mbmi.txfm_size]++; } else { TX_SIZE sz = (cm->txfm_mode == TX_MODE_SELECT) ? TX_32X32 : cm->txfm_mode; mi->mbmi.txfm_size = sz; if (mb_col < cm->mb_cols - 1) mi[1].mbmi.txfm_size = sz; if (mb_row < cm->mb_rows - 1) { mi[mis].mbmi.txfm_size = sz; if (mb_col < cm->mb_cols - 1) mi[mis + 1].mbmi.txfm_size = sz; } } } } static void encode_superblock64(VP9_COMP *cpi, TOKENEXTRA **t, int output_enabled, int mb_row, int mb_col) { VP9_COMMON *const cm = &cpi->common; MACROBLOCK *const x = &cpi->mb; MACROBLOCKD *const xd = &x->e_mbd; const uint8_t *src = x->src.y_buffer; uint8_t *dst = xd->dst.y_buffer; const uint8_t *usrc = x->src.u_buffer; uint8_t *udst = xd->dst.u_buffer; const uint8_t *vsrc = x->src.v_buffer; uint8_t *vdst = xd->dst.v_buffer; int src_y_stride = x->src.y_stride, dst_y_stride = xd->dst.y_stride; int src_uv_stride = x->src.uv_stride, dst_uv_stride = xd->dst.uv_stride; unsigned char ref_pred_flag; int n; MODE_INFO *mi = x->e_mbd.mode_info_context; unsigned int segment_id = mi->mbmi.segment_id; const int mis = cm->mode_info_stride; #ifdef ENC_DEBUG enc_debug = (cpi->common.current_video_frame == 1 && mb_row == 0 && mb_col == 0 && output_enabled); if (enc_debug) printf("Encode SB64 %d %d output %d\n", mb_row, mb_col, output_enabled); #endif if (cm->frame_type == KEY_FRAME) { if (cpi->oxcf.tuning == VP8_TUNE_SSIM) { adjust_act_zbin(cpi, x); vp9_update_zbin_extra(cpi, x); } } else { vp9_setup_interp_filters(xd, xd->mode_info_context->mbmi.interp_filter, cm); if (cpi->oxcf.tuning == VP8_TUNE_SSIM) { // Adjust the zbin based on this MB rate. adjust_act_zbin(cpi, x); } // Experimental code. Special case for gf and arf zeromv modes. // Increase zbin size to suppress noise cpi->zbin_mode_boost = 0; if (cpi->zbin_mode_boost_enabled) { if (xd->mode_info_context->mbmi.ref_frame != INTRA_FRAME) { if (xd->mode_info_context->mbmi.mode == ZEROMV) { if (xd->mode_info_context->mbmi.ref_frame != LAST_FRAME) cpi->zbin_mode_boost = GF_ZEROMV_ZBIN_BOOST; else cpi->zbin_mode_boost = LF_ZEROMV_ZBIN_BOOST; } else if (xd->mode_info_context->mbmi.mode == SPLITMV) { cpi->zbin_mode_boost = 0; } else { cpi->zbin_mode_boost = MV_ZBIN_BOOST; } } } vp9_update_zbin_extra(cpi, x); // Did the chosen reference frame match its predicted value. ref_pred_flag = ((xd->mode_info_context->mbmi.ref_frame == vp9_get_pred_ref(cm, xd))); vp9_set_pred_flag(xd, PRED_REF, ref_pred_flag); } if (xd->mode_info_context->mbmi.ref_frame == INTRA_FRAME) { vp9_build_intra_predictors_sb64y_s(&x->e_mbd); vp9_build_intra_predictors_sb64uv_s(&x->e_mbd); if (output_enabled) sum_intra_stats(cpi, x); } else { int ref_fb_idx; assert(cm->frame_type != KEY_FRAME); if (xd->mode_info_context->mbmi.ref_frame == LAST_FRAME) ref_fb_idx = cpi->common.ref_frame_map[cpi->lst_fb_idx]; else if (xd->mode_info_context->mbmi.ref_frame == GOLDEN_FRAME) ref_fb_idx = cpi->common.ref_frame_map[cpi->gld_fb_idx]; else ref_fb_idx = cpi->common.ref_frame_map[cpi->alt_fb_idx]; setup_pred_block(&xd->pre, &cpi->common.yv12_fb[ref_fb_idx], mb_row, mb_col, &xd->scale_factor[0], &xd->scale_factor_uv[0]); if (xd->mode_info_context->mbmi.second_ref_frame > 0) { int second_ref_fb_idx; if (xd->mode_info_context->mbmi.second_ref_frame == LAST_FRAME) second_ref_fb_idx = cpi->common.ref_frame_map[cpi->lst_fb_idx]; else if (xd->mode_info_context->mbmi.second_ref_frame == GOLDEN_FRAME) second_ref_fb_idx = cpi->common.ref_frame_map[cpi->gld_fb_idx]; else second_ref_fb_idx = cpi->common.ref_frame_map[cpi->alt_fb_idx]; setup_pred_block(&xd->second_pre, &cpi->common.yv12_fb[second_ref_fb_idx], mb_row, mb_col, &xd->scale_factor[1], &xd->scale_factor_uv[1]); } vp9_build_inter64x64_predictors_sb(xd, xd->dst.y_buffer, xd->dst.u_buffer, xd->dst.v_buffer, xd->dst.y_stride, xd->dst.uv_stride, mb_row, mb_col); } if (!x->skip) { vp9_subtract_sb64y_s_c(x->src_diff, src, src_y_stride, dst, dst_y_stride); vp9_subtract_sb64uv_s_c(x->src_diff, usrc, vsrc, src_uv_stride, udst, vdst, dst_uv_stride); switch (xd->mode_info_context->mbmi.txfm_size) { case TX_32X32: vp9_transform_sb64y_32x32(x); vp9_transform_sb64uv_32x32(x); vp9_quantize_sb64y_32x32(x); vp9_quantize_sb64uv_32x32(x); if (x->optimize) { vp9_optimize_sb64y_32x32(cm, x); vp9_optimize_sb64uv_32x32(cm, x); } vp9_inverse_transform_sb64y_32x32(xd); vp9_inverse_transform_sb64uv_32x32(xd); break; case TX_16X16: vp9_transform_sb64y_16x16(x); vp9_transform_sb64uv_16x16(x); vp9_quantize_sb64y_16x16(x); vp9_quantize_sb64uv_16x16(x); if (x->optimize) { vp9_optimize_sb64y_16x16(cm, x); vp9_optimize_sb64uv_16x16(cm, x); } vp9_inverse_transform_sb64y_16x16(xd); vp9_inverse_transform_sb64uv_16x16(xd); break; case TX_8X8: vp9_transform_sb64y_8x8(x); vp9_transform_sb64uv_8x8(x); vp9_quantize_sb64y_8x8(x); vp9_quantize_sb64uv_8x8(x); if (x->optimize) { vp9_optimize_sb64y_8x8(cm, x); vp9_optimize_sb64uv_8x8(cm, x); } vp9_inverse_transform_sb64y_8x8(xd); vp9_inverse_transform_sb64uv_8x8(xd); break; case TX_4X4: vp9_transform_sb64y_4x4(x); vp9_transform_sb64uv_4x4(x); vp9_quantize_sb64y_4x4(x); vp9_quantize_sb64uv_4x4(x); if (x->optimize) { vp9_optimize_sb64y_4x4(cm, x); vp9_optimize_sb64uv_4x4(cm, x); } vp9_inverse_transform_sb64y_4x4(xd); vp9_inverse_transform_sb64uv_4x4(xd); break; default: assert(0); } vp9_recon_sb64y_s_c(xd, dst); vp9_recon_sb64uv_s_c(&x->e_mbd, udst, vdst); #if CONFIG_CODE_NONZEROCOUNT gather_nzcs_sb64(cm, &x->e_mbd); #endif vp9_tokenize_sb64(cpi, &x->e_mbd, t, !output_enabled); } else { // FIXME(rbultje): not tile-aware (mi - 1) int mb_skip_context = cpi->common.mb_no_coeff_skip ? (mi - 1)->mbmi.mb_skip_coeff + (mi - mis)->mbmi.mb_skip_coeff : 0; xd->mode_info_context->mbmi.mb_skip_coeff = 1; if (cm->mb_no_coeff_skip) { if (output_enabled) cpi->skip_true_count[mb_skip_context]++; vp9_reset_sb64_tokens_context(xd); } else { vp9_stuff_sb64(cpi, xd, t, !output_enabled); if (output_enabled) cpi->skip_false_count[mb_skip_context]++; } } // copy skip flag on all mb_mode_info contexts in this SB // if this was a skip at this txfm size for (n = 1; n < 16; n++) { const int x_idx = n & 3, y_idx = n >> 2; if (mb_col + x_idx < cm->mb_cols && mb_row + y_idx < cm->mb_rows) mi[x_idx + y_idx * mis].mbmi.mb_skip_coeff = mi->mbmi.mb_skip_coeff; } if (output_enabled) { if (cm->txfm_mode == TX_MODE_SELECT && !((cm->mb_no_coeff_skip && mi->mbmi.mb_skip_coeff) || (vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)))) { cpi->txfm_count_32x32p[mi->mbmi.txfm_size]++; } else { int x, y; TX_SIZE sz = (cm->txfm_mode == TX_MODE_SELECT) ? TX_32X32 : cm->txfm_mode; for (y = 0; y < 4; y++) { for (x = 0; x < 4; x++) { if (mb_col + x < cm->mb_cols && mb_row + y < cm->mb_rows) { mi[mis * y + x].mbmi.txfm_size = sz; } } } } } }