/* * 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 #include #include #include #include "vp9/common/vp9_pragmas.h" #include "vp9/encoder/vp9_tokenize.h" #include "vp9/encoder/vp9_treewriter.h" #include "vp9/encoder/vp9_onyx_int.h" #include "vp9/encoder/vp9_modecosts.h" #include "vp9/encoder/vp9_encodeintra.h" #include "vp9/common/vp9_entropymode.h" #include "vp9/common/vp9_reconinter.h" #include "vp9/common/vp9_reconintra.h" #include "vp9/common/vp9_findnearmv.h" #include "vp9/common/vp9_quant_common.h" #include "vp9/encoder/vp9_encodemb.h" #include "vp9/encoder/vp9_quantize.h" #include "vp9/encoder/vp9_variance.h" #include "vp9/encoder/vp9_mcomp.h" #include "vp9/encoder/vp9_rdopt.h" #include "vp9/encoder/vp9_ratectrl.h" #include "vpx_mem/vpx_mem.h" #include "vp9/common/vp9_systemdependent.h" #include "vp9/encoder/vp9_encodemv.h" #include "vp9/common/vp9_seg_common.h" #include "vp9/common/vp9_pred_common.h" #include "vp9/common/vp9_entropy.h" #include "vp9_rtcd.h" #include "vp9/common/vp9_mvref_common.h" #include "vp9/common/vp9_common.h" #define MAXF(a,b) (((a) > (b)) ? (a) : (b)) #define INVALID_MV 0x80008000 /* Factor to weigh the rate for switchable interp filters */ #define SWITCHABLE_INTERP_RATE_FACTOR 1 static const int auto_speed_thresh[17] = { 1000, 200, 150, 130, 150, 125, 120, 115, 115, 115, 115, 115, 115, 115, 115, 115, 105 }; const MODE_DEFINITION vp9_mode_order[MAX_MODES] = { {ZEROMV, LAST_FRAME, NONE}, {DC_PRED, INTRA_FRAME, NONE}, {NEARESTMV, LAST_FRAME, NONE}, {NEARMV, LAST_FRAME, NONE}, {ZEROMV, GOLDEN_FRAME, NONE}, {NEARESTMV, GOLDEN_FRAME, NONE}, {ZEROMV, ALTREF_FRAME, NONE}, {NEARESTMV, ALTREF_FRAME, NONE}, {NEARMV, GOLDEN_FRAME, NONE}, {NEARMV, ALTREF_FRAME, NONE}, {V_PRED, INTRA_FRAME, NONE}, {H_PRED, INTRA_FRAME, NONE}, {D45_PRED, INTRA_FRAME, NONE}, {D135_PRED, INTRA_FRAME, NONE}, {D117_PRED, INTRA_FRAME, NONE}, {D153_PRED, INTRA_FRAME, NONE}, {D27_PRED, INTRA_FRAME, NONE}, {D63_PRED, INTRA_FRAME, NONE}, {TM_PRED, INTRA_FRAME, NONE}, {NEWMV, LAST_FRAME, NONE}, {NEWMV, GOLDEN_FRAME, NONE}, {NEWMV, ALTREF_FRAME, NONE}, {SPLITMV, LAST_FRAME, NONE}, {SPLITMV, GOLDEN_FRAME, NONE}, {SPLITMV, ALTREF_FRAME, NONE}, {I4X4_PRED, INTRA_FRAME, NONE}, {I8X8_PRED, INTRA_FRAME, NONE}, /* compound prediction modes */ {ZEROMV, LAST_FRAME, GOLDEN_FRAME}, {NEARESTMV, LAST_FRAME, GOLDEN_FRAME}, {NEARMV, LAST_FRAME, GOLDEN_FRAME}, {ZEROMV, ALTREF_FRAME, LAST_FRAME}, {NEARESTMV, ALTREF_FRAME, LAST_FRAME}, {NEARMV, ALTREF_FRAME, LAST_FRAME}, {ZEROMV, GOLDEN_FRAME, ALTREF_FRAME}, {NEARESTMV, GOLDEN_FRAME, ALTREF_FRAME}, {NEARMV, GOLDEN_FRAME, ALTREF_FRAME}, {NEWMV, LAST_FRAME, GOLDEN_FRAME}, {NEWMV, ALTREF_FRAME, LAST_FRAME }, {NEWMV, GOLDEN_FRAME, ALTREF_FRAME}, {SPLITMV, LAST_FRAME, GOLDEN_FRAME}, {SPLITMV, ALTREF_FRAME, LAST_FRAME }, {SPLITMV, GOLDEN_FRAME, ALTREF_FRAME}, #if CONFIG_COMP_INTERINTRA_PRED /* compound inter-intra prediction */ {ZEROMV, LAST_FRAME, INTRA_FRAME}, {NEARESTMV, LAST_FRAME, INTRA_FRAME}, {NEARMV, LAST_FRAME, INTRA_FRAME}, {NEWMV, LAST_FRAME, INTRA_FRAME}, {ZEROMV, GOLDEN_FRAME, INTRA_FRAME}, {NEARESTMV, GOLDEN_FRAME, INTRA_FRAME}, {NEARMV, GOLDEN_FRAME, INTRA_FRAME}, {NEWMV, GOLDEN_FRAME, INTRA_FRAME}, {ZEROMV, ALTREF_FRAME, INTRA_FRAME}, {NEARESTMV, ALTREF_FRAME, INTRA_FRAME}, {NEARMV, ALTREF_FRAME, INTRA_FRAME}, {NEWMV, ALTREF_FRAME, INTRA_FRAME}, #endif }; static void fill_token_costs(vp9_coeff_count *c, vp9_coeff_probs *p, TX_SIZE tx_size) { int i, j, k, l; for (i = 0; i < BLOCK_TYPES; i++) for (j = 0; j < REF_TYPES; j++) for (k = 0; k < COEF_BANDS; k++) for (l = 0; l < PREV_COEF_CONTEXTS; l++) { vp9_cost_tokens_skip((int *)(c[i][j][k][l]), p[i][j][k][l], vp9_coef_tree); } } #if CONFIG_CODE_NONZEROCOUNT static void fill_nzc_costs(VP9_COMP *cpi, TX_SIZE tx_size) { int nzc_context, r, b, nzc, values; int cost[16]; values = (16 << (2 * tx_size)) + 1; for (nzc_context = 0; nzc_context < MAX_NZC_CONTEXTS; ++nzc_context) { for (r = 0; r < REF_TYPES; ++r) { for (b = 0; b < BLOCK_TYPES; ++b) { unsigned int *nzc_costs; if (tx_size == TX_4X4) { vp9_cost_tokens(cost, cpi->common.fc.nzc_probs_4x4[nzc_context][r][b], vp9_nzc4x4_tree); nzc_costs = cpi->mb.nzc_costs_4x4[nzc_context][r][b]; } else if (tx_size == TX_8X8) { vp9_cost_tokens(cost, cpi->common.fc.nzc_probs_8x8[nzc_context][r][b], vp9_nzc8x8_tree); nzc_costs = cpi->mb.nzc_costs_8x8[nzc_context][r][b]; } else if (tx_size == TX_16X16) { vp9_cost_tokens(cost, cpi->common.fc.nzc_probs_16x16[nzc_context][r][b], vp9_nzc16x16_tree); nzc_costs = cpi->mb.nzc_costs_16x16[nzc_context][r][b]; } else { vp9_cost_tokens(cost, cpi->common.fc.nzc_probs_32x32[nzc_context][r][b], vp9_nzc32x32_tree); nzc_costs = cpi->mb.nzc_costs_32x32[nzc_context][r][b]; } for (nzc = 0; nzc < values; ++nzc) { int e, c, totalcost = 0; c = codenzc(nzc); totalcost = cost[c]; if ((e = vp9_extranzcbits[c])) { int x = nzc - vp9_basenzcvalue[c]; while (e--) { totalcost += vp9_cost_bit( cpi->common.fc.nzc_pcat_probs[nzc_context] [c - NZC_TOKENS_NOEXTRA][e], ((x >> e) & 1)); } } nzc_costs[nzc] = totalcost; } } } } } #endif static int rd_iifactor[32] = { 4, 4, 3, 2, 1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, }; // 3* dc_qlookup[Q]*dc_qlookup[Q]; /* values are now correlated to quantizer */ static int sad_per_bit16lut[QINDEX_RANGE]; static int sad_per_bit4lut[QINDEX_RANGE]; void vp9_init_me_luts() { int i; // Initialize the sad lut tables using a formulaic calculation for now // This is to make it easier to resolve the impact of experimental changes // to the quantizer tables. for (i = 0; i < QINDEX_RANGE; i++) { sad_per_bit16lut[i] = (int)((0.0418 * vp9_convert_qindex_to_q(i)) + 2.4107); sad_per_bit4lut[i] = (int)((0.063 * vp9_convert_qindex_to_q(i)) + 2.742); } } static int compute_rd_mult(int qindex) { int q = vp9_dc_quant(qindex, 0); return (11 * q * q) >> 2; } void vp9_initialize_me_consts(VP9_COMP *cpi, int qindex) { cpi->mb.sadperbit16 = sad_per_bit16lut[qindex]; cpi->mb.sadperbit4 = sad_per_bit4lut[qindex]; } void vp9_initialize_rd_consts(VP9_COMP *cpi, int qindex) { int q, i; vp9_clear_system_state(); // __asm emms; // Further tests required to see if optimum is different // for key frames, golden frames and arf frames. // if (cpi->common.refresh_golden_frame || // cpi->common.refresh_alt_ref_frame) qindex = (qindex < 0) ? 0 : ((qindex > MAXQ) ? MAXQ : qindex); cpi->RDMULT = compute_rd_mult(qindex); if (cpi->pass == 2 && (cpi->common.frame_type != KEY_FRAME)) { if (cpi->twopass.next_iiratio > 31) cpi->RDMULT += (cpi->RDMULT * rd_iifactor[31]) >> 4; else cpi->RDMULT += (cpi->RDMULT * rd_iifactor[cpi->twopass.next_iiratio]) >> 4; } cpi->mb.errorperbit = cpi->RDMULT >> 6; cpi->mb.errorperbit += (cpi->mb.errorperbit == 0); vp9_set_speed_features(cpi); q = (int)pow(vp9_dc_quant(qindex, 0) >> 2, 1.25); q <<= 2; if (q < 8) q = 8; if (cpi->RDMULT > 1000) { cpi->RDDIV = 1; cpi->RDMULT /= 100; for (i = 0; i < MAX_MODES; i++) { if (cpi->sf.thresh_mult[i] < INT_MAX) { cpi->rd_threshes[i] = cpi->sf.thresh_mult[i] * q / 100; } else { cpi->rd_threshes[i] = INT_MAX; } cpi->rd_baseline_thresh[i] = cpi->rd_threshes[i]; } } else { cpi->RDDIV = 100; for (i = 0; i < MAX_MODES; i++) { if (cpi->sf.thresh_mult[i] < (INT_MAX / q)) { cpi->rd_threshes[i] = cpi->sf.thresh_mult[i] * q; } else { cpi->rd_threshes[i] = INT_MAX; } cpi->rd_baseline_thresh[i] = cpi->rd_threshes[i]; } } fill_token_costs(cpi->mb.token_costs[TX_4X4], cpi->common.fc.coef_probs_4x4, TX_4X4); fill_token_costs(cpi->mb.token_costs[TX_8X8], cpi->common.fc.coef_probs_8x8, TX_8X8); fill_token_costs(cpi->mb.token_costs[TX_16X16], cpi->common.fc.coef_probs_16x16, TX_16X16); fill_token_costs(cpi->mb.token_costs[TX_32X32], cpi->common.fc.coef_probs_32x32, TX_32X32); #if CONFIG_CODE_NONZEROCOUNT fill_nzc_costs(cpi, TX_4X4); fill_nzc_costs(cpi, TX_8X8); fill_nzc_costs(cpi, TX_16X16); fill_nzc_costs(cpi, TX_32X32); #endif /*rough estimate for costing*/ cpi->common.kf_ymode_probs_index = cpi->common.base_qindex >> 4; vp9_init_mode_costs(cpi); if (cpi->common.frame_type != KEY_FRAME) { vp9_build_nmv_cost_table( cpi->mb.nmvjointcost, cpi->mb.e_mbd.allow_high_precision_mv ? cpi->mb.nmvcost_hp : cpi->mb.nmvcost, &cpi->common.fc.nmvc, cpi->mb.e_mbd.allow_high_precision_mv, 1, 1); } } int vp9_block_error_c(int16_t *coeff, int16_t *dqcoeff, int block_size) { int i, error = 0; for (i = 0; i < block_size; i++) { int this_diff = coeff[i] - dqcoeff[i]; error += this_diff * this_diff; } return error; } static INLINE int cost_coeffs(VP9_COMMON *const cm, MACROBLOCK *mb, int ib, PLANE_TYPE type, ENTROPY_CONTEXT *a, ENTROPY_CONTEXT *l, TX_SIZE tx_size, int y_blocks) { MACROBLOCKD *const xd = &mb->e_mbd; MB_MODE_INFO *mbmi = &xd->mode_info_context->mbmi; int pt; int c = 0; int cost = 0, pad; const int *scan, *nb; const struct plane_block_idx pb_idx = plane_block_idx(y_blocks, ib); const int eob = xd->plane[pb_idx.plane].eobs[pb_idx.block]; const int16_t *qcoeff_ptr = BLOCK_OFFSET(xd->plane[pb_idx.plane].qcoeff, pb_idx.block, 16); const int ref = mbmi->ref_frame != INTRA_FRAME; unsigned int (*token_costs)[PREV_COEF_CONTEXTS][MAX_ENTROPY_TOKENS] = mb->token_costs[tx_size][type][ref]; ENTROPY_CONTEXT a_ec, l_ec; ENTROPY_CONTEXT *const a1 = a + sizeof(ENTROPY_CONTEXT_PLANES)/sizeof(ENTROPY_CONTEXT); ENTROPY_CONTEXT *const l1 = l + sizeof(ENTROPY_CONTEXT_PLANES)/sizeof(ENTROPY_CONTEXT); #if CONFIG_CODE_NONZEROCOUNT const int nzc_used = get_nzc_used(tx_size); int nzc_context = vp9_get_nzc_context(cm, xd, ib); unsigned int *nzc_cost; #endif const int segment_id = xd->mode_info_context->mbmi.segment_id; vp9_prob (*coef_probs)[REF_TYPES][COEF_BANDS][PREV_COEF_CONTEXTS] [ENTROPY_NODES]; int seg_eob, default_eob; uint8_t token_cache[1024]; // Check for consistency of tx_size with mode info assert((!type && !pb_idx.plane) || (type && pb_idx.plane)); if (type == PLANE_TYPE_Y_WITH_DC) { assert(xd->mode_info_context->mbmi.txfm_size == tx_size); } else { TX_SIZE tx_size_uv = get_uv_tx_size(xd); assert(tx_size == tx_size_uv); } switch (tx_size) { case TX_4X4: { const TX_TYPE tx_type = (type == PLANE_TYPE_Y_WITH_DC) ? get_tx_type_4x4(xd, ib) : DCT_DCT; a_ec = *a; l_ec = *l; #if CONFIG_CODE_NONZEROCOUNT nzc_cost = mb->nzc_costs_4x4[nzc_context][ref][type]; #endif coef_probs = cm->fc.coef_probs_4x4; seg_eob = 16; if (tx_type == ADST_DCT) { scan = vp9_row_scan_4x4; } else if (tx_type == DCT_ADST) { scan = vp9_col_scan_4x4; } else { scan = vp9_default_zig_zag1d_4x4; } break; } case TX_8X8: { const BLOCK_SIZE_TYPE sb_type = xd->mode_info_context->mbmi.sb_type; const int sz = 3 + mb_width_log2(sb_type); const int x = ib & ((1 << sz) - 1), y = ib - x; const TX_TYPE tx_type = (type == PLANE_TYPE_Y_WITH_DC) ? get_tx_type_8x8(xd, y + (x >> 1)) : DCT_DCT; a_ec = (a[0] + a[1]) != 0; l_ec = (l[0] + l[1]) != 0; if (tx_type == ADST_DCT) { scan = vp9_row_scan_8x8; } else if (tx_type == DCT_ADST) { scan = vp9_col_scan_8x8; } else { scan = vp9_default_zig_zag1d_8x8; } #if CONFIG_CODE_NONZEROCOUNT nzc_cost = mb->nzc_costs_8x8[nzc_context][ref][type]; #endif coef_probs = cm->fc.coef_probs_8x8; seg_eob = 64; break; } case TX_16X16: { const BLOCK_SIZE_TYPE sb_type = xd->mode_info_context->mbmi.sb_type; const int sz = 4 + mb_width_log2(sb_type); const int x = ib & ((1 << sz) - 1), y = ib - x; const TX_TYPE tx_type = (type == PLANE_TYPE_Y_WITH_DC) ? get_tx_type_16x16(xd, y + (x >> 2)) : DCT_DCT; if (tx_type == ADST_DCT) { scan = vp9_row_scan_16x16; } else if (tx_type == DCT_ADST) { scan = vp9_col_scan_16x16; } else { scan = vp9_default_zig_zag1d_16x16; } #if CONFIG_CODE_NONZEROCOUNT nzc_cost = mb->nzc_costs_16x16[nzc_context][ref][type]; #endif coef_probs = cm->fc.coef_probs_16x16; seg_eob = 256; if (type == PLANE_TYPE_UV) { a_ec = (a[0] + a[1] + a1[0] + a1[1]) != 0; l_ec = (l[0] + l[1] + l1[0] + l1[1]) != 0; } else { a_ec = (a[0] + a[1] + a[2] + a[3]) != 0; l_ec = (l[0] + l[1] + l[2] + l[3]) != 0; } break; } case TX_32X32: scan = vp9_default_zig_zag1d_32x32; #if CONFIG_CODE_NONZEROCOUNT nzc_cost = mb->nzc_costs_32x32[nzc_context][ref][type]; #endif coef_probs = cm->fc.coef_probs_32x32; seg_eob = 1024; if (type == PLANE_TYPE_UV) { ENTROPY_CONTEXT *a2, *a3, *l2, *l3; a2 = a1 + sizeof(ENTROPY_CONTEXT_PLANES) / sizeof(ENTROPY_CONTEXT); a3 = a2 + sizeof(ENTROPY_CONTEXT_PLANES) / sizeof(ENTROPY_CONTEXT); l2 = l1 + sizeof(ENTROPY_CONTEXT_PLANES) / sizeof(ENTROPY_CONTEXT); l3 = l2 + sizeof(ENTROPY_CONTEXT_PLANES) / sizeof(ENTROPY_CONTEXT); a_ec = (a[0] + a[1] + a1[0] + a1[1] + a2[0] + a2[1] + a3[0] + a3[1]) != 0; l_ec = (l[0] + l[1] + l1[0] + l1[1] + l2[0] + l2[1] + l3[0] + l3[1]) != 0; } else { a_ec = (a[0] + a[1] + a[2] + a[3] + a1[0] + a1[1] + a1[2] + a1[3]) != 0; l_ec = (l[0] + l[1] + l[2] + l[3] + l1[0] + l1[1] + l1[2] + l1[3]) != 0; } break; default: abort(); break; } assert(eob <= seg_eob); VP9_COMBINEENTROPYCONTEXTS(pt, a_ec, l_ec); nb = vp9_get_coef_neighbors_handle(scan, &pad); default_eob = seg_eob; #if CONFIG_CODE_NONZEROCOUNT if (!nzc_used) #endif if (vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)) seg_eob = 0; /* sanity check to ensure that we do not have spurious non-zero q values */ if (eob < seg_eob) assert(qcoeff_ptr[scan[eob]] == 0); { #if CONFIG_CODE_NONZEROCOUNT int nzc = 0; #endif for (; c < eob; c++) { int v = qcoeff_ptr[scan[c]]; int t = vp9_dct_value_tokens_ptr[v].Token; #if CONFIG_CODE_NONZEROCOUNT nzc += (v != 0); #endif token_cache[c] = t; cost += token_costs[get_coef_band(scan, tx_size, c)][pt][t]; cost += vp9_dct_value_cost_ptr[v]; #if !CONFIG_CODE_NONZEROCOUNT if (!c || token_cache[c - 1]) cost += vp9_cost_bit(coef_probs[type][ref] [get_coef_band(scan, tx_size, c)] [pt][0], 1); #endif pt = vp9_get_coef_context(scan, nb, pad, token_cache, c + 1, default_eob); } #if CONFIG_CODE_NONZEROCOUNT if (nzc_used) cost += nzc_cost[nzc]; else #endif if (c < seg_eob) cost += mb->token_costs[tx_size][type][ref] [get_coef_band(scan, tx_size, c)] [pt][DCT_EOB_TOKEN]; } // is eob first coefficient; pt = (c > 0); *a = *l = pt; if (tx_size >= TX_8X8) { a[1] = l[1] = pt; if (tx_size >= TX_16X16) { if (type == PLANE_TYPE_UV) { a1[0] = a1[1] = l1[0] = l1[1] = pt; } else { a[2] = a[3] = l[2] = l[3] = pt; if (tx_size >= TX_32X32) { a1[0] = a1[1] = a1[2] = a1[3] = pt; l1[0] = l1[1] = l1[2] = l1[3] = pt; } } } } return cost; } static void choose_txfm_size_from_rd(VP9_COMP *cpi, MACROBLOCK *x, int (*r)[2], int *rate, int *d, int *distortion, int *s, int *skip, int64_t txfm_cache[NB_TXFM_MODES], TX_SIZE max_txfm_size) { VP9_COMMON *const cm = &cpi->common; MACROBLOCKD *const xd = &x->e_mbd; MB_MODE_INFO *const mbmi = &xd->mode_info_context->mbmi; vp9_prob skip_prob = cm->mb_no_coeff_skip ? vp9_get_pred_prob(cm, xd, PRED_MBSKIP) : 128; int64_t rd[TX_SIZE_MAX_SB][2]; int n, m; for (n = TX_4X4; n <= max_txfm_size; n++) { r[n][1] = r[n][0]; for (m = 0; m <= n - (n == max_txfm_size); m++) { if (m == n) r[n][1] += vp9_cost_zero(cm->prob_tx[m]); else r[n][1] += vp9_cost_one(cm->prob_tx[m]); } } if (cm->mb_no_coeff_skip) { int s0, s1; assert(skip_prob > 0); s0 = vp9_cost_bit(skip_prob, 0); s1 = vp9_cost_bit(skip_prob, 1); for (n = TX_4X4; n <= max_txfm_size; n++) { if (s[n]) { rd[n][0] = rd[n][1] = RDCOST(x->rdmult, x->rddiv, s1, d[n]); } else { rd[n][0] = RDCOST(x->rdmult, x->rddiv, r[n][0] + s0, d[n]); rd[n][1] = RDCOST(x->rdmult, x->rddiv, r[n][1] + s0, d[n]); } } } else { for (n = TX_4X4; n <= max_txfm_size; n++) { rd[n][0] = RDCOST(x->rdmult, x->rddiv, r[n][0], d[n]); rd[n][1] = RDCOST(x->rdmult, x->rddiv, r[n][1], d[n]); } } if (max_txfm_size == TX_32X32 && (cm->txfm_mode == ALLOW_32X32 || (cm->txfm_mode == TX_MODE_SELECT && rd[TX_32X32][1] < rd[TX_16X16][1] && rd[TX_32X32][1] < rd[TX_8X8][1] && rd[TX_32X32][1] < rd[TX_4X4][1]))) { mbmi->txfm_size = TX_32X32; } else if ( cm->txfm_mode == ALLOW_16X16 || (max_txfm_size == TX_16X16 && cm->txfm_mode == ALLOW_32X32) || (cm->txfm_mode == TX_MODE_SELECT && rd[TX_16X16][1] < rd[TX_8X8][1] && rd[TX_16X16][1] < rd[TX_4X4][1])) { mbmi->txfm_size = TX_16X16; } else if (cm->txfm_mode == ALLOW_8X8 || (cm->txfm_mode == TX_MODE_SELECT && rd[TX_8X8][1] < rd[TX_4X4][1])) { mbmi->txfm_size = TX_8X8; } else { assert(cm->txfm_mode == ONLY_4X4 || cm->txfm_mode == TX_MODE_SELECT); mbmi->txfm_size = TX_4X4; } *distortion = d[mbmi->txfm_size]; *rate = r[mbmi->txfm_size][cm->txfm_mode == TX_MODE_SELECT]; *skip = s[mbmi->txfm_size]; txfm_cache[ONLY_4X4] = rd[TX_4X4][0]; txfm_cache[ALLOW_8X8] = rd[TX_8X8][0]; txfm_cache[ALLOW_16X16] = rd[TX_16X16][0]; txfm_cache[ALLOW_32X32] = rd[max_txfm_size][0]; if (max_txfm_size == TX_32X32 && rd[TX_32X32][1] < rd[TX_16X16][1] && rd[TX_32X32][1] < rd[TX_8X8][1] && rd[TX_32X32][1] < rd[TX_4X4][1]) txfm_cache[TX_MODE_SELECT] = rd[TX_32X32][1]; else if (rd[TX_16X16][1] < rd[TX_8X8][1] && rd[TX_16X16][1] < rd[TX_4X4][1]) txfm_cache[TX_MODE_SELECT] = rd[TX_16X16][1]; else txfm_cache[TX_MODE_SELECT] = rd[TX_4X4][1] < rd[TX_8X8][1] ? rd[TX_4X4][1] : rd[TX_8X8][1]; } static void copy_predictor(uint8_t *dst, const uint8_t *predictor) { const unsigned int *p = (const unsigned int *)predictor; unsigned int *d = (unsigned int *)dst; d[0] = p[0]; d[4] = p[4]; d[8] = p[8]; d[12] = p[12]; } static int vp9_sb_block_error_c(int16_t *coeff, int16_t *dqcoeff, int block_size, int shift) { int i; int64_t error = 0; for (i = 0; i < block_size; i++) { unsigned int this_diff = coeff[i] - dqcoeff[i]; error += this_diff * this_diff; } error >>= shift; return error > INT_MAX ? INT_MAX : (int)error; } static int vp9_sb_uv_block_error_c(int16_t *coeff, int16_t *dqcoeff0, int16_t *dqcoeff1, int block_size, int shift) { int i; int64_t error = 0; for (i = 0; i < block_size / 2; i++) { unsigned int this_diff = coeff[i] - dqcoeff0[i]; error += this_diff * this_diff; } coeff += block_size / 2; for (i = 0; i < block_size / 2; i++) { unsigned int this_diff = coeff[i] - dqcoeff1[i]; error += this_diff * this_diff; } error >>= shift; return error > INT_MAX ? INT_MAX : (int)error; } static int rdcost_sby_4x4(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) + 2, bw = 1 << bwl; const int bh = 1 << (mb_height_log2(bsize) + 2); int cost = 0, b; MACROBLOCKD *const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, (sizeof(ENTROPY_CONTEXT_PLANES) * bw) >> 2); vpx_memcpy(&t_left, xd->left_context, (sizeof(ENTROPY_CONTEXT_PLANES) * bh) >> 2); for (b = 0; b < bw * bh; b++) { const int x_idx = b & (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, b, PLANE_TYPE_Y_WITH_DC, ((ENTROPY_CONTEXT *) &t_above[x_idx >> 2]) + (x_idx & 3), ((ENTROPY_CONTEXT *) &t_left[y_idx >> 2]) + (y_idx & 3), TX_4X4, bw * bh); } return cost; } static void super_block_yrd_4x4(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skippable, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) + 2, bhl = mb_height_log2(bsize) + 2; MACROBLOCKD *const xd = &x->e_mbd; xd->mode_info_context->mbmi.txfm_size = TX_4X4; vp9_transform_sby_4x4(x, bsize); vp9_quantize_sby_4x4(x, bsize); *distortion = vp9_sb_block_error_c(x->coeff, xd->plane[0].dqcoeff, 16 << (bwl + bhl), 2); *rate = rdcost_sby_4x4(cm, x, bsize); *skippable = vp9_sby_is_skippable(xd, bsize); } static int rdcost_sby_8x8(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) + 1, bw = 1 << bwl; const int bh = 1 << (mb_height_log2(bsize) + 1); int cost = 0, b; MACROBLOCKD *const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, (sizeof(ENTROPY_CONTEXT_PLANES) * bw) >> 1); vpx_memcpy(&t_left, xd->left_context, (sizeof(ENTROPY_CONTEXT_PLANES) * bh) >> 1); for (b = 0; b < bw * bh; b++) { const int x_idx = b & (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, b * 4, PLANE_TYPE_Y_WITH_DC, ((ENTROPY_CONTEXT *) &t_above[x_idx >> 1]) + ((x_idx & 1) << 1), ((ENTROPY_CONTEXT *) &t_left[y_idx >> 1]) + ((y_idx & 1) << 1), TX_8X8, 4 * bw * bh); } return cost; } static void super_block_yrd_8x8(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skippable, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) + 1, bhl = mb_height_log2(bsize) + 1; MACROBLOCKD *const xd = &x->e_mbd; xd->mode_info_context->mbmi.txfm_size = TX_8X8; vp9_transform_sby_8x8(x, bsize); vp9_quantize_sby_8x8(x, bsize); *distortion = vp9_sb_block_error_c(x->coeff, xd->plane[0].dqcoeff, 64 << (bhl + bwl), 2); *rate = rdcost_sby_8x8(cm, x, bsize); *skippable = vp9_sby_is_skippable(xd, bsize); } static int rdcost_sby_16x16(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize), bw = 1 << bwl; const int bh = 1 << mb_height_log2(bsize); int cost = 0, b; MACROBLOCKD *const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, sizeof(ENTROPY_CONTEXT_PLANES) * bw); vpx_memcpy(&t_left, xd->left_context, sizeof(ENTROPY_CONTEXT_PLANES) * bh); for (b = 0; b < bw * bh; b++) { const int x_idx = b & (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, b * 16, PLANE_TYPE_Y_WITH_DC, (ENTROPY_CONTEXT *) &t_above[x_idx], (ENTROPY_CONTEXT *) &t_left[y_idx], TX_16X16, bw * bh * 16); } return cost; } static void super_block_yrd_16x16(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skippable, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize), bhl = mb_height_log2(bsize); MACROBLOCKD *const xd = &x->e_mbd; xd->mode_info_context->mbmi.txfm_size = TX_16X16; vp9_transform_sby_16x16(x, bsize); vp9_quantize_sby_16x16(x, bsize); *distortion = vp9_sb_block_error_c(x->coeff, xd->plane[0].dqcoeff, 256 << (bwl + bhl), 2); *rate = rdcost_sby_16x16(cm, x, bsize); *skippable = vp9_sby_is_skippable(xd, bsize); } static int rdcost_sby_32x32(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) - 1, bw = 1 << bwl; const int bh = 1 << (mb_height_log2(bsize) - 1); int cost = 0, b; MACROBLOCKD * const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, sizeof(ENTROPY_CONTEXT_PLANES) * bw * 2); vpx_memcpy(&t_left, xd->left_context, sizeof(ENTROPY_CONTEXT_PLANES) * bh * 2); for (b = 0; b < bw * bh; b++) { const int x_idx = b & (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, b * 64, PLANE_TYPE_Y_WITH_DC, (ENTROPY_CONTEXT *) &t_above[x_idx * 2], (ENTROPY_CONTEXT *) &t_left[y_idx * 2], TX_32X32, bw * bh * 64); } return cost; } static void super_block_yrd_32x32(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skippable, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) - 1, bhl = mb_height_log2(bsize) - 1; MACROBLOCKD *const xd = &x->e_mbd; xd->mode_info_context->mbmi.txfm_size = TX_32X32; vp9_transform_sby_32x32(x, bsize); vp9_quantize_sby_32x32(x, bsize); *distortion = vp9_sb_block_error_c(x->coeff, xd->plane[0].dqcoeff, 1024 << (bwl + bhl), 0); *rate = rdcost_sby_32x32(cm, x, bsize); *skippable = vp9_sby_is_skippable(xd, bsize); } static void super_block_yrd(VP9_COMP *cpi, MACROBLOCK *x, int *rate, int *distortion, int *skip, BLOCK_SIZE_TYPE bs, int64_t txfm_cache[NB_TXFM_MODES]) { VP9_COMMON *const cm = &cpi->common; MACROBLOCKD *const xd = &x->e_mbd; int r[TX_SIZE_MAX_SB][2], d[TX_SIZE_MAX_SB], s[TX_SIZE_MAX_SB]; uint8_t *src = x->src.y_buffer, *dst = xd->dst.y_buffer; int src_y_stride = x->src.y_stride, dst_y_stride = xd->dst.y_stride; // FIXME(rbultje): mb code still predicts into xd->predictor if (bs == BLOCK_SIZE_MB16X16) { vp9_subtract_mby(x->src_diff, src, xd->predictor, src_y_stride); } else { vp9_subtract_sby_s_c(x->src_diff, src, src_y_stride, dst, dst_y_stride, bs); } if (bs >= BLOCK_SIZE_SB32X32) super_block_yrd_32x32(cm, x, &r[TX_32X32][0], &d[TX_32X32], &s[TX_32X32], bs); super_block_yrd_16x16(cm, x, &r[TX_16X16][0], &d[TX_16X16], &s[TX_16X16], bs); super_block_yrd_8x8(cm, x, &r[TX_8X8][0], &d[TX_8X8], &s[TX_8X8], bs); super_block_yrd_4x4(cm, x, &r[TX_4X4][0], &d[TX_4X4], &s[TX_4X4], bs); choose_txfm_size_from_rd(cpi, x, r, rate, d, distortion, s, skip, txfm_cache, TX_32X32 - (bs < BLOCK_SIZE_SB32X32)); } static int64_t rd_pick_intra4x4block(VP9_COMP *cpi, MACROBLOCK *x, int ib, B_PREDICTION_MODE *best_mode, int *bmode_costs, ENTROPY_CONTEXT *a, ENTROPY_CONTEXT *l, int *bestrate, int *bestratey, int *bestdistortion) { B_PREDICTION_MODE mode; MACROBLOCKD *xd = &x->e_mbd; int64_t best_rd = INT64_MAX; int rate = 0; int distortion; VP9_COMMON *const cm = &cpi->common; BLOCK *be = x->block + ib; BLOCKD *b = xd->block + ib; ENTROPY_CONTEXT ta = *a, tempa = *a; ENTROPY_CONTEXT tl = *l, templ = *l; TX_TYPE tx_type = DCT_DCT; TX_TYPE best_tx_type = DCT_DCT; /* * The predictor buffer is a 2d buffer with a stride of 16. Create * a temp buffer that meets the stride requirements, but we are only * interested in the left 4x4 block * */ DECLARE_ALIGNED_ARRAY(16, uint8_t, best_predictor, 16 * 4); DECLARE_ALIGNED_ARRAY(16, int16_t, best_dqcoeff, 16); assert(ib < 16); #if CONFIG_NEWBINTRAMODES b->bmi.as_mode.context = vp9_find_bpred_context(xd, b); #endif xd->mode_info_context->mbmi.txfm_size = TX_4X4; for (mode = B_DC_PRED; mode < LEFT4X4; mode++) { int64_t this_rd; int ratey; #if CONFIG_NEWBINTRAMODES if (xd->frame_type == KEY_FRAME) { if (mode == B_CONTEXT_PRED) continue; } else { if (mode >= B_CONTEXT_PRED - CONTEXT_PRED_REPLACEMENTS && mode < B_CONTEXT_PRED) continue; } #endif b->bmi.as_mode.first = mode; #if CONFIG_NEWBINTRAMODES rate = bmode_costs[ mode == B_CONTEXT_PRED ? mode - CONTEXT_PRED_REPLACEMENTS : mode]; #else rate = bmode_costs[mode]; #endif vp9_intra4x4_predict(xd, b, mode, b->predictor, 16); vp9_subtract_b(be, b, 16); b->bmi.as_mode.first = mode; tx_type = get_tx_type_4x4(xd, be - x->block); if (tx_type != DCT_DCT) { vp9_short_fht4x4(be->src_diff, be->coeff, 16, tx_type); vp9_ht_quantize_b_4x4(x, be - x->block, tx_type); } else { x->fwd_txm4x4(be->src_diff, be->coeff, 32); x->quantize_b_4x4(x, be - x->block, 16); } tempa = ta; templ = tl; ratey = cost_coeffs(cm, x, b - xd->block, PLANE_TYPE_Y_WITH_DC, &tempa, &templ, TX_4X4, 16); rate += ratey; distortion = vp9_block_error(be->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, ib, 16), 16) >> 2; this_rd = RDCOST(x->rdmult, x->rddiv, rate, distortion); if (this_rd < best_rd) { *bestrate = rate; *bestratey = ratey; *bestdistortion = distortion; best_rd = this_rd; *best_mode = mode; best_tx_type = tx_type; *a = tempa; *l = templ; copy_predictor(best_predictor, b->predictor); vpx_memcpy(best_dqcoeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, ib, 16), 32); } } b->bmi.as_mode.first = (B_PREDICTION_MODE)(*best_mode); // inverse transform if (best_tx_type != DCT_DCT) vp9_short_iht4x4(best_dqcoeff, b->diff, 16, best_tx_type); else xd->inv_txm4x4(best_dqcoeff, b->diff, 32); vp9_recon_b(best_predictor, b->diff, *(b->base_dst) + b->dst, b->dst_stride); return best_rd; } static int64_t rd_pick_intra4x4mby_modes(VP9_COMP *cpi, MACROBLOCK *mb, int *Rate, int *rate_y, int *Distortion, int64_t best_rd) { int i; MACROBLOCKD *const xd = &mb->e_mbd; int cost = mb->mbmode_cost[xd->frame_type][I4X4_PRED]; int distortion = 0; int tot_rate_y = 0; int64_t total_rd = 0; ENTROPY_CONTEXT_PLANES t_above, t_left; ENTROPY_CONTEXT *ta, *tl; int *bmode_costs; vpx_memcpy(&t_above, xd->above_context, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(&t_left, xd->left_context, sizeof(ENTROPY_CONTEXT_PLANES)); ta = (ENTROPY_CONTEXT *)&t_above; tl = (ENTROPY_CONTEXT *)&t_left; xd->mode_info_context->mbmi.mode = I4X4_PRED; bmode_costs = mb->inter_bmode_costs; for (i = 0; i < 16; i++) { MODE_INFO *const mic = xd->mode_info_context; const int mis = xd->mode_info_stride; B_PREDICTION_MODE UNINITIALIZED_IS_SAFE(best_mode); int UNINITIALIZED_IS_SAFE(r), UNINITIALIZED_IS_SAFE(ry), UNINITIALIZED_IS_SAFE(d); if (xd->frame_type == KEY_FRAME) { const B_PREDICTION_MODE A = above_block_mode(mic, i, mis); const B_PREDICTION_MODE L = left_block_mode(mic, i); bmode_costs = mb->bmode_costs[A][L]; } #if CONFIG_NEWBINTRAMODES mic->bmi[i].as_mode.context = vp9_find_bpred_context(xd, xd->block + i); #endif total_rd += rd_pick_intra4x4block( cpi, mb, i, &best_mode, bmode_costs, ta + vp9_block2above[TX_4X4][i], tl + vp9_block2left[TX_4X4][i], &r, &ry, &d); cost += r; distortion += d; tot_rate_y += ry; mic->bmi[i].as_mode.first = best_mode; #if 0 // CONFIG_NEWBINTRAMODES printf("%d %d\n", mic->bmi[i].as_mode.first, mic->bmi[i].as_mode.context); #endif if (total_rd >= best_rd) break; } if (total_rd >= best_rd) return INT64_MAX; *Rate = cost; *rate_y = tot_rate_y; *Distortion = distortion; return RDCOST(mb->rdmult, mb->rddiv, cost, distortion); } static int64_t rd_pick_intra_sby_mode(VP9_COMP *cpi, MACROBLOCK *x, int *rate, int *rate_tokenonly, int *distortion, int *skippable, BLOCK_SIZE_TYPE bsize, int64_t txfm_cache[NB_TXFM_MODES]) { MB_PREDICTION_MODE mode; MB_PREDICTION_MODE UNINITIALIZED_IS_SAFE(mode_selected); int this_rate, this_rate_tokenonly; int this_distortion, s; int64_t best_rd = INT64_MAX, this_rd; TX_SIZE UNINITIALIZED_IS_SAFE(best_tx); int i; for (i = 0; i < NB_TXFM_MODES; i++) txfm_cache[i] = INT64_MAX; /* Y Search for 32x32 intra prediction mode */ for (mode = DC_PRED; mode <= TM_PRED; mode++) { int64_t local_txfm_cache[NB_TXFM_MODES]; x->e_mbd.mode_info_context->mbmi.mode = mode; if (bsize == BLOCK_SIZE_MB16X16) { vp9_build_intra_predictors_mby(&x->e_mbd); } else { vp9_build_intra_predictors_sby_s(&x->e_mbd, bsize); } super_block_yrd(cpi, x, &this_rate_tokenonly, &this_distortion, &s, bsize, local_txfm_cache); this_rate = this_rate_tokenonly + x->mbmode_cost[x->e_mbd.frame_type][mode]; this_rd = RDCOST(x->rdmult, x->rddiv, this_rate, this_distortion); if (this_rd < best_rd) { mode_selected = mode; best_rd = this_rd; best_tx = x->e_mbd.mode_info_context->mbmi.txfm_size; *rate = this_rate; *rate_tokenonly = this_rate_tokenonly; *distortion = this_distortion; *skippable = s; } for (i = 0; i < NB_TXFM_MODES; i++) { int64_t adj_rd = this_rd + local_txfm_cache[i] - local_txfm_cache[cpi->common.txfm_mode]; if (adj_rd < txfm_cache[i]) { txfm_cache[i] = adj_rd; } } } x->e_mbd.mode_info_context->mbmi.mode = mode_selected; x->e_mbd.mode_info_context->mbmi.txfm_size = best_tx; return best_rd; } static int64_t rd_pick_intra8x8block(VP9_COMP *cpi, MACROBLOCK *x, int ib, B_PREDICTION_MODE *best_mode, int *mode_costs, ENTROPY_CONTEXT *a, ENTROPY_CONTEXT *l, int *bestrate, int *bestratey, int *bestdistortion) { VP9_COMMON *const cm = &cpi->common; MB_PREDICTION_MODE mode; MACROBLOCKD *xd = &x->e_mbd; int64_t best_rd = INT64_MAX; int distortion = 0, rate = 0; BLOCK *be = x->block + ib; BLOCKD *b = xd->block + ib; ENTROPY_CONTEXT_PLANES ta, tl; ENTROPY_CONTEXT *ta0, *ta1, besta0 = 0, besta1 = 0; ENTROPY_CONTEXT *tl0, *tl1, bestl0 = 0, bestl1 = 0; // perform transformation of dimension 8x8 // note the input and output index mapping int idx = (ib & 0x02) ? (ib + 2) : ib; assert(ib < 16); for (mode = DC_PRED; mode <= TM_PRED; mode++) { int64_t this_rd; int rate_t = 0; // FIXME rate for compound mode and second intrapred mode rate = mode_costs[mode]; b->bmi.as_mode.first = mode; vp9_intra8x8_predict(xd, b, mode, b->predictor, 16); vp9_subtract_4b_c(be, b, 16); if (xd->mode_info_context->mbmi.txfm_size == TX_8X8) { TX_TYPE tx_type = get_tx_type_8x8(xd, ib); if (tx_type != DCT_DCT) vp9_short_fht8x8(be->src_diff, (x->block + idx)->coeff, 16, tx_type); else x->fwd_txm8x8(be->src_diff, (x->block + idx)->coeff, 32); x->quantize_b_8x8(x, idx, tx_type, 16); // compute quantization mse of 8x8 block distortion = vp9_block_error_c((x->block + idx)->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, idx, 16), 64); vpx_memcpy(&ta, a, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(&tl, l, sizeof(ENTROPY_CONTEXT_PLANES)); ta0 = ((ENTROPY_CONTEXT*)&ta) + vp9_block2above[TX_8X8][idx]; tl0 = ((ENTROPY_CONTEXT*)&tl) + vp9_block2left[TX_8X8][idx]; ta1 = ta0 + 1; tl1 = tl0 + 1; rate_t = cost_coeffs(cm, x, idx, PLANE_TYPE_Y_WITH_DC, ta0, tl0, TX_8X8, 16); rate += rate_t; } else { static const int iblock[4] = {0, 1, 4, 5}; TX_TYPE tx_type; int i; vpx_memcpy(&ta, a, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(&tl, l, sizeof(ENTROPY_CONTEXT_PLANES)); ta0 = ((ENTROPY_CONTEXT*)&ta) + vp9_block2above[TX_4X4][ib]; tl0 = ((ENTROPY_CONTEXT*)&tl) + vp9_block2left[TX_4X4][ib]; ta1 = ta0 + 1; tl1 = tl0 + 1; distortion = 0; rate_t = 0; for (i = 0; i < 4; ++i) { int do_two = 0; b = &xd->block[ib + iblock[i]]; be = &x->block[ib + iblock[i]]; tx_type = get_tx_type_4x4(xd, ib + iblock[i]); if (tx_type != DCT_DCT) { vp9_short_fht4x4(be->src_diff, be->coeff, 16, tx_type); vp9_ht_quantize_b_4x4(x, ib + iblock[i], tx_type); } else if (!(i & 1) && get_tx_type_4x4(xd, ib + iblock[i] + 1) == DCT_DCT) { x->fwd_txm8x4(be->src_diff, be->coeff, 32); x->quantize_b_4x4_pair(x, ib + iblock[i], ib + iblock[i] + 1, 16); do_two = 1; } else { x->fwd_txm4x4(be->src_diff, be->coeff, 32); x->quantize_b_4x4(x, ib + iblock[i], 16); } distortion += vp9_block_error_c(be->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, ib + iblock[i], 16), 16 << do_two); rate_t += cost_coeffs(cm, x, ib + iblock[i], PLANE_TYPE_Y_WITH_DC, i&1 ? ta1 : ta0, i&2 ? tl1 : tl0, TX_4X4, 16); if (do_two) { i++; rate_t += cost_coeffs(cm, x, ib + iblock[i], PLANE_TYPE_Y_WITH_DC, i&1 ? ta1 : ta0, i&2 ? tl1 : tl0, TX_4X4, 16); } } b = &xd->block[ib]; be = &x->block[ib]; rate += rate_t; } distortion >>= 2; this_rd = RDCOST(x->rdmult, x->rddiv, rate, distortion); if (this_rd < best_rd) { *bestrate = rate; *bestratey = rate_t; *bestdistortion = distortion; besta0 = *ta0; besta1 = *ta1; bestl0 = *tl0; bestl1 = *tl1; best_rd = this_rd; *best_mode = mode; } } b->bmi.as_mode.first = (*best_mode); vp9_encode_intra8x8(x, ib); if (xd->mode_info_context->mbmi.txfm_size == TX_8X8) { a[vp9_block2above[TX_8X8][idx]] = besta0; a[vp9_block2above[TX_8X8][idx] + 1] = besta1; l[vp9_block2left[TX_8X8][idx]] = bestl0; l[vp9_block2left[TX_8X8][idx] + 1] = bestl1; } else { a[vp9_block2above[TX_4X4][ib]] = besta0; a[vp9_block2above[TX_4X4][ib + 1]] = besta1; l[vp9_block2left[TX_4X4][ib]] = bestl0; l[vp9_block2left[TX_4X4][ib + 4]] = bestl1; } return best_rd; } static int64_t rd_pick_intra8x8mby_modes(VP9_COMP *cpi, MACROBLOCK *mb, int *Rate, int *rate_y, int *Distortion, int64_t best_rd) { MACROBLOCKD *const xd = &mb->e_mbd; int i, ib; int cost = mb->mbmode_cost [xd->frame_type] [I8X8_PRED]; int distortion = 0; int tot_rate_y = 0; int64_t total_rd = 0; ENTROPY_CONTEXT_PLANES t_above, t_left; ENTROPY_CONTEXT *ta, *tl; int *i8x8mode_costs; vpx_memcpy(&t_above, xd->above_context, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(&t_left, xd->left_context, sizeof(ENTROPY_CONTEXT_PLANES)); ta = (ENTROPY_CONTEXT *)&t_above; tl = (ENTROPY_CONTEXT *)&t_left; xd->mode_info_context->mbmi.mode = I8X8_PRED; i8x8mode_costs = mb->i8x8_mode_costs; for (i = 0; i < 4; i++) { MODE_INFO *const mic = xd->mode_info_context; B_PREDICTION_MODE UNINITIALIZED_IS_SAFE(best_mode); int UNINITIALIZED_IS_SAFE(r), UNINITIALIZED_IS_SAFE(ry), UNINITIALIZED_IS_SAFE(d); ib = vp9_i8x8_block[i]; total_rd += rd_pick_intra8x8block( cpi, mb, ib, &best_mode, i8x8mode_costs, ta, tl, &r, &ry, &d); cost += r; distortion += d; tot_rate_y += ry; mic->bmi[ib].as_mode.first = best_mode; } *Rate = cost; *rate_y = tot_rate_y; *Distortion = distortion; return RDCOST(mb->rdmult, mb->rddiv, cost, distortion); } static int64_t rd_pick_intra8x8mby_modes_and_txsz(VP9_COMP *cpi, MACROBLOCK *x, int *rate, int *rate_y, int *distortion, int *mode8x8, int64_t best_yrd, int64_t *txfm_cache) { VP9_COMMON *const cm = &cpi->common; MACROBLOCKD *const xd = &x->e_mbd; MB_MODE_INFO *mbmi = &xd->mode_info_context->mbmi; int cost0 = vp9_cost_bit(cm->prob_tx[0], 0); int cost1 = vp9_cost_bit(cm->prob_tx[0], 1); int64_t tmp_rd_4x4s, tmp_rd_8x8s; int64_t tmp_rd_4x4, tmp_rd_8x8, tmp_rd; int r4x4, tok4x4, d4x4, r8x8, tok8x8, d8x8; mbmi->txfm_size = TX_4X4; tmp_rd_4x4 = rd_pick_intra8x8mby_modes(cpi, x, &r4x4, &tok4x4, &d4x4, best_yrd); mode8x8[0] = xd->mode_info_context->bmi[0].as_mode.first; mode8x8[1] = xd->mode_info_context->bmi[2].as_mode.first; mode8x8[2] = xd->mode_info_context->bmi[8].as_mode.first; mode8x8[3] = xd->mode_info_context->bmi[10].as_mode.first; mbmi->txfm_size = TX_8X8; tmp_rd_8x8 = rd_pick_intra8x8mby_modes(cpi, x, &r8x8, &tok8x8, &d8x8, best_yrd); txfm_cache[ONLY_4X4] = tmp_rd_4x4; txfm_cache[ALLOW_8X8] = tmp_rd_8x8; txfm_cache[ALLOW_16X16] = tmp_rd_8x8; tmp_rd_4x4s = tmp_rd_4x4 + RDCOST(x->rdmult, x->rddiv, cost0, 0); tmp_rd_8x8s = tmp_rd_8x8 + RDCOST(x->rdmult, x->rddiv, cost1, 0); txfm_cache[TX_MODE_SELECT] = tmp_rd_4x4s < tmp_rd_8x8s ? tmp_rd_4x4s : tmp_rd_8x8s; if (cm->txfm_mode == TX_MODE_SELECT) { if (tmp_rd_4x4s < tmp_rd_8x8s) { *rate = r4x4 + cost0; *rate_y = tok4x4 + cost0; *distortion = d4x4; mbmi->txfm_size = TX_4X4; tmp_rd = tmp_rd_4x4s; } else { *rate = r8x8 + cost1; *rate_y = tok8x8 + cost1; *distortion = d8x8; mbmi->txfm_size = TX_8X8; tmp_rd = tmp_rd_8x8s; mode8x8[0] = xd->mode_info_context->bmi[0].as_mode.first; mode8x8[1] = xd->mode_info_context->bmi[2].as_mode.first; mode8x8[2] = xd->mode_info_context->bmi[8].as_mode.first; mode8x8[3] = xd->mode_info_context->bmi[10].as_mode.first; } } else if (cm->txfm_mode == ONLY_4X4) { *rate = r4x4; *rate_y = tok4x4; *distortion = d4x4; mbmi->txfm_size = TX_4X4; tmp_rd = tmp_rd_4x4; } else { *rate = r8x8; *rate_y = tok8x8; *distortion = d8x8; mbmi->txfm_size = TX_8X8; tmp_rd = tmp_rd_8x8; mode8x8[0] = xd->mode_info_context->bmi[0].as_mode.first; mode8x8[1] = xd->mode_info_context->bmi[2].as_mode.first; mode8x8[2] = xd->mode_info_context->bmi[8].as_mode.first; mode8x8[3] = xd->mode_info_context->bmi[10].as_mode.first; } return tmp_rd; } #define UVCTX(c, p) ((p) ? (c).v : (c).u) static int rd_cost_sbuv_4x4(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) + 1, bw = 1 << bwl; const int bh = 1 << (mb_height_log2(bsize) + 1); int yoff = 4 * bw * bh; int p, b, cost = 0; MACROBLOCKD *const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, (sizeof(ENTROPY_CONTEXT_PLANES) * bw) >> 1); vpx_memcpy(&t_left, xd->left_context, (sizeof(ENTROPY_CONTEXT_PLANES) * bh) >> 1); for (p = 0; p < 2; p++) { for (b = 0; b < bw * bh; b++) { const int x_idx = b & (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, yoff + b, PLANE_TYPE_UV, UVCTX(t_above[x_idx >> 1], p) + (x_idx & 1), UVCTX(t_left[y_idx >> 1], p) + (y_idx & 1), TX_4X4, bw * bh * 4); } yoff = (yoff * 5) >> 2; // u -> v } return cost; } static void super_block_uvrd_4x4(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skip, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) + 2, bhl = mb_height_log2(bsize) + 2; MACROBLOCKD *const xd = &x->e_mbd; vp9_transform_sbuv_4x4(x, bsize); vp9_quantize_sbuv_4x4(x, bsize); *rate = rd_cost_sbuv_4x4(cm, x, bsize); *distortion = vp9_sb_uv_block_error_c(x->coeff + (16 << (bwl + bhl)), xd->plane[1].dqcoeff, xd->plane[2].dqcoeff, 32 << (bwl + bhl - 2), 2); *skip = vp9_sbuv_is_skippable(xd, bsize); } static int rd_cost_sbuv_8x8(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize), bw = 1 << bwl; const int bh = 1 << mb_height_log2(bsize); int yoff = 16 * bw * bh; int p, b, cost = 0; MACROBLOCKD *const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, sizeof(ENTROPY_CONTEXT_PLANES) * bw); vpx_memcpy(&t_left, xd->left_context, sizeof(ENTROPY_CONTEXT_PLANES) * bh); for (p = 0; p < 2; p++) { for (b = 0; b < bw * bh; b++) { const int x_idx = b & (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, yoff + b * 4, PLANE_TYPE_UV, UVCTX(t_above[x_idx], p), UVCTX(t_left[y_idx], p), TX_8X8, bw * bh * 16); } yoff = (yoff * 5) >> 2; // u -> v } return cost; } static void super_block_uvrd_8x8(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skip, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) + 1, bhl = mb_height_log2(bsize) + 1; MACROBLOCKD *const xd = &x->e_mbd; vp9_transform_sbuv_8x8(x, bsize); vp9_quantize_sbuv_8x8(x, bsize); *rate = rd_cost_sbuv_8x8(cm, x, bsize); *distortion = vp9_sb_uv_block_error_c(x->coeff + (64 << (bwl + bhl)), xd->plane[1].dqcoeff, xd->plane[2].dqcoeff, 128 << (bwl + bhl - 2), 2); *skip = vp9_sbuv_is_skippable(xd, bsize); } static int rd_cost_sbuv_16x16(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) - 1, bw = 1 << bwl; const int bh = 1 << (mb_height_log2(bsize) - 1); int yoff = 64 * bw * bh; int p, b, cost = 0; MACROBLOCKD *const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, sizeof(ENTROPY_CONTEXT_PLANES) * 2 * bw); vpx_memcpy(&t_left, xd->left_context, sizeof(ENTROPY_CONTEXT_PLANES) * 2 * bh); for (p = 0; p < 2; p++) { for (b = 0; b < bw * bh; b++) { const int x_idx = b & (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, yoff + b * 16, PLANE_TYPE_UV, UVCTX(t_above[x_idx * 2], p), UVCTX(t_left[y_idx * 2], p), TX_16X16, bw * bh * 64); } yoff = (yoff * 5) >> 2; // u -> v } return cost; } static void super_block_uvrd_16x16(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skip, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize), bhl = mb_height_log2(bsize); MACROBLOCKD *const xd = &x->e_mbd; vp9_transform_sbuv_16x16(x, bsize); vp9_quantize_sbuv_16x16(x, bsize); *rate = rd_cost_sbuv_16x16(cm, x, bsize); *distortion = vp9_sb_uv_block_error_c(x->coeff + (256 << (bwl + bhl)), xd->plane[1].dqcoeff, xd->plane[2].dqcoeff, 512 << (bwl + bhl - 2), 2); *skip = vp9_sbuv_is_skippable(xd, bsize); } static int rd_cost_sbuv_32x32(VP9_COMMON *const cm, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) - 2, bw = 1 << bwl; const int bh = 1 << (mb_height_log2(bsize) - 2); int yoff = 256 * bh * bw; int p, b, cost = 0; MACROBLOCKD *const xd = &x->e_mbd; ENTROPY_CONTEXT_PLANES t_above[4], t_left[4]; vpx_memcpy(&t_above, xd->above_context, sizeof(ENTROPY_CONTEXT_PLANES) * 4 * bw); vpx_memcpy(&t_left, xd->left_context, sizeof(ENTROPY_CONTEXT_PLANES) * 4 * bh); for (p = 0; p < 2; p++) { for (b = 0; b < bw * bh; b++) { const int x_idx = b * (bw - 1), y_idx = b >> bwl; cost += cost_coeffs(cm, x, yoff + b * 64, PLANE_TYPE_UV, UVCTX(t_above[x_idx * 4], p), UVCTX(t_left[y_idx * 4], p), TX_32X32, 256 * bh * bw); } yoff = (yoff * 5) >> 2; // u -> v } return cost; } #undef UVCTX static void super_block_uvrd_32x32(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skip, BLOCK_SIZE_TYPE bsize) { const int bwl = mb_width_log2(bsize) - 1, bhl = mb_height_log2(bsize) - 1; MACROBLOCKD *const xd = &x->e_mbd; vp9_transform_sbuv_32x32(x, bsize); vp9_quantize_sbuv_32x32(x, bsize); *rate = rd_cost_sbuv_32x32(cm, x, bsize); *distortion = vp9_sb_uv_block_error_c(x->coeff + (1024 << (bwl + bhl)), xd->plane[1].dqcoeff, xd->plane[2].dqcoeff, 2048 << (bwl + bhl - 2), 0); *skip = vp9_sbuv_is_skippable(xd, bsize); } static void super_block_uvrd(VP9_COMMON *const cm, MACROBLOCK *x, int *rate, int *distortion, int *skippable, BLOCK_SIZE_TYPE bsize) { MACROBLOCKD *const xd = &x->e_mbd; MB_MODE_INFO *const mbmi = &xd->mode_info_context->mbmi; uint8_t *usrc = x->src.u_buffer, *udst = xd->dst.u_buffer; uint8_t *vsrc = x->src.v_buffer, *vdst = xd->dst.v_buffer; int src_uv_stride = x->src.uv_stride, dst_uv_stride = xd->dst.uv_stride; // FIXME(rbultje): mb code still predicts into xd->predictor if (bsize == BLOCK_SIZE_MB16X16) { vp9_subtract_mbuv(x->src_diff, usrc, vsrc, xd->predictor, x->src.uv_stride); } else { vp9_subtract_sbuv_s_c(x->src_diff, usrc, vsrc, src_uv_stride, udst, vdst, dst_uv_stride, bsize); } if (mbmi->txfm_size >= TX_32X32 && bsize >= BLOCK_SIZE_SB64X64) { super_block_uvrd_32x32(cm, x, rate, distortion, skippable, bsize); } else if (mbmi->txfm_size >= TX_16X16 && bsize >= BLOCK_SIZE_SB32X32) { super_block_uvrd_16x16(cm, x, rate, distortion, skippable, bsize); } else if (mbmi->txfm_size >= TX_8X8) { super_block_uvrd_8x8(cm, x, rate, distortion, skippable, bsize); } else { assert(mbmi->txfm_size == TX_4X4); super_block_uvrd_4x4(cm, x, rate, distortion, skippable, bsize); } } static int64_t rd_pick_intra_sbuv_mode(VP9_COMP *cpi, MACROBLOCK *x, int *rate, int *rate_tokenonly, int *distortion, int *skippable, BLOCK_SIZE_TYPE bsize) { MB_PREDICTION_MODE mode; MB_PREDICTION_MODE UNINITIALIZED_IS_SAFE(mode_selected); int64_t best_rd = INT64_MAX, this_rd; int this_rate_tokenonly, this_rate; int this_distortion, s; for (mode = DC_PRED; mode <= TM_PRED; mode++) { x->e_mbd.mode_info_context->mbmi.uv_mode = mode; if (bsize == BLOCK_SIZE_MB16X16) vp9_build_intra_predictors_mbuv(&x->e_mbd); else vp9_build_intra_predictors_sbuv_s(&x->e_mbd, bsize); super_block_uvrd(&cpi->common, x, &this_rate_tokenonly, &this_distortion, &s, bsize); this_rate = this_rate_tokenonly + x->intra_uv_mode_cost[x->e_mbd.frame_type][mode]; this_rd = RDCOST(x->rdmult, x->rddiv, this_rate, this_distortion); if (this_rd < best_rd) { mode_selected = mode; best_rd = this_rd; *rate = this_rate; *rate_tokenonly = this_rate_tokenonly; *distortion = this_distortion; *skippable = s; } } x->e_mbd.mode_info_context->mbmi.uv_mode = mode_selected; return best_rd; } int vp9_cost_mv_ref(VP9_COMP *cpi, MB_PREDICTION_MODE m, const int mode_context) { MACROBLOCKD *xd = &cpi->mb.e_mbd; int segment_id = xd->mode_info_context->mbmi.segment_id; // Dont account for mode here if segment skip is enabled. if (!vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP)) { VP9_COMMON *pc = &cpi->common; vp9_prob p [VP9_MVREFS - 1]; assert(NEARESTMV <= m && m <= SPLITMV); vp9_mv_ref_probs(pc, p, mode_context); return cost_token(vp9_mv_ref_tree, p, vp9_mv_ref_encoding_array - NEARESTMV + m); } else return 0; } void vp9_set_mbmode_and_mvs(MACROBLOCK *x, MB_PREDICTION_MODE mb, int_mv *mv) { x->e_mbd.mode_info_context->mbmi.mode = mb; x->e_mbd.mode_info_context->mbmi.mv[0].as_int = mv->as_int; } static int labels2mode( MACROBLOCK *x, int const *labelings, int which_label, B_PREDICTION_MODE this_mode, int_mv *this_mv, int_mv *this_second_mv, int_mv seg_mvs[MAX_REF_FRAMES - 1], int_mv *best_ref_mv, int_mv *second_best_ref_mv, int *mvjcost, int *mvcost[2]) { MACROBLOCKD *const xd = &x->e_mbd; MODE_INFO *const mic = xd->mode_info_context; MB_MODE_INFO * mbmi = &mic->mbmi; const int mis = xd->mode_info_stride; int i, cost = 0, thismvcost = 0; /* We have to be careful retrieving previously-encoded motion vectors. Ones from this macroblock have to be pulled from the BLOCKD array as they have not yet made it to the bmi array in our MB_MODE_INFO. */ for (i = 0; i < 16; ++i) { BLOCKD *const d = xd->block + i; const int row = i >> 2, col = i & 3; B_PREDICTION_MODE m; if (labelings[i] != which_label) continue; if (col && labelings[i] == labelings[i - 1]) m = LEFT4X4; else if (row && labelings[i] == labelings[i - 4]) m = ABOVE4X4; else { // the only time we should do costing for new motion vector or mode // is when we are on a new label (jbb May 08, 2007) switch (m = this_mode) { case NEW4X4 : if (mbmi->second_ref_frame > 0) { this_mv->as_int = seg_mvs[mbmi->ref_frame - 1].as_int; this_second_mv->as_int = seg_mvs[mbmi->second_ref_frame - 1].as_int; } thismvcost = vp9_mv_bit_cost(this_mv, best_ref_mv, mvjcost, mvcost, 102, xd->allow_high_precision_mv); if (mbmi->second_ref_frame > 0) { thismvcost += vp9_mv_bit_cost(this_second_mv, second_best_ref_mv, mvjcost, mvcost, 102, xd->allow_high_precision_mv); } break; case LEFT4X4: this_mv->as_int = col ? d[-1].bmi.as_mv[0].as_int : left_block_mv(xd, mic, i); if (mbmi->second_ref_frame > 0) this_second_mv->as_int = col ? d[-1].bmi.as_mv[1].as_int : left_block_second_mv(xd, mic, i); break; case ABOVE4X4: this_mv->as_int = row ? d[-4].bmi.as_mv[0].as_int : above_block_mv(mic, i, mis); if (mbmi->second_ref_frame > 0) this_second_mv->as_int = row ? d[-4].bmi.as_mv[1].as_int : above_block_second_mv(mic, i, mis); break; case ZERO4X4: this_mv->as_int = 0; if (mbmi->second_ref_frame > 0) this_second_mv->as_int = 0; break; default: break; } if (m == ABOVE4X4) { // replace above with left if same int_mv left_mv, left_second_mv; left_second_mv.as_int = 0; left_mv.as_int = col ? d[-1].bmi.as_mv[0].as_int : left_block_mv(xd, mic, i); if (mbmi->second_ref_frame > 0) left_second_mv.as_int = col ? d[-1].bmi.as_mv[1].as_int : left_block_second_mv(xd, mic, i); if (left_mv.as_int == this_mv->as_int && (mbmi->second_ref_frame <= 0 || left_second_mv.as_int == this_second_mv->as_int)) m = LEFT4X4; } #if CONFIG_NEWBINTRAMODES cost = x->inter_bmode_costs[ m == B_CONTEXT_PRED ? m - CONTEXT_PRED_REPLACEMENTS : m]; #else cost = x->inter_bmode_costs[m]; #endif } d->bmi.as_mv[0].as_int = this_mv->as_int; if (mbmi->second_ref_frame > 0) d->bmi.as_mv[1].as_int = this_second_mv->as_int; x->partition_info->bmi[i].mode = m; x->partition_info->bmi[i].mv.as_int = this_mv->as_int; if (mbmi->second_ref_frame > 0) x->partition_info->bmi[i].second_mv.as_int = this_second_mv->as_int; } cost += thismvcost; return cost; } static int64_t encode_inter_mb_segment(VP9_COMMON *const cm, MACROBLOCK *x, int const *labels, int which_label, int *labelyrate, int *distortion, ENTROPY_CONTEXT *ta, ENTROPY_CONTEXT *tl) { int i; MACROBLOCKD *xd = &x->e_mbd; *labelyrate = 0; *distortion = 0; for (i = 0; i < 16; i++) { if (labels[i] == which_label) { BLOCKD *bd = &x->e_mbd.block[i]; BLOCK *be = &x->block[i]; int thisdistortion; vp9_build_inter_predictor(*(bd->base_pre) + bd->pre, bd->pre_stride, bd->predictor, 16, &bd->bmi.as_mv[0], &xd->scale_factor[0], 4, 4, 0 /* no avg */, &xd->subpix); // TODO(debargha): Make this work properly with the // implicit-compoundinter-weight experiment when implicit // weighting for splitmv modes is turned on. if (xd->mode_info_context->mbmi.second_ref_frame > 0) { vp9_build_inter_predictor( *(bd->base_second_pre) + bd->pre, bd->pre_stride, bd->predictor, 16, &bd->bmi.as_mv[1], &xd->scale_factor[1], 4, 4, 1 << (2 * CONFIG_IMPLICIT_COMPOUNDINTER_WEIGHT) /* avg */, &xd->subpix); } vp9_subtract_b(be, bd, 16); x->fwd_txm4x4(be->src_diff, be->coeff, 32); x->quantize_b_4x4(x, i, 16); thisdistortion = vp9_block_error(be->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, i, 16), 16); *distortion += thisdistortion; *labelyrate += cost_coeffs(cm, x, i, PLANE_TYPE_Y_WITH_DC, ta + vp9_block2above[TX_4X4][i], tl + vp9_block2left[TX_4X4][i], TX_4X4, 16); } } *distortion >>= 2; return RDCOST(x->rdmult, x->rddiv, *labelyrate, *distortion); } static int64_t encode_inter_mb_segment_8x8(VP9_COMMON *const cm, MACROBLOCK *x, int const *labels, int which_label, int *labelyrate, int *distortion, int64_t *otherrd, ENTROPY_CONTEXT *ta, ENTROPY_CONTEXT *tl) { int i, j; MACROBLOCKD *xd = &x->e_mbd; const int iblock[4] = { 0, 1, 4, 5 }; int othercost = 0, otherdist = 0; ENTROPY_CONTEXT_PLANES tac, tlc; ENTROPY_CONTEXT *tacp = (ENTROPY_CONTEXT *) &tac, *tlcp = (ENTROPY_CONTEXT *) &tlc; if (otherrd) { memcpy(&tac, ta, sizeof(ENTROPY_CONTEXT_PLANES)); memcpy(&tlc, tl, sizeof(ENTROPY_CONTEXT_PLANES)); } *distortion = 0; *labelyrate = 0; for (i = 0; i < 4; i++) { int ib = vp9_i8x8_block[i]; if (labels[ib] == which_label) { const int use_second_ref = xd->mode_info_context->mbmi.second_ref_frame > 0; int which_mv; const int idx = (ib & 8) + ((ib & 2) << 1); BLOCKD *bd = &xd->block[ib]; BLOCK *be = &x->block[ib], *be2 = &x->block[idx]; int thisdistortion; assert(idx < 16); for (which_mv = 0; which_mv < 1 + use_second_ref; ++which_mv) { uint8_t **base_pre = which_mv ? bd->base_second_pre : bd->base_pre; // TODO(debargha): Make this work properly with the // implicit-compoundinter-weight experiment when implicit // weighting for splitmv modes is turned on. vp9_build_inter_predictor( *base_pre + bd->pre, bd->pre_stride, bd->predictor, 16, &bd->bmi.as_mv[which_mv], &xd->scale_factor[which_mv], 8, 8, which_mv << (2 * CONFIG_IMPLICIT_COMPOUNDINTER_WEIGHT), &xd->subpix); } vp9_subtract_4b_c(be, bd, 16); if (xd->mode_info_context->mbmi.txfm_size == TX_4X4) { if (otherrd) { x->fwd_txm8x8(be->src_diff, be2->coeff, 32); x->quantize_b_8x8(x, idx, DCT_DCT, 16); thisdistortion = vp9_block_error_c(be2->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, idx, 16), 64); otherdist += thisdistortion; xd->mode_info_context->mbmi.txfm_size = TX_8X8; othercost += cost_coeffs(cm, x, idx, PLANE_TYPE_Y_WITH_DC, tacp + vp9_block2above[TX_8X8][idx], tlcp + vp9_block2left[TX_8X8][idx], TX_8X8, 16); xd->mode_info_context->mbmi.txfm_size = TX_4X4; } for (j = 0; j < 4; j += 2) { bd = &xd->block[ib + iblock[j]]; be = &x->block[ib + iblock[j]]; x->fwd_txm8x4(be->src_diff, be->coeff, 32); x->quantize_b_4x4_pair(x, ib + iblock[j], ib + iblock[j] + 1, 16); thisdistortion = vp9_block_error_c(be->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, ib + iblock[j], 16), 32); *distortion += thisdistortion; *labelyrate += cost_coeffs(cm, x, ib + iblock[j], PLANE_TYPE_Y_WITH_DC, ta + vp9_block2above[TX_4X4][ib + iblock[j]], tl + vp9_block2left[TX_4X4][ib + iblock[j]], TX_4X4, 16); *labelyrate += cost_coeffs(cm, x, ib + iblock[j] + 1, PLANE_TYPE_Y_WITH_DC, ta + vp9_block2above[TX_4X4][ib + iblock[j] + 1], tl + vp9_block2left[TX_4X4][ib + iblock[j]], TX_4X4, 16); } } else /* 8x8 */ { if (otherrd) { for (j = 0; j < 4; j += 2) { BLOCK *be = &x->block[ib + iblock[j]]; x->fwd_txm8x4(be->src_diff, be->coeff, 32); x->quantize_b_4x4_pair(x, ib + iblock[j], ib + iblock[j] + 1, 16); thisdistortion = vp9_block_error_c(be->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, ib + iblock[j], 16), 32); otherdist += thisdistortion; xd->mode_info_context->mbmi.txfm_size = TX_4X4; othercost += cost_coeffs(cm, x, ib + iblock[j], PLANE_TYPE_Y_WITH_DC, tacp + vp9_block2above[TX_4X4][ib + iblock[j]], tlcp + vp9_block2left[TX_4X4][ib + iblock[j]], TX_4X4, 16); othercost += cost_coeffs(cm, x, ib + iblock[j] + 1, PLANE_TYPE_Y_WITH_DC, tacp + vp9_block2above[TX_4X4][ib + iblock[j] + 1], tlcp + vp9_block2left[TX_4X4][ib + iblock[j]], TX_4X4, 16); xd->mode_info_context->mbmi.txfm_size = TX_8X8; } } x->fwd_txm8x8(be->src_diff, be2->coeff, 32); x->quantize_b_8x8(x, idx, DCT_DCT, 16); thisdistortion = vp9_block_error_c(be2->coeff, BLOCK_OFFSET(xd->plane[0].dqcoeff, idx, 16), 64); *distortion += thisdistortion; *labelyrate += cost_coeffs(cm, x, idx, PLANE_TYPE_Y_WITH_DC, ta + vp9_block2above[TX_8X8][idx], tl + vp9_block2left[TX_8X8][idx], TX_8X8, 16); } } } *distortion >>= 2; if (otherrd) { otherdist >>= 2; *otherrd = RDCOST(x->rdmult, x->rddiv, othercost, otherdist); } return RDCOST(x->rdmult, x->rddiv, *labelyrate, *distortion); } static const unsigned int segmentation_to_sseshift[4] = {3, 3, 2, 0}; typedef struct { int_mv *ref_mv, *second_ref_mv; int_mv mvp; int64_t segment_rd; SPLITMV_PARTITIONING_TYPE segment_num; TX_SIZE txfm_size; int r; int d; int segment_yrate; B_PREDICTION_MODE modes[16]; int_mv mvs[16], second_mvs[16]; int eobs[16]; int mvthresh; int *mdcounts; int_mv sv_mvp[4]; // save 4 mvp from 8x8 int sv_istep[2]; // save 2 initial step_param for 16x8/8x16 } BEST_SEG_INFO; static INLINE int mv_check_bounds(MACROBLOCK *x, int_mv *mv) { int r = 0; r |= (mv->as_mv.row >> 3) < x->mv_row_min; r |= (mv->as_mv.row >> 3) > x->mv_row_max; r |= (mv->as_mv.col >> 3) < x->mv_col_min; r |= (mv->as_mv.col >> 3) > x->mv_col_max; return r; } static void rd_check_segment_txsize(VP9_COMP *cpi, MACROBLOCK *x, BEST_SEG_INFO *bsi, SPLITMV_PARTITIONING_TYPE segmentation, TX_SIZE tx_size, int64_t *otherrds, int64_t *rds, int *completed, /* 16 = n_blocks */ int_mv seg_mvs[16 /* n_blocks */] [MAX_REF_FRAMES - 1]) { int i, j; int const *labels; int br = 0, bd = 0; B_PREDICTION_MODE this_mode; MB_MODE_INFO * mbmi = &x->e_mbd.mode_info_context->mbmi; int label_count; int64_t this_segment_rd = 0, other_segment_rd; int label_mv_thresh; int rate = 0; int sbr = 0, sbd = 0; int segmentyrate = 0; int best_eobs[16] = { 0 }; vp9_variance_fn_ptr_t *v_fn_ptr; ENTROPY_CONTEXT_PLANES t_above, t_left; ENTROPY_CONTEXT *ta, *tl; ENTROPY_CONTEXT_PLANES t_above_b, t_left_b; ENTROPY_CONTEXT *ta_b, *tl_b; vpx_memcpy(&t_above, x->e_mbd.above_context, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(&t_left, x->e_mbd.left_context, sizeof(ENTROPY_CONTEXT_PLANES)); ta = (ENTROPY_CONTEXT *)&t_above; tl = (ENTROPY_CONTEXT *)&t_left; ta_b = (ENTROPY_CONTEXT *)&t_above_b; tl_b = (ENTROPY_CONTEXT *)&t_left_b; v_fn_ptr = &cpi->fn_ptr[segmentation]; labels = vp9_mbsplits[segmentation]; label_count = vp9_mbsplit_count[segmentation]; // 64 makes this threshold really big effectively // making it so that we very rarely check mvs on // segments. setting this to 1 would make mv thresh // roughly equal to what it is for macroblocks label_mv_thresh = 1 * bsi->mvthresh / label_count; // Segmentation method overheads rate = cost_token(vp9_mbsplit_tree, vp9_mbsplit_probs, vp9_mbsplit_encodings + segmentation); rate += vp9_cost_mv_ref(cpi, SPLITMV, mbmi->mb_mode_context[mbmi->ref_frame]); this_segment_rd += RDCOST(x->rdmult, x->rddiv, rate, 0); br += rate; other_segment_rd = this_segment_rd; mbmi->txfm_size = tx_size; for (i = 0; i < label_count && this_segment_rd < bsi->segment_rd; i++) { int_mv mode_mv[B_MODE_COUNT], second_mode_mv[B_MODE_COUNT]; int64_t best_label_rd = INT64_MAX, best_other_rd = INT64_MAX; B_PREDICTION_MODE mode_selected = ZERO4X4; int bestlabelyrate = 0; // search for the best motion vector on this segment for (this_mode = LEFT4X4; this_mode <= NEW4X4; this_mode ++) { int64_t this_rd, other_rd; int distortion; int labelyrate; ENTROPY_CONTEXT_PLANES t_above_s, t_left_s; ENTROPY_CONTEXT *ta_s; ENTROPY_CONTEXT *tl_s; vpx_memcpy(&t_above_s, &t_above, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(&t_left_s, &t_left, sizeof(ENTROPY_CONTEXT_PLANES)); ta_s = (ENTROPY_CONTEXT *)&t_above_s; tl_s = (ENTROPY_CONTEXT *)&t_left_s; // motion search for newmv (single predictor case only) if (mbmi->second_ref_frame <= 0 && this_mode == NEW4X4) { int sseshift, n; int step_param = 0; int further_steps; int thissme, bestsme = INT_MAX; BLOCK *c; BLOCKD *e; /* Is the best so far sufficiently good that we cant justify doing * and new motion search. */ if (best_label_rd < label_mv_thresh) break; if (cpi->compressor_speed) { if (segmentation == PARTITIONING_8X16 || segmentation == PARTITIONING_16X8) { bsi->mvp.as_int = bsi->sv_mvp[i].as_int; if (i == 1 && segmentation == PARTITIONING_16X8) bsi->mvp.as_int = bsi->sv_mvp[2].as_int; step_param = bsi->sv_istep[i]; } // use previous block's result as next block's MV predictor. if (segmentation == PARTITIONING_4X4 && i > 0) { bsi->mvp.as_int = x->e_mbd.block[i - 1].bmi.as_mv[0].as_int; if (i == 4 || i == 8 || i == 12) bsi->mvp.as_int = x->e_mbd.block[i - 4].bmi.as_mv[0].as_int; step_param = 2; } } further_steps = (MAX_MVSEARCH_STEPS - 1) - step_param; { int sadpb = x->sadperbit4; int_mv mvp_full; mvp_full.as_mv.row = bsi->mvp.as_mv.row >> 3; mvp_full.as_mv.col = bsi->mvp.as_mv.col >> 3; // find first label n = vp9_mbsplit_offset[segmentation][i]; c = &x->block[n]; e = &x->e_mbd.block[n]; bestsme = vp9_full_pixel_diamond(cpi, x, c, e, &mvp_full, step_param, sadpb, further_steps, 0, v_fn_ptr, bsi->ref_mv, &mode_mv[NEW4X4]); sseshift = segmentation_to_sseshift[segmentation]; // Should we do a full search (best quality only) if ((cpi->compressor_speed == 0) && (bestsme >> sseshift) > 4000) { /* Check if mvp_full is within the range. */ clamp_mv(&mvp_full, x->mv_col_min, x->mv_col_max, x->mv_row_min, x->mv_row_max); thissme = cpi->full_search_sad(x, c, e, &mvp_full, sadpb, 16, v_fn_ptr, x->nmvjointcost, x->mvcost, bsi->ref_mv); if (thissme < bestsme) { bestsme = thissme; mode_mv[NEW4X4].as_int = e->bmi.as_mv[0].as_int; } else { /* The full search result is actually worse so re-instate the * previous best vector */ e->bmi.as_mv[0].as_int = mode_mv[NEW4X4].as_int; } } } if (bestsme < INT_MAX) { int distortion; unsigned int sse; cpi->find_fractional_mv_step(x, c, e, &mode_mv[NEW4X4], bsi->ref_mv, x->errorperbit, v_fn_ptr, x->nmvjointcost, x->mvcost, &distortion, &sse); // safe motion search result for use in compound prediction seg_mvs[i][mbmi->ref_frame - 1].as_int = mode_mv[NEW4X4].as_int; } } else if (mbmi->second_ref_frame > 0 && this_mode == NEW4X4) { /* NEW4X4 */ /* motion search not completed? Then skip newmv for this block with * comppred */ if (seg_mvs[i][mbmi->second_ref_frame - 1].as_int == INVALID_MV || seg_mvs[i][mbmi->ref_frame - 1].as_int == INVALID_MV) { continue; } } rate = labels2mode(x, labels, i, this_mode, &mode_mv[this_mode], &second_mode_mv[this_mode], seg_mvs[i], bsi->ref_mv, bsi->second_ref_mv, x->nmvjointcost, x->mvcost); // Trap vectors that reach beyond the UMV borders if (((mode_mv[this_mode].as_mv.row >> 3) < x->mv_row_min) || ((mode_mv[this_mode].as_mv.row >> 3) > x->mv_row_max) || ((mode_mv[this_mode].as_mv.col >> 3) < x->mv_col_min) || ((mode_mv[this_mode].as_mv.col >> 3) > x->mv_col_max)) { continue; } if (mbmi->second_ref_frame > 0 && mv_check_bounds(x, &second_mode_mv[this_mode])) continue; if (segmentation == PARTITIONING_4X4) { this_rd = encode_inter_mb_segment(&cpi->common, x, labels, i, &labelyrate, &distortion, ta_s, tl_s); other_rd = this_rd; } else { this_rd = encode_inter_mb_segment_8x8(&cpi->common, x, labels, i, &labelyrate, &distortion, &other_rd, ta_s, tl_s); } this_rd += RDCOST(x->rdmult, x->rddiv, rate, 0); rate += labelyrate; if (this_rd < best_label_rd) { sbr = rate; sbd = distortion; bestlabelyrate = labelyrate; mode_selected = this_mode; best_label_rd = this_rd; if (x->e_mbd.mode_info_context->mbmi.txfm_size == TX_4X4) { for (j = 0; j < 16; j++) if (labels[j] == i) best_eobs[j] = x->e_mbd.plane[0].eobs[j]; } else { for (j = 0; j < 4; j++) { int ib = vp9_i8x8_block[j], idx = j * 4; if (labels[ib] == i) best_eobs[idx] = x->e_mbd.plane[0].eobs[idx]; } } if (other_rd < best_other_rd) best_other_rd = other_rd; vpx_memcpy(ta_b, ta_s, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(tl_b, tl_s, sizeof(ENTROPY_CONTEXT_PLANES)); } } /*for each 4x4 mode*/ vpx_memcpy(ta, ta_b, sizeof(ENTROPY_CONTEXT_PLANES)); vpx_memcpy(tl, tl_b, sizeof(ENTROPY_CONTEXT_PLANES)); labels2mode(x, labels, i, mode_selected, &mode_mv[mode_selected], &second_mode_mv[mode_selected], seg_mvs[i], bsi->ref_mv, bsi->second_ref_mv, x->nmvjointcost, x->mvcost); br += sbr; bd += sbd; segmentyrate += bestlabelyrate; this_segment_rd += best_label_rd; other_segment_rd += best_other_rd; if (rds) rds[i] = this_segment_rd; if (otherrds) otherrds[i] = other_segment_rd; } /* for each label */ if (this_segment_rd < bsi->segment_rd) { bsi->r = br; bsi->d = bd; bsi->segment_yrate = segmentyrate; bsi->segment_rd = this_segment_rd; bsi->segment_num = segmentation; bsi->txfm_size = mbmi->txfm_size; // store everything needed to come back to this!! for (i = 0; i < 16; i++) { bsi->mvs[i].as_mv = x->partition_info->bmi[i].mv.as_mv; if (mbmi->second_ref_frame > 0) bsi->second_mvs[i].as_mv = x->partition_info->bmi[i].second_mv.as_mv; bsi->modes[i] = x->partition_info->bmi[i].mode; bsi->eobs[i] = best_eobs[i]; } } if (completed) { *completed = i; } } static void rd_check_segment(VP9_COMP *cpi, MACROBLOCK *x, BEST_SEG_INFO *bsi, unsigned int segmentation, /* 16 = n_blocks */ int_mv seg_mvs[16][MAX_REF_FRAMES - 1], int64_t txfm_cache[NB_TXFM_MODES]) { int i, n, c = vp9_mbsplit_count[segmentation]; if (segmentation == PARTITIONING_4X4) { int64_t rd[16]; rd_check_segment_txsize(cpi, x, bsi, segmentation, TX_4X4, NULL, rd, &n, seg_mvs); if (n == c) { for (i = 0; i < NB_TXFM_MODES; i++) { if (rd[c - 1] < txfm_cache[i]) txfm_cache[i] = rd[c - 1]; } } } else { int64_t diff, base_rd; int cost4x4 = vp9_cost_bit(cpi->common.prob_tx[0], 0); int cost8x8 = vp9_cost_bit(cpi->common.prob_tx[0], 1); if (cpi->common.txfm_mode == TX_MODE_SELECT) { int64_t rd4x4[4], rd8x8[4]; int n4x4, n8x8, nmin; BEST_SEG_INFO bsi4x4, bsi8x8; /* factor in cost of cost4x4/8x8 in decision */ vpx_memcpy(&bsi4x4, bsi, sizeof(*bsi)); vpx_memcpy(&bsi8x8, bsi, sizeof(*bsi)); rd_check_segment_txsize(cpi, x, &bsi4x4, segmentation, TX_4X4, NULL, rd4x4, &n4x4, seg_mvs); rd_check_segment_txsize(cpi, x, &bsi8x8, segmentation, TX_8X8, NULL, rd8x8, &n8x8, seg_mvs); if (bsi4x4.segment_num == segmentation) { bsi4x4.segment_rd += RDCOST(x->rdmult, x->rddiv, cost4x4, 0); if (bsi4x4.segment_rd < bsi->segment_rd) vpx_memcpy(bsi, &bsi4x4, sizeof(*bsi)); } if (bsi8x8.segment_num == segmentation) { bsi8x8.segment_rd += RDCOST(x->rdmult, x->rddiv, cost8x8, 0); if (bsi8x8.segment_rd < bsi->segment_rd) vpx_memcpy(bsi, &bsi8x8, sizeof(*bsi)); } n = n4x4 > n8x8 ? n4x4 : n8x8; if (n == c) { nmin = n4x4 < n8x8 ? n4x4 : n8x8; diff = rd8x8[nmin - 1] - rd4x4[nmin - 1]; if (n == n4x4) { base_rd = rd4x4[c - 1]; } else { base_rd = rd8x8[c - 1] - diff; } } } else { int64_t rd[4], otherrd[4]; if (cpi->common.txfm_mode == ONLY_4X4) { rd_check_segment_txsize(cpi, x, bsi, segmentation, TX_4X4, otherrd, rd, &n, seg_mvs); if (n == c) { base_rd = rd[c - 1]; diff = otherrd[c - 1] - rd[c - 1]; } } else /* use 8x8 transform */ { rd_check_segment_txsize(cpi, x, bsi, segmentation, TX_8X8, otherrd, rd, &n, seg_mvs); if (n == c) { diff = rd[c - 1] - otherrd[c - 1]; base_rd = otherrd[c - 1]; } } } if (n == c) { if (base_rd < txfm_cache[ONLY_4X4]) { txfm_cache[ONLY_4X4] = base_rd; } if (base_rd + diff < txfm_cache[ALLOW_8X8]) { txfm_cache[ALLOW_8X8] = txfm_cache[ALLOW_16X16] = txfm_cache[ALLOW_32X32] = base_rd + diff; } if (diff < 0) { base_rd += diff + RDCOST(x->rdmult, x->rddiv, cost8x8, 0); } else { base_rd += RDCOST(x->rdmult, x->rddiv, cost4x4, 0); } if (base_rd < txfm_cache[TX_MODE_SELECT]) { txfm_cache[TX_MODE_SELECT] = base_rd; } } } } static INLINE void cal_step_param(int sr, int *sp) { int step = 0; if (sr > MAX_FIRST_STEP) sr = MAX_FIRST_STEP; else if (sr < 1) sr = 1; while (sr >>= 1) step++; *sp = MAX_MVSEARCH_STEPS - 1 - step; } static int rd_pick_best_mbsegmentation(VP9_COMP *cpi, MACROBLOCK *x, int_mv *best_ref_mv, int_mv *second_best_ref_mv, int64_t best_rd, int *mdcounts, int *returntotrate, int *returnyrate, int *returndistortion, int *skippable, int mvthresh, int_mv seg_mvs[NB_PARTITIONINGS] [16 /* n_blocks */] [MAX_REF_FRAMES - 1], int64_t txfm_cache[NB_TXFM_MODES]) { int i; BEST_SEG_INFO bsi; MB_MODE_INFO * mbmi = &x->e_mbd.mode_info_context->mbmi; vpx_memset(&bsi, 0, sizeof(bsi)); for (i = 0; i < NB_TXFM_MODES; i++) txfm_cache[i] = INT64_MAX; bsi.segment_rd = best_rd; bsi.ref_mv = best_ref_mv; bsi.second_ref_mv = second_best_ref_mv; bsi.mvp.as_int = best_ref_mv->as_int; bsi.mvthresh = mvthresh; bsi.mdcounts = mdcounts; bsi.txfm_size = TX_4X4; for (i = 0; i < 16; i++) bsi.modes[i] = ZERO4X4; if (cpi->compressor_speed == 0) { /* for now, we will keep the original segmentation order when in best quality mode */ rd_check_segment(cpi, x, &bsi, PARTITIONING_16X8, seg_mvs[PARTITIONING_16X8], txfm_cache); rd_check_segment(cpi, x, &bsi, PARTITIONING_8X16, seg_mvs[PARTITIONING_8X16], txfm_cache); rd_check_segment(cpi, x, &bsi, PARTITIONING_8X8, seg_mvs[PARTITIONING_8X8], txfm_cache); rd_check_segment(cpi, x, &bsi, PARTITIONING_4X4, seg_mvs[PARTITIONING_4X4], txfm_cache); } else { int sr; rd_check_segment(cpi, x, &bsi, PARTITIONING_8X8, seg_mvs[PARTITIONING_8X8], txfm_cache); if (bsi.segment_rd < best_rd) { int tmp_col_min = x->mv_col_min; int tmp_col_max = x->mv_col_max; int tmp_row_min = x->mv_row_min; int tmp_row_max = x->mv_row_max; vp9_clamp_mv_min_max(x, best_ref_mv); /* Get 8x8 result */ bsi.sv_mvp[0].as_int = bsi.mvs[0].as_int; bsi.sv_mvp[1].as_int = bsi.mvs[2].as_int; bsi.sv_mvp[2].as_int = bsi.mvs[8].as_int; bsi.sv_mvp[3].as_int = bsi.mvs[10].as_int; /* Use 8x8 result as 16x8/8x16's predictor MV. Adjust search range * according to the closeness of 2 MV. */ /* block 8X16 */ sr = MAXF((abs(bsi.sv_mvp[0].as_mv.row - bsi.sv_mvp[2].as_mv.row)) >> 3, (abs(bsi.sv_mvp[0].as_mv.col - bsi.sv_mvp[2].as_mv.col)) >> 3); cal_step_param(sr, &bsi.sv_istep[0]); sr = MAXF((abs(bsi.sv_mvp[1].as_mv.row - bsi.sv_mvp[3].as_mv.row)) >> 3, (abs(bsi.sv_mvp[1].as_mv.col - bsi.sv_mvp[3].as_mv.col)) >> 3); cal_step_param(sr, &bsi.sv_istep[1]); rd_check_segment(cpi, x, &bsi, PARTITIONING_8X16, seg_mvs[PARTITIONING_8X16], txfm_cache); /* block 16X8 */ sr = MAXF((abs(bsi.sv_mvp[0].as_mv.row - bsi.sv_mvp[1].as_mv.row)) >> 3, (abs(bsi.sv_mvp[0].as_mv.col - bsi.sv_mvp[1].as_mv.col)) >> 3); cal_step_param(sr, &bsi.sv_istep[0]); sr = MAXF((abs(bsi.sv_mvp[2].as_mv.row - bsi.sv_mvp[3].as_mv.row)) >> 3, (abs(bsi.sv_mvp[2].as_mv.col - bsi.sv_mvp[3].as_mv.col)) >> 3); cal_step_param(sr, &bsi.sv_istep[1]); rd_check_segment(cpi, x, &bsi, PARTITIONING_16X8, seg_mvs[PARTITIONING_16X8], txfm_cache); /* If 8x8 is better than 16x8/8x16, then do 4x4 search */ /* Not skip 4x4 if speed=0 (good quality) */ if (cpi->sf.no_skip_block4x4_search || bsi.segment_num == PARTITIONING_8X8) { /* || (sv_segment_rd8x8-bsi.segment_rd) < sv_segment_rd8x8>>5) */ bsi.mvp.as_int = bsi.sv_mvp[0].as_int; rd_check_segment(cpi, x, &bsi, PARTITIONING_4X4, seg_mvs[PARTITIONING_4X4], txfm_cache); } /* restore UMV window */ x->mv_col_min = tmp_col_min; x->mv_col_max = tmp_col_max; x->mv_row_min = tmp_row_min; x->mv_row_max = tmp_row_max; } } /* set it to the best */ for (i = 0; i < 16; i++) { BLOCKD *bd = &x->e_mbd.block[i]; bd->bmi.as_mv[0].as_int = bsi.mvs[i].as_int; if (mbmi->second_ref_frame > 0) bd->bmi.as_mv[1].as_int = bsi.second_mvs[i].as_int; x->e_mbd.plane[0].eobs[i] = bsi.eobs[i]; } /* save partitions */ mbmi->txfm_size = bsi.txfm_size; mbmi->partitioning = bsi.segment_num; x->partition_info->count = vp9_mbsplit_count[bsi.segment_num]; for (i = 0; i < x->partition_info->count; i++) { int j; j = vp9_mbsplit_offset[bsi.segment_num][i]; x->partition_info->bmi[i].mode = bsi.modes[j]; x->partition_info->bmi[i].mv.as_mv = bsi.mvs[j].as_mv; if (mbmi->second_ref_frame > 0) x->partition_info->bmi[i].second_mv.as_mv = bsi.second_mvs[j].as_mv; } /* * used to set mbmi->mv.as_int */ x->partition_info->bmi[15].mv.as_int = bsi.mvs[15].as_int; if (mbmi->second_ref_frame > 0) x->partition_info->bmi[15].second_mv.as_int = bsi.second_mvs[15].as_int; *returntotrate = bsi.r; *returndistortion = bsi.d; *returnyrate = bsi.segment_yrate; *skippable = vp9_sby_is_skippable(&x->e_mbd, BLOCK_SIZE_MB16X16); return (int)(bsi.segment_rd); } static void mv_pred(VP9_COMP *cpi, MACROBLOCK *x, uint8_t *ref_y_buffer, int ref_y_stride, int ref_frame, enum BlockSize block_size ) { MACROBLOCKD *xd = &x->e_mbd; MB_MODE_INFO *mbmi = &xd->mode_info_context->mbmi; int_mv this_mv; int i; int zero_seen = FALSE; int best_index = 0; int best_sad = INT_MAX; int this_sad = INT_MAX; BLOCK *b = &x->block[0]; uint8_t *src_y_ptr = *(b->base_src); uint8_t *ref_y_ptr; int row_offset, col_offset; // Get the sad for each candidate reference mv for (i = 0; i < 4; i++) { this_mv.as_int = mbmi->ref_mvs[ref_frame][i].as_int; // The list is at an end if we see 0 for a second time. if (!this_mv.as_int && zero_seen) break; zero_seen = zero_seen || !this_mv.as_int; row_offset = this_mv.as_mv.row >> 3; col_offset = this_mv.as_mv.col >> 3; ref_y_ptr = ref_y_buffer + (ref_y_stride * row_offset) + col_offset; // Find sad for current vector. this_sad = cpi->fn_ptr[block_size].sdf(src_y_ptr, b->src_stride, ref_y_ptr, ref_y_stride, 0x7fffffff); // Note if it is the best so far. if (this_sad < best_sad) { best_sad = this_sad; best_index = i; } } // Note the index of the mv that worked best in the reference list. x->mv_best_ref_index[ref_frame] = best_index; } static void set_i8x8_block_modes(MACROBLOCK *x, int modes[4]) { int i; MACROBLOCKD *xd = &x->e_mbd; for (i = 0; i < 4; i++) { int ib = vp9_i8x8_block[i]; xd->mode_info_context->bmi[ib + 0].as_mode.first = modes[i]; xd->mode_info_context->bmi[ib + 1].as_mode.first = modes[i]; xd->mode_info_context->bmi[ib + 4].as_mode.first = modes[i]; xd->mode_info_context->bmi[ib + 5].as_mode.first = modes[i]; // printf("%d,%d,%d,%d\n", // modes[0], modes[1], modes[2], modes[3]); } for (i = 0; i < 16; i++) { xd->block[i].bmi = xd->mode_info_context->bmi[i]; } } extern void vp9_calc_ref_probs(int *count, vp9_prob *probs); static void estimate_curframe_refprobs(VP9_COMP *cpi, vp9_prob mod_refprobs[3], int pred_ref) { int norm_cnt[MAX_REF_FRAMES]; const int *const rfct = cpi->count_mb_ref_frame_usage; int intra_count = rfct[INTRA_FRAME]; int last_count = rfct[LAST_FRAME]; int gf_count = rfct[GOLDEN_FRAME]; int arf_count = rfct[ALTREF_FRAME]; // Work out modified reference frame probabilities to use where prediction // of the reference frame fails if (pred_ref == INTRA_FRAME) { norm_cnt[0] = 0; norm_cnt[1] = last_count; norm_cnt[2] = gf_count; norm_cnt[3] = arf_count; vp9_calc_ref_probs(norm_cnt, mod_refprobs); mod_refprobs[0] = 0; // This branch implicit } else if (pred_ref == LAST_FRAME) { norm_cnt[0] = intra_count; norm_cnt[1] = 0; norm_cnt[2] = gf_count; norm_cnt[3] = arf_count; vp9_calc_ref_probs(norm_cnt, mod_refprobs); mod_refprobs[1] = 0; // This branch implicit } else if (pred_ref == GOLDEN_FRAME) { norm_cnt[0] = intra_count; norm_cnt[1] = last_count; norm_cnt[2] = 0; norm_cnt[3] = arf_count; vp9_calc_ref_probs(norm_cnt, mod_refprobs); mod_refprobs[2] = 0; // This branch implicit } else { norm_cnt[0] = intra_count; norm_cnt[1] = last_count; norm_cnt[2] = gf_count; norm_cnt[3] = 0; vp9_calc_ref_probs(norm_cnt, mod_refprobs); mod_refprobs[2] = 0; // This branch implicit } } static INLINE unsigned weighted_cost(vp9_prob *tab0, vp9_prob *tab1, int idx, int val, int weight) { unsigned cost0 = tab0[idx] ? vp9_cost_bit(tab0[idx], val) : 0; unsigned cost1 = tab1[idx] ? vp9_cost_bit(tab1[idx], val) : 0; // weight is 16-bit fixed point, so this basically calculates: // 0.5 + weight * cost1 + (1.0 - weight) * cost0 return (0x8000 + weight * cost1 + (0x10000 - weight) * cost0) >> 16; } static void estimate_ref_frame_costs(VP9_COMP *cpi, int segment_id, unsigned int *ref_costs) { VP9_COMMON *cm = &cpi->common; MACROBLOCKD *xd = &cpi->mb.e_mbd; vp9_prob *mod_refprobs; unsigned int cost; int pred_ref; int pred_flag; int pred_ctx; int i; vp9_prob pred_prob, new_pred_prob; int seg_ref_active; int seg_ref_count = 0; seg_ref_active = vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME); if (seg_ref_active) { seg_ref_count = 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); } // Get the predicted reference for this mb pred_ref = vp9_get_pred_ref(cm, xd); // Get the context probability for the prediction flag (based on last frame) pred_prob = vp9_get_pred_prob(cm, xd, PRED_REF); // Predict probability for current frame based on stats so far pred_ctx = vp9_get_pred_context(cm, xd, PRED_REF); new_pred_prob = get_binary_prob(cpi->ref_pred_count[pred_ctx][0], cpi->ref_pred_count[pred_ctx][1]); // Get the set of probabilities to use if prediction fails mod_refprobs = cm->mod_refprobs[pred_ref]; // For each possible selected reference frame work out a cost. for (i = 0; i < MAX_REF_FRAMES; i++) { if (seg_ref_active && seg_ref_count == 1) { cost = 0; } else { pred_flag = (i == pred_ref); // Get the prediction for the current mb cost = weighted_cost(&pred_prob, &new_pred_prob, 0, pred_flag, cpi->seg0_progress); if (cost > 1024) cost = 768; // i.e. account for 4 bits max. // for incorrectly predicted cases if (! pred_flag) { vp9_prob curframe_mod_refprobs[3]; if (cpi->seg0_progress) { estimate_curframe_refprobs(cpi, curframe_mod_refprobs, pred_ref); } else { vpx_memset(curframe_mod_refprobs, 0, sizeof(curframe_mod_refprobs)); } cost += weighted_cost(mod_refprobs, curframe_mod_refprobs, 0, (i != INTRA_FRAME), cpi->seg0_progress); if (i != INTRA_FRAME) { cost += weighted_cost(mod_refprobs, curframe_mod_refprobs, 1, (i != LAST_FRAME), cpi->seg0_progress); if (i != LAST_FRAME) { cost += weighted_cost(mod_refprobs, curframe_mod_refprobs, 2, (i != GOLDEN_FRAME), cpi->seg0_progress); } } } } ref_costs[i] = cost; } } static void store_coding_context(MACROBLOCK *x, PICK_MODE_CONTEXT *ctx, int mode_index, PARTITION_INFO *partition, int_mv *ref_mv, int_mv *second_ref_mv, int64_t comp_pred_diff[NB_PREDICTION_TYPES], int64_t txfm_size_diff[NB_TXFM_MODES]) { MACROBLOCKD *const xd = &x->e_mbd; // Take a snapshot of the coding context so it can be // restored if we decide to encode this way ctx->skip = x->skip; ctx->best_mode_index = mode_index; vpx_memcpy(&ctx->mic, xd->mode_info_context, sizeof(MODE_INFO)); if (partition) vpx_memcpy(&ctx->partition_info, partition, sizeof(PARTITION_INFO)); ctx->best_ref_mv.as_int = ref_mv->as_int; ctx->second_best_ref_mv.as_int = second_ref_mv->as_int; ctx->single_pred_diff = (int)comp_pred_diff[SINGLE_PREDICTION_ONLY]; ctx->comp_pred_diff = (int)comp_pred_diff[COMP_PREDICTION_ONLY]; ctx->hybrid_pred_diff = (int)comp_pred_diff[HYBRID_PREDICTION]; memcpy(ctx->txfm_rd_diff, txfm_size_diff, sizeof(ctx->txfm_rd_diff)); } static void setup_buffer_inter(VP9_COMP *cpi, MACROBLOCK *x, int idx, MV_REFERENCE_FRAME frame_type, enum BlockSize block_size, int mb_row, int mb_col, int_mv frame_nearest_mv[MAX_REF_FRAMES], int_mv frame_near_mv[MAX_REF_FRAMES], int frame_mdcounts[4][4], YV12_BUFFER_CONFIG yv12_mb[4], struct scale_factors scale[MAX_REF_FRAMES]) { VP9_COMMON *cm = &cpi->common; YV12_BUFFER_CONFIG *yv12 = &cm->yv12_fb[cpi->common.ref_frame_map[idx]]; MACROBLOCKD *const xd = &x->e_mbd; MB_MODE_INFO *const mbmi = &xd->mode_info_context->mbmi; int use_prev_in_find_mv_refs, use_prev_in_find_best_ref; // set up scaling factors scale[frame_type] = cpi->common.active_ref_scale[frame_type - 1]; scale[frame_type].x_offset_q4 = (mb_col * 16 * scale[frame_type].x_num / scale[frame_type].x_den) & 0xf; scale[frame_type].y_offset_q4 = (mb_row * 16 * scale[frame_type].y_num / scale[frame_type].y_den) & 0xf; // TODO(jkoleszar): Is the UV buffer ever used here? If so, need to make this // use the UV scaling factors. setup_pred_block(&yv12_mb[frame_type], yv12, mb_row, mb_col, &scale[frame_type], &scale[frame_type]); // Gets an initial list of candidate vectors from neighbours and orders them use_prev_in_find_mv_refs = cm->width == cm->last_width && cm->height == cm->last_height && !cpi->common.error_resilient_mode; vp9_find_mv_refs(&cpi->common, xd, xd->mode_info_context, use_prev_in_find_mv_refs ? xd->prev_mode_info_context : NULL, frame_type, mbmi->ref_mvs[frame_type], cpi->common.ref_frame_sign_bias); // Candidate refinement carried out at encoder and decoder use_prev_in_find_best_ref = scale[frame_type].x_num == scale[frame_type].x_den && scale[frame_type].y_num == scale[frame_type].y_den && !cm->error_resilient_mode && !cm->frame_parallel_decoding_mode; vp9_find_best_ref_mvs(xd, use_prev_in_find_best_ref ? yv12_mb[frame_type].y_buffer : NULL, yv12->y_stride, mbmi->ref_mvs[frame_type], &frame_nearest_mv[frame_type], &frame_near_mv[frame_type]); // Further refinement that is encode side only to test the top few candidates // in full and choose the best as the centre point for subsequent searches. // The current implementation doesn't support scaling. if (scale[frame_type].x_num == scale[frame_type].x_den && scale[frame_type].y_num == scale[frame_type].y_den) mv_pred(cpi, x, yv12_mb[frame_type].y_buffer, yv12->y_stride, frame_type, block_size); } static void model_rd_from_var_lapndz(int var, int n, int qstep, int *rate, int *dist) { // This function models the rate and distortion for a Laplacian // source with given variance when quantized with a uniform quantizer // with given stepsize. The closed form expressions are in: // Hang and Chen, "Source Model for transform video coder and its // application - Part I: Fundamental Theory", IEEE Trans. Circ. // Sys. for Video Tech., April 1997. // The function is implemented as piecewise approximation to the // exact computation. // TODO(debargha): Implement the functions by interpolating from a // look-up table vp9_clear_system_state(); { double D, R; double s2 = (double) var / n; double s = sqrt(s2); double x = qstep / s; if (x > 1.0) { double y = exp(-x / 2); double y2 = y * y; D = 2.069981728764738 * y2 - 2.764286806516079 * y + 1.003956960819275; R = 0.924056758535089 * y2 + 2.738636469814024 * y - 0.005169662030017; } else { double x2 = x * x; D = 0.075303187668830 * x2 + 0.004296954321112 * x - 0.000413209252807; if (x > 0.125) R = 1 / (-0.03459733614226 * x2 + 0.36561675733603 * x + 0.1626989668625); else R = -1.442252874826093 * log(x) + 1.944647760719664; } if (R < 0) { *rate = 0; *dist = var; } else { *rate = (n * R * 256 + 0.5); *dist = (n * D * s2 + 0.5); } } vp9_clear_system_state(); } static enum BlockSize y_to_uv_block_size(enum BlockSize bs) { switch (bs) { case BLOCK_64X64: return BLOCK_32X32; #if CONFIG_SBSEGMENT case BLOCK_64X32: return BLOCK_32X16; case BLOCK_32X64: return BLOCK_16X32; #endif case BLOCK_32X32: return BLOCK_16X16; #if CONFIG_SBSEGMENT case BLOCK_32X16: return BLOCK_16X8; case BLOCK_16X32: return BLOCK_8X16; #endif case BLOCK_16X16: return BLOCK_8X8; default: assert(0); return -1; } } static enum BlockSize y_bsizet_to_block_size(BLOCK_SIZE_TYPE bs) { switch (bs) { case BLOCK_SIZE_SB64X64: return BLOCK_64X64; #if CONFIG_SBSEGMENT case BLOCK_SIZE_SB64X32: return BLOCK_64X32; case BLOCK_SIZE_SB32X64: return BLOCK_32X64; #endif case BLOCK_SIZE_SB32X32: return BLOCK_32X32; #if CONFIG_SBSEGMENT case BLOCK_SIZE_SB32X16: return BLOCK_32X16; case BLOCK_SIZE_SB16X32: return BLOCK_16X32; #endif case BLOCK_SIZE_MB16X16: return BLOCK_16X16; default: assert(0); return -1; } } static int64_t handle_inter_mode(VP9_COMP *cpi, MACROBLOCK *x, BLOCK_SIZE_TYPE bsize, int *saddone, int near_sadidx[], int mdcounts[4], int64_t txfm_cache[], int *rate2, int *distortion, int *skippable, int *compmode_cost, #if CONFIG_COMP_INTERINTRA_PRED int *compmode_interintra_cost, #endif int *rate_y, int *distortion_y, int *rate_uv, int *distortion_uv, int *mode_excluded, int *disable_skip, int mode_index, INTERPOLATIONFILTERTYPE *best_filter, int_mv frame_mv[MB_MODE_COUNT] [MAX_REF_FRAMES], YV12_BUFFER_CONFIG *scaled_ref_frame, int mb_row, int mb_col) { const int bw = 1 << mb_width_log2(bsize), bh = 1 << mb_height_log2(bsize); const enum BlockSize block_size = y_bsizet_to_block_size(bsize); const enum BlockSize uv_block_size = y_to_uv_block_size(block_size); VP9_COMMON *cm = &cpi->common; MACROBLOCKD *xd = &x->e_mbd; MB_MODE_INFO *mbmi = &xd->mode_info_context->mbmi; BLOCK *b = &x->block[0]; BLOCKD *d = &xd->block[0]; const int is_comp_pred = (mbmi->second_ref_frame > 0); #if CONFIG_COMP_INTERINTRA_PRED const int is_comp_interintra_pred = (mbmi->second_ref_frame == INTRA_FRAME); #endif const int num_refs = is_comp_pred ? 2 : 1; const int this_mode = mbmi->mode; int i; int refs[2] = { mbmi->ref_frame, (mbmi->second_ref_frame < 0 ? 0 : mbmi->second_ref_frame) }; int_mv cur_mv[2]; int_mv ref_mv[2]; int64_t this_rd = 0; unsigned char tmp_ybuf[64 * 64]; unsigned char tmp_ubuf[32 * 32]; unsigned char tmp_vbuf[32 * 32]; int pred_exists = 0; int interpolating_intpel_seen = 0; int intpel_mv; int64_t rd, best_rd = INT64_MAX; switch (this_mode) { case NEWMV: ref_mv[0] = mbmi->ref_mvs[refs[0]][0]; ref_mv[1] = mbmi->ref_mvs[refs[1]][0]; if (is_comp_pred) { if (frame_mv[NEWMV][refs[0]].as_int == INVALID_MV || frame_mv[NEWMV][refs[1]].as_int == INVALID_MV) return INT64_MAX; *rate2 += vp9_mv_bit_cost(&frame_mv[NEWMV][refs[0]], &ref_mv[0], x->nmvjointcost, x->mvcost, 96, x->e_mbd.allow_high_precision_mv); *rate2 += vp9_mv_bit_cost(&frame_mv[NEWMV][refs[1]], &ref_mv[1], x->nmvjointcost, x->mvcost, 96, x->e_mbd.allow_high_precision_mv); } else { YV12_BUFFER_CONFIG backup_yv12 = xd->pre; int bestsme = INT_MAX; int further_steps, step_param = cpi->sf.first_step; int sadpb = x->sadperbit16; int_mv mvp_full, tmp_mv; int sr = 0; int tmp_col_min = x->mv_col_min; int tmp_col_max = x->mv_col_max; int tmp_row_min = x->mv_row_min; int tmp_row_max = x->mv_row_max; if (scaled_ref_frame) { // Swap out the reference frame for a version that's been scaled to // match the resolution of the current frame, allowing the existing // motion search code to be used without additional modifications. xd->pre = *scaled_ref_frame; xd->pre.y_buffer += mb_row * 16 * xd->pre.y_stride + mb_col * 16; xd->pre.u_buffer += mb_row * 8 * xd->pre.uv_stride + mb_col * 8; xd->pre.v_buffer += mb_row * 8 * xd->pre.uv_stride + mb_col * 8; } vp9_clamp_mv_min_max(x, &ref_mv[0]); sr = vp9_init_search_range(cpi->common.width, cpi->common.height); // mvp_full.as_int = ref_mv[0].as_int; mvp_full.as_int = mbmi->ref_mvs[refs[0]][x->mv_best_ref_index[refs[0]]].as_int; mvp_full.as_mv.col >>= 3; mvp_full.as_mv.row >>= 3; // adjust search range according to sr from mv prediction step_param = MAX(step_param, sr); // Further step/diamond searches as necessary further_steps = (cpi->sf.max_step_search_steps - 1) - step_param; bestsme = vp9_full_pixel_diamond(cpi, x, b, d, &mvp_full, step_param, sadpb, further_steps, 1, &cpi->fn_ptr[block_size], &ref_mv[0], &tmp_mv); x->mv_col_min = tmp_col_min; x->mv_col_max = tmp_col_max; x->mv_row_min = tmp_row_min; x->mv_row_max = tmp_row_max; if (bestsme < INT_MAX) { int dis; /* TODO: use dis in distortion calculation later. */ unsigned int sse; cpi->find_fractional_mv_step(x, b, d, &tmp_mv, &ref_mv[0], x->errorperbit, &cpi->fn_ptr[block_size], x->nmvjointcost, x->mvcost, &dis, &sse); } d->bmi.as_mv[0].as_int = tmp_mv.as_int; frame_mv[NEWMV][refs[0]].as_int = d->bmi.as_mv[0].as_int; // Add the new motion vector cost to our rolling cost variable *rate2 += vp9_mv_bit_cost(&tmp_mv, &ref_mv[0], x->nmvjointcost, x->mvcost, 96, xd->allow_high_precision_mv); // restore the predictor, if required if (scaled_ref_frame) { xd->pre = backup_yv12; } } break; case NEARMV: case NEARESTMV: case ZEROMV: default: break; } for (i = 0; i < num_refs; ++i) { cur_mv[i] = frame_mv[this_mode][refs[i]]; // Clip "next_nearest" so that it does not extend to far out of image if (this_mode == NEWMV) assert(!clamp_mv2(&cur_mv[i], xd)); else clamp_mv2(&cur_mv[i], xd); if (mv_check_bounds(x, &cur_mv[i])) return INT64_MAX; mbmi->mv[i].as_int = cur_mv[i].as_int; } /* We don't include the cost of the second reference here, because there * are only three options: Last/Golden, ARF/Last or Golden/ARF, or in other * words if you present them in that order, the second one is always known * if the first is known */ *compmode_cost = vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_COMP), is_comp_pred); *rate2 += vp9_cost_mv_ref(cpi, this_mode, mbmi->mb_mode_context[mbmi->ref_frame]); #if CONFIG_COMP_INTERINTRA_PRED if (!is_comp_pred) { *compmode_interintra_cost = vp9_cost_bit(cm->fc.interintra_prob, is_comp_interintra_pred); if (is_comp_interintra_pred) { *compmode_interintra_cost += x->mbmode_cost[xd->frame_type][mbmi->interintra_mode]; #if SEPARATE_INTERINTRA_UV *compmode_interintra_cost += x->intra_uv_mode_cost[xd->frame_type][mbmi->interintra_uv_mode]; #endif } } #endif pred_exists = 0; interpolating_intpel_seen = 0; // Are all MVs integer pel for Y and UV intpel_mv = (mbmi->mv[0].as_mv.row & 15) == 0 && (mbmi->mv[0].as_mv.col & 15) == 0; if (is_comp_pred) intpel_mv &= (mbmi->mv[1].as_mv.row & 15) == 0 && (mbmi->mv[1].as_mv.col & 15) == 0; // Search for best switchable filter by checking the variance of // pred error irrespective of whether the filter will be used if (bsize != BLOCK_SIZE_MB16X16) { int switchable_filter_index, newbest; int tmp_rate_y_i = 0, tmp_rate_u_i = 0, tmp_rate_v_i = 0; int tmp_dist_y_i = 0, tmp_dist_u_i = 0, tmp_dist_v_i = 0; for (switchable_filter_index = 0; switchable_filter_index < VP9_SWITCHABLE_FILTERS; ++switchable_filter_index) { int rs = 0; mbmi->interp_filter = vp9_switchable_interp[switchable_filter_index]; vp9_setup_interp_filters(xd, mbmi->interp_filter, &cpi->common); if (cpi->common.mcomp_filter_type == SWITCHABLE) { const int c = vp9_get_pred_context(cm, xd, PRED_SWITCHABLE_INTERP); const int m = vp9_switchable_interp_map[mbmi->interp_filter]; rs = SWITCHABLE_INTERP_RATE_FACTOR * x->switchable_interp_costs[c][m]; } if (interpolating_intpel_seen && intpel_mv && vp9_is_interpolating_filter[mbmi->interp_filter]) { rd = RDCOST(x->rdmult, x->rddiv, rs + tmp_rate_y_i + tmp_rate_u_i + tmp_rate_v_i, tmp_dist_y_i + tmp_dist_u_i + tmp_dist_v_i); } else { unsigned int sse, var; int tmp_rate_y, tmp_rate_u, tmp_rate_v; int tmp_dist_y, tmp_dist_u, tmp_dist_v; vp9_build_inter_predictors_sb(xd, mb_row, mb_col, bsize); var = cpi->fn_ptr[block_size].vf(*(b->base_src), b->src_stride, xd->dst.y_buffer, xd->dst.y_stride, &sse); // Note our transform coeffs are 8 times an orthogonal transform. // Hence quantizer step is also 8 times. To get effective quantizer // we need to divide by 8 before sending to modeling function. model_rd_from_var_lapndz(var, 16 * bw * 16 * bh, xd->block[0].dequant[1] >> 3, &tmp_rate_y, &tmp_dist_y); var = cpi->fn_ptr[uv_block_size].vf(x->src.u_buffer, x->src.uv_stride, xd->dst.u_buffer, xd->dst.uv_stride, &sse); model_rd_from_var_lapndz(var, 8 * bw * 8 * bh, xd->block[16].dequant[1] >> 3, &tmp_rate_u, &tmp_dist_u); var = cpi->fn_ptr[uv_block_size].vf(x->src.v_buffer, x->src.uv_stride, xd->dst.v_buffer, xd->dst.uv_stride, &sse); model_rd_from_var_lapndz(var, 8 * bw * 8 * bh, xd->block[20].dequant[1] >> 3, &tmp_rate_v, &tmp_dist_v); rd = RDCOST(x->rdmult, x->rddiv, rs + tmp_rate_y + tmp_rate_u + tmp_rate_v, tmp_dist_y + tmp_dist_u + tmp_dist_v); if (!interpolating_intpel_seen && intpel_mv && vp9_is_interpolating_filter[mbmi->interp_filter]) { tmp_rate_y_i = tmp_rate_y; tmp_rate_u_i = tmp_rate_u; tmp_rate_v_i = tmp_rate_v; tmp_dist_y_i = tmp_dist_y; tmp_dist_u_i = tmp_dist_u; tmp_dist_v_i = tmp_dist_v; } } newbest = (switchable_filter_index == 0 || rd < best_rd); if (newbest) { best_rd = rd; *best_filter = mbmi->interp_filter; } if ((cm->mcomp_filter_type == SWITCHABLE && newbest) || (cm->mcomp_filter_type != SWITCHABLE && cm->mcomp_filter_type == mbmi->interp_filter)) { int i; for (i = 0; i < 16 * bh; ++i) vpx_memcpy(tmp_ybuf + i * 16 * bw, xd->dst.y_buffer + i * xd->dst.y_stride, sizeof(unsigned char) * 16 * bw); for (i = 0; i < 8 * bh; ++i) vpx_memcpy(tmp_ubuf + i * 8 * bw, xd->dst.u_buffer + i * xd->dst.uv_stride, sizeof(unsigned char) * 8 * bw); for (i = 0; i < 8 * bh; ++i) vpx_memcpy(tmp_vbuf + i * 8 * bw, xd->dst.v_buffer + i * xd->dst.uv_stride, sizeof(unsigned char) * 8 * bw); pred_exists = 1; } interpolating_intpel_seen |= intpel_mv && vp9_is_interpolating_filter[mbmi->interp_filter]; } } else { int switchable_filter_index, newbest; int tmp_rate_y_i = 0, tmp_rate_u_i = 0, tmp_rate_v_i = 0; int tmp_dist_y_i = 0, tmp_dist_u_i = 0, tmp_dist_v_i = 0; for (switchable_filter_index = 0; switchable_filter_index < VP9_SWITCHABLE_FILTERS; ++switchable_filter_index) { int rs = 0; mbmi->interp_filter = vp9_switchable_interp[switchable_filter_index]; vp9_setup_interp_filters(xd, mbmi->interp_filter, &cpi->common); if (cpi->common.mcomp_filter_type == SWITCHABLE) { const int c = vp9_get_pred_context(cm, xd, PRED_SWITCHABLE_INTERP); const int m = vp9_switchable_interp_map[mbmi->interp_filter]; rs = SWITCHABLE_INTERP_RATE_FACTOR * x->switchable_interp_costs[c][m]; } if (interpolating_intpel_seen && intpel_mv && vp9_is_interpolating_filter[mbmi->interp_filter]) { rd = RDCOST(x->rdmult, x->rddiv, rs + tmp_rate_y_i + tmp_rate_u_i + tmp_rate_v_i, tmp_dist_y_i + tmp_dist_u_i + tmp_dist_v_i); } else { unsigned int sse, var; int tmp_rate_y, tmp_rate_u, tmp_rate_v; int tmp_dist_y, tmp_dist_u, tmp_dist_v; vp9_build_inter16x16_predictors_mb(xd, xd->predictor, xd->predictor + 256, xd->predictor + 320, 16, 8, mb_row, mb_col); var = vp9_variance16x16(*(b->base_src), b->src_stride, xd->predictor, 16, &sse); // Note our transform coeffs are 8 times an orthogonal transform. // Hence quantizer step is also 8 times. To get effective quantizer // we need to divide by 8 before sending to modeling function. model_rd_from_var_lapndz(var, 16 * 16, xd->block[0].dequant[1] >> 3, &tmp_rate_y, &tmp_dist_y); var = vp9_variance8x8(x->src.u_buffer, x->src.uv_stride, &xd->predictor[256], 8, &sse); model_rd_from_var_lapndz(var, 8 * 8, xd->block[16].dequant[1] >> 3, &tmp_rate_u, &tmp_dist_u); var = vp9_variance8x8(x->src.v_buffer, x->src.uv_stride, &xd->predictor[320], 8, &sse); model_rd_from_var_lapndz(var, 8 * 8, xd->block[20].dequant[1] >> 3, &tmp_rate_v, &tmp_dist_v); rd = RDCOST(x->rdmult, x->rddiv, rs + tmp_rate_y + tmp_rate_u + tmp_rate_v, tmp_dist_y + tmp_dist_u + tmp_dist_v); if (!interpolating_intpel_seen && intpel_mv && vp9_is_interpolating_filter[mbmi->interp_filter]) { tmp_rate_y_i = tmp_rate_y; tmp_rate_u_i = tmp_rate_u; tmp_rate_v_i = tmp_rate_v; tmp_dist_y_i = tmp_dist_y; tmp_dist_u_i = tmp_dist_u; tmp_dist_v_i = tmp_dist_v; } } newbest = (switchable_filter_index == 0 || rd < best_rd); if (newbest) { best_rd = rd; *best_filter = mbmi->interp_filter; } if ((cm->mcomp_filter_type == SWITCHABLE && newbest) || (cm->mcomp_filter_type != SWITCHABLE && cm->mcomp_filter_type == mbmi->interp_filter)) { vpx_memcpy(tmp_ybuf, xd->predictor, sizeof(unsigned char) * 256); vpx_memcpy(tmp_ubuf, xd->predictor + 256, sizeof(unsigned char) * 64); vpx_memcpy(tmp_vbuf, xd->predictor + 320, sizeof(unsigned char) * 64); pred_exists = 1; } interpolating_intpel_seen |= intpel_mv && vp9_is_interpolating_filter[mbmi->interp_filter]; } } // Set the appripriate filter if (cm->mcomp_filter_type != SWITCHABLE) mbmi->interp_filter = cm->mcomp_filter_type; else mbmi->interp_filter = *best_filter; vp9_setup_interp_filters(xd, mbmi->interp_filter, &cpi->common); if (pred_exists) { // FIXME(rbultje): mb code still predicts into xd->predictor if (bsize != BLOCK_SIZE_MB16X16) { for (i = 0; i < bh * 16; ++i) vpx_memcpy(xd->dst.y_buffer + i * xd->dst.y_stride, tmp_ybuf + i * bw * 16, sizeof(unsigned char) * bw * 16); for (i = 0; i < bh * 8; ++i) vpx_memcpy(xd->dst.u_buffer + i * xd->dst.uv_stride, tmp_ubuf + i * bw * 8, sizeof(unsigned char) * bw * 8); for (i = 0; i < bh * 8; ++i) vpx_memcpy(xd->dst.v_buffer + i * xd->dst.uv_stride, tmp_vbuf + i * bw * 8, sizeof(unsigned char) * bw * 8); } else { vpx_memcpy(xd->predictor, tmp_ybuf, sizeof(unsigned char) * 256); vpx_memcpy(xd->predictor + 256, tmp_ubuf, sizeof(unsigned char) * 64); vpx_memcpy(xd->predictor + 320, tmp_vbuf, sizeof(unsigned char) * 64); } } else { // Handles the special case when a filter that is not in the // switchable list (ex. bilinear, 6-tap) is indicated at the frame level if (bsize > BLOCK_SIZE_MB16X16) { vp9_build_inter_predictors_sb(xd, mb_row, mb_col, bsize); } else { vp9_build_inter16x16_predictors_mb(xd, xd->predictor, xd->predictor + 256, xd->predictor + 320, 16, 8, mb_row, mb_col); } } if (cpi->common.mcomp_filter_type == SWITCHABLE) { const int c = vp9_get_pred_context(cm, xd, PRED_SWITCHABLE_INTERP); const int m = vp9_switchable_interp_map[mbmi->interp_filter]; *rate2 += SWITCHABLE_INTERP_RATE_FACTOR * x->switchable_interp_costs[c][m]; } if (cpi->active_map_enabled && x->active_ptr[0] == 0) x->skip = 1; else if (x->encode_breakout) { unsigned int var, sse; int threshold = (xd->block[0].dequant[1] * xd->block[0].dequant[1] >> 4); if (threshold < x->encode_breakout) threshold = x->encode_breakout; if (bsize != BLOCK_SIZE_MB16X16) { var = cpi->fn_ptr[block_size].vf(*(b->base_src), b->src_stride, xd->dst.y_buffer, xd->dst.y_stride, &sse); } else { var = vp9_variance16x16(*(b->base_src), b->src_stride, xd->predictor, 16, &sse); } if ((int)sse < threshold) { unsigned int q2dc = xd->block[0].dequant[0]; /* If there is no codeable 2nd order dc or a very small uniform pixel change change */ if ((sse - var < q2dc * q2dc >> 4) || (sse / 2 > var && sse - var < 64)) { // Check u and v to make sure skip is ok int sse2; if (bsize != BLOCK_SIZE_MB16X16) { unsigned int sse2u, sse2v; // FIXME(rbultje): mb predictors predict into xd->predictor var = cpi->fn_ptr[uv_block_size].vf(x->src.u_buffer, x->src.uv_stride, xd->dst.u_buffer, xd->dst.uv_stride, &sse2u); var = cpi->fn_ptr[uv_block_size].vf(x->src.v_buffer, x->src.uv_stride, xd->dst.v_buffer, xd->dst.uv_stride, &sse2v); sse2 = sse2u + sse2v; } else { unsigned int sse2u, sse2v; var = vp9_variance8x8(x->src.u_buffer, x->src.uv_stride, xd->predictor + 256, 8, &sse2u); var = vp9_variance8x8(x->src.v_buffer, x->src.uv_stride, xd->predictor + 320, 8, &sse2v); sse2 = sse2u + sse2v; } if (sse2 * 2 < threshold) { x->skip = 1; *distortion = sse + sse2; *rate2 = 500; /* for best_yrd calculation */ *rate_uv = 0; *distortion_uv = sse2; *disable_skip = 1; this_rd = RDCOST(x->rdmult, x->rddiv, *rate2, *distortion); } } } } if (!x->skip) { int skippable_y, skippable_uv; // Y cost and distortion super_block_yrd(cpi, x, rate_y, distortion_y, &skippable_y, bsize, txfm_cache); *rate2 += *rate_y; *distortion += *distortion_y; super_block_uvrd(cm, x, rate_uv, distortion_uv, &skippable_uv, bsize); *rate2 += *rate_uv; *distortion += *distortion_uv; *skippable = skippable_y && skippable_uv; } if (!(*mode_excluded)) { if (is_comp_pred) { *mode_excluded = (cpi->common.comp_pred_mode == SINGLE_PREDICTION_ONLY); } else { *mode_excluded = (cpi->common.comp_pred_mode == COMP_PREDICTION_ONLY); } #if CONFIG_COMP_INTERINTRA_PRED if (is_comp_interintra_pred && !cm->use_interintra) *mode_excluded = 1; #endif } return this_rd; // if 0, this will be re-calculated by caller } static void rd_pick_inter_mode(VP9_COMP *cpi, MACROBLOCK *x, int mb_row, int mb_col, int *returnrate, int *returndistortion, int64_t *returnintra) { static const int flag_list[4] = { 0, VP9_LAST_FLAG, VP9_GOLD_FLAG, VP9_ALT_FLAG }; VP9_COMMON *cm = &cpi->common; MACROBLOCKD *xd = &x->e_mbd; union b_mode_info best_bmodes[16]; MB_MODE_INFO best_mbmode; PARTITION_INFO best_partition; int_mv best_ref_mv, second_best_ref_mv; MB_PREDICTION_MODE this_mode; MB_PREDICTION_MODE best_mode = DC_PRED; MB_MODE_INFO * mbmi = &xd->mode_info_context->mbmi; int i, best_mode_index = 0; int mode8x8[4]; unsigned char segment_id = mbmi->segment_id; int mode_index; int mdcounts[4]; int rate, distortion; int rate2, distortion2; int64_t best_txfm_rd[NB_TXFM_MODES]; int64_t best_txfm_diff[NB_TXFM_MODES]; int64_t best_pred_diff[NB_PREDICTION_TYPES]; int64_t best_pred_rd[NB_PREDICTION_TYPES]; int64_t best_rd = INT64_MAX, best_intra_rd = INT64_MAX; #if CONFIG_COMP_INTERINTRA_PRED int is_best_interintra = 0; int64_t best_intra16_rd = INT64_MAX; int best_intra16_mode = DC_PRED; #if SEPARATE_INTERINTRA_UV int best_intra16_uv_mode = DC_PRED; #endif #endif int64_t best_overall_rd = INT64_MAX; INTERPOLATIONFILTERTYPE best_filter = SWITCHABLE; INTERPOLATIONFILTERTYPE tmp_best_filter = SWITCHABLE; int uv_intra_rate[2], uv_intra_distortion[2], uv_intra_rate_tokenonly[2]; int uv_intra_skippable[2]; MB_PREDICTION_MODE uv_intra_mode[2]; int rate_y, UNINITIALIZED_IS_SAFE(rate_uv); int distortion_uv = INT_MAX; int64_t best_yrd = INT64_MAX; int near_sadidx[8] = {0, 1, 2, 3, 4, 5, 6, 7}; int saddone = 0; int_mv frame_mv[MB_MODE_COUNT][MAX_REF_FRAMES]; int frame_mdcounts[4][4]; YV12_BUFFER_CONFIG yv12_mb[4]; unsigned int ref_costs[MAX_REF_FRAMES]; int_mv seg_mvs[NB_PARTITIONINGS][16 /* n_blocks */][MAX_REF_FRAMES - 1]; int intra_cost_penalty = 20 * vp9_dc_quant(cpi->common.base_qindex, cpi->common.y1dc_delta_q); struct scale_factors scale_factor[4]; vpx_memset(mode8x8, 0, sizeof(mode8x8)); vpx_memset(&frame_mv, 0, sizeof(frame_mv)); vpx_memset(&best_mbmode, 0, sizeof(best_mbmode)); vpx_memset(&best_bmodes, 0, sizeof(best_bmodes)); vpx_memset(&x->mb_context[xd->sb_index][xd->mb_index], 0, sizeof(PICK_MODE_CONTEXT)); for (i = 0; i < MAX_REF_FRAMES; i++) frame_mv[NEWMV][i].as_int = INVALID_MV; for (i = 0; i < NB_PREDICTION_TYPES; ++i) best_pred_rd[i] = INT64_MAX; for (i = 0; i < NB_TXFM_MODES; i++) best_txfm_rd[i] = INT64_MAX; for (i = 0; i < NB_PARTITIONINGS; i++) { int j, k; for (j = 0; j < 16; j++) for (k = 0; k < MAX_REF_FRAMES - 1; k++) seg_mvs[i][j][k].as_int = INVALID_MV; } if (cpi->ref_frame_flags & VP9_LAST_FLAG) { setup_buffer_inter(cpi, x, cpi->lst_fb_idx, LAST_FRAME, BLOCK_16X16, mb_row, mb_col, frame_mv[NEARESTMV], frame_mv[NEARMV], frame_mdcounts, yv12_mb, scale_factor); } if (cpi->ref_frame_flags & VP9_GOLD_FLAG) { setup_buffer_inter(cpi, x, cpi->gld_fb_idx, GOLDEN_FRAME, BLOCK_16X16, mb_row, mb_col, frame_mv[NEARESTMV], frame_mv[NEARMV], frame_mdcounts, yv12_mb, scale_factor); } if (cpi->ref_frame_flags & VP9_ALT_FLAG) { setup_buffer_inter(cpi, x, cpi->alt_fb_idx, ALTREF_FRAME, BLOCK_16X16, mb_row, mb_col, frame_mv[NEARESTMV], frame_mv[NEARMV], frame_mdcounts, yv12_mb, scale_factor); } *returnintra = INT64_MAX; mbmi->ref_frame = INTRA_FRAME; /* Initialize zbin mode boost for uv costing */ cpi->zbin_mode_boost = 0; vp9_update_zbin_extra(cpi, x); xd->mode_info_context->mbmi.mode = DC_PRED; for (i = 0; i <= TX_8X8; i++) { mbmi->txfm_size = i; rd_pick_intra_sbuv_mode(cpi, x, &uv_intra_rate[i], &uv_intra_rate_tokenonly[i], &uv_intra_distortion[i], &uv_intra_skippable[i], BLOCK_SIZE_MB16X16); uv_intra_mode[i] = mbmi->uv_mode; } // Get estimates of reference frame costs for each reference frame // that depend on the current prediction etc. estimate_ref_frame_costs(cpi, segment_id, ref_costs); for (mode_index = 0; mode_index < MAX_MODES; ++mode_index) { int64_t this_rd = INT64_MAX; int disable_skip = 0, skippable = 0; int other_cost = 0; int compmode_cost = 0; #if CONFIG_COMP_INTERINTRA_PRED int compmode_interintra_cost = 0; #endif int mode_excluded = 0; int64_t txfm_cache[NB_TXFM_MODES] = { 0 }; YV12_BUFFER_CONFIG *scaled_ref_frame; // These variables hold are rolling total cost and distortion for this mode rate2 = 0; distortion2 = 0; rate_y = 0; rate_uv = 0; x->skip = 0; this_mode = vp9_mode_order[mode_index].mode; mbmi->mode = this_mode; mbmi->uv_mode = DC_PRED; mbmi->ref_frame = vp9_mode_order[mode_index].ref_frame; mbmi->second_ref_frame = vp9_mode_order[mode_index].second_ref_frame; mbmi->interp_filter = cm->mcomp_filter_type; set_scale_factors(xd, mbmi->ref_frame, mbmi->second_ref_frame, scale_factor); vp9_setup_interp_filters(xd, mbmi->interp_filter, &cpi->common); // Test best rd so far against threshold for trying this mode. if (best_rd <= cpi->rd_threshes[mode_index]) continue; // Ensure that the references used by this mode are available. if (mbmi->ref_frame && !(cpi->ref_frame_flags & flag_list[mbmi->ref_frame])) continue; if (mbmi->second_ref_frame > 0 && !(cpi->ref_frame_flags & flag_list[mbmi->second_ref_frame])) continue; // only scale on zeromv. if (mbmi->ref_frame > 0 && (yv12_mb[mbmi->ref_frame].y_width != cm->mb_cols * 16 || yv12_mb[mbmi->ref_frame].y_height != cm->mb_rows * 16) && this_mode != ZEROMV) continue; if (mbmi->second_ref_frame > 0 && (yv12_mb[mbmi->second_ref_frame].y_width != cm->mb_cols * 16 || yv12_mb[mbmi->second_ref_frame].y_height != cm->mb_rows * 16) && this_mode != ZEROMV) continue; // current coding mode under rate-distortion optimization test loop #if CONFIG_COMP_INTERINTRA_PRED mbmi->interintra_mode = (MB_PREDICTION_MODE)(DC_PRED - 1); mbmi->interintra_uv_mode = (MB_PREDICTION_MODE)(DC_PRED - 1); #endif // If the segment reference frame feature is enabled.... // then do nothing if the current ref frame is not allowed.. if (vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME) && !vp9_check_segref(xd, segment_id, mbmi->ref_frame)) { continue; // If the segment skip feature is enabled.... // then do nothing if the current mode is not allowed.. } else if (vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP) && (this_mode != ZEROMV)) { continue; // Disable this drop out case if the ref frame segment // level feature is enabled for this segment. This is to // prevent the possibility that the we end up unable to pick any mode. } else if (!vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME)) { // Only consider ZEROMV/ALTREF_FRAME for alt ref frame overlay, // unless ARNR filtering is enabled in which case we want // an unfiltered alternative if (cpi->is_src_frame_alt_ref && (cpi->oxcf.arnr_max_frames == 0)) { if (this_mode != ZEROMV || mbmi->ref_frame != ALTREF_FRAME) { continue; } } } /* everything but intra */ scaled_ref_frame = NULL; if (mbmi->ref_frame) { int ref = mbmi->ref_frame; int fb; xd->pre = yv12_mb[ref]; best_ref_mv = mbmi->ref_mvs[ref][0]; vpx_memcpy(mdcounts, frame_mdcounts[ref], sizeof(mdcounts)); if (mbmi->ref_frame == LAST_FRAME) { fb = cpi->lst_fb_idx; } else if (mbmi->ref_frame == GOLDEN_FRAME) { fb = cpi->gld_fb_idx; } else { fb = cpi->alt_fb_idx; } if (cpi->scaled_ref_idx[fb] != cm->ref_frame_map[fb]) scaled_ref_frame = &cm->yv12_fb[cpi->scaled_ref_idx[fb]]; } if (mbmi->second_ref_frame > 0) { int ref = mbmi->second_ref_frame; xd->second_pre = yv12_mb[ref]; second_best_ref_mv = mbmi->ref_mvs[ref][0]; } // Experimental code. Special case for gf and arf zeromv modes. // Increase zbin size to suppress noise if (cpi->zbin_mode_boost_enabled) { if (vp9_mode_order[mode_index].ref_frame == INTRA_FRAME) cpi->zbin_mode_boost = 0; else { if (vp9_mode_order[mode_index].mode == ZEROMV) { if (vp9_mode_order[mode_index].ref_frame != LAST_FRAME) cpi->zbin_mode_boost = GF_ZEROMV_ZBIN_BOOST; else cpi->zbin_mode_boost = LF_ZEROMV_ZBIN_BOOST; } else if (vp9_mode_order[mode_index].mode == SPLITMV) cpi->zbin_mode_boost = 0; else cpi->zbin_mode_boost = MV_ZBIN_BOOST; } vp9_update_zbin_extra(cpi, x); } // Intra if (!mbmi->ref_frame) { switch (this_mode) { default: case V_PRED: case H_PRED: case D45_PRED: case D135_PRED: case D117_PRED: case D153_PRED: case D27_PRED: case D63_PRED: rate2 += intra_cost_penalty; case DC_PRED: case TM_PRED: mbmi->ref_frame = INTRA_FRAME; // FIXME compound intra prediction vp9_build_intra_predictors_mby(&x->e_mbd); super_block_yrd(cpi, x, &rate_y, &distortion, &skippable, BLOCK_SIZE_MB16X16, txfm_cache); rate2 += rate_y; distortion2 += distortion; rate2 += x->mbmode_cost[xd->frame_type][mbmi->mode]; rate2 += uv_intra_rate[mbmi->txfm_size != TX_4X4]; rate_uv = uv_intra_rate_tokenonly[mbmi->txfm_size != TX_4X4]; distortion2 += uv_intra_distortion[mbmi->txfm_size != TX_4X4]; distortion_uv = uv_intra_distortion[mbmi->txfm_size != TX_4X4]; skippable = skippable && uv_intra_skippable[mbmi->txfm_size != TX_4X4]; break; case I4X4_PRED: { int64_t tmp_rd; // Note the rate value returned here includes the cost of coding // the I4X4_PRED mode : x->mbmode_cost[xd->frame_type][I4X4_PRED]; mbmi->txfm_size = TX_4X4; tmp_rd = rd_pick_intra4x4mby_modes(cpi, x, &rate, &rate_y, &distortion, best_yrd); rate2 += rate; rate2 += intra_cost_penalty; distortion2 += distortion; if (tmp_rd < best_yrd) { rate2 += uv_intra_rate[TX_4X4]; rate_uv = uv_intra_rate_tokenonly[TX_4X4]; distortion2 += uv_intra_distortion[TX_4X4]; distortion_uv = uv_intra_distortion[TX_4X4]; } else { this_rd = INT64_MAX; disable_skip = 1; } } break; case I8X8_PRED: { int64_t tmp_rd; tmp_rd = rd_pick_intra8x8mby_modes_and_txsz(cpi, x, &rate, &rate_y, &distortion, mode8x8, best_yrd, txfm_cache); rate2 += rate; rate2 += intra_cost_penalty; distortion2 += distortion; /* TODO: uv rate maybe over-estimated here since there is UV intra mode coded in I8X8_PRED prediction */ if (tmp_rd < best_yrd) { rate2 += uv_intra_rate[TX_4X4]; rate_uv = uv_intra_rate_tokenonly[TX_4X4]; distortion2 += uv_intra_distortion[TX_4X4]; distortion_uv = uv_intra_distortion[TX_4X4]; } else { this_rd = INT64_MAX; disable_skip = 1; } } break; } } // Split MV. The code is very different from the other inter modes so // special case it. else if (this_mode == SPLITMV) { const int is_comp_pred = mbmi->second_ref_frame > 0; int64_t this_rd_thresh; int64_t tmp_rd, tmp_best_rd = INT64_MAX, tmp_best_rdu = INT64_MAX; int tmp_best_rate = INT_MAX, tmp_best_ratey = INT_MAX; int tmp_best_distortion = INT_MAX, tmp_best_skippable = 0; int switchable_filter_index; int_mv *second_ref = is_comp_pred ? &second_best_ref_mv : NULL; union b_mode_info tmp_best_bmodes[16]; MB_MODE_INFO tmp_best_mbmode; PARTITION_INFO tmp_best_partition; int pred_exists = 0; this_rd_thresh = (mbmi->ref_frame == LAST_FRAME) ? cpi->rd_threshes[THR_NEWMV] : cpi->rd_threshes[THR_NEWA]; this_rd_thresh = (mbmi->ref_frame == GOLDEN_FRAME) ? cpi->rd_threshes[THR_NEWG] : this_rd_thresh; xd->mode_info_context->mbmi.txfm_size = TX_4X4; for (switchable_filter_index = 0; switchable_filter_index < VP9_SWITCHABLE_FILTERS; ++switchable_filter_index) { int newbest; mbmi->interp_filter = vp9_switchable_interp[switchable_filter_index]; vp9_setup_interp_filters(xd, mbmi->interp_filter, &cpi->common); tmp_rd = rd_pick_best_mbsegmentation(cpi, x, &best_ref_mv, second_ref, best_yrd, mdcounts, &rate, &rate_y, &distortion, &skippable, (int)this_rd_thresh, seg_mvs, txfm_cache); if (cpi->common.mcomp_filter_type == SWITCHABLE) { int rs = SWITCHABLE_INTERP_RATE_FACTOR * x->switchable_interp_costs [vp9_get_pred_context(&cpi->common, xd, PRED_SWITCHABLE_INTERP)] [vp9_switchable_interp_map[mbmi->interp_filter]]; tmp_rd += RDCOST(x->rdmult, x->rddiv, rs, 0); } newbest = (tmp_rd < tmp_best_rd); if (newbest) { tmp_best_filter = mbmi->interp_filter; tmp_best_rd = tmp_rd; } if ((newbest && cm->mcomp_filter_type == SWITCHABLE) || (mbmi->interp_filter == cm->mcomp_filter_type && cm->mcomp_filter_type != SWITCHABLE)) { tmp_best_rdu = tmp_rd; tmp_best_rate = rate; tmp_best_ratey = rate_y; tmp_best_distortion = distortion; tmp_best_skippable = skippable; vpx_memcpy(&tmp_best_mbmode, mbmi, sizeof(MB_MODE_INFO)); vpx_memcpy(&tmp_best_partition, x->partition_info, sizeof(PARTITION_INFO)); for (i = 0; i < 16; i++) { tmp_best_bmodes[i] = xd->block[i].bmi; } pred_exists = 1; } } // switchable_filter_index loop mbmi->interp_filter = (cm->mcomp_filter_type == SWITCHABLE ? tmp_best_filter : cm->mcomp_filter_type); vp9_setup_interp_filters(xd, mbmi->interp_filter, &cpi->common); if (!pred_exists) { // Handles the special case when a filter that is not in the // switchable list (bilinear, 6-tap) is indicated at the frame level tmp_rd = rd_pick_best_mbsegmentation(cpi, x, &best_ref_mv, second_ref, best_yrd, mdcounts, &rate, &rate_y, &distortion, &skippable, (int)this_rd_thresh, seg_mvs, txfm_cache); } else { if (cpi->common.mcomp_filter_type == SWITCHABLE) { int rs = SWITCHABLE_INTERP_RATE_FACTOR * x->switchable_interp_costs [vp9_get_pred_context(&cpi->common, xd, PRED_SWITCHABLE_INTERP)] [vp9_switchable_interp_map[mbmi->interp_filter]]; tmp_best_rdu -= RDCOST(x->rdmult, x->rddiv, rs, 0); } tmp_rd = tmp_best_rdu; rate = tmp_best_rate; rate_y = tmp_best_ratey; distortion = tmp_best_distortion; skippable = tmp_best_skippable; vpx_memcpy(mbmi, &tmp_best_mbmode, sizeof(MB_MODE_INFO)); vpx_memcpy(x->partition_info, &tmp_best_partition, sizeof(PARTITION_INFO)); for (i = 0; i < 16; i++) { xd->block[i].bmi = xd->mode_info_context->bmi[i] = tmp_best_bmodes[i]; } } rate2 += rate; distortion2 += distortion; if (cpi->common.mcomp_filter_type == SWITCHABLE) rate2 += SWITCHABLE_INTERP_RATE_FACTOR * x->switchable_interp_costs [vp9_get_pred_context(&cpi->common, xd, PRED_SWITCHABLE_INTERP)] [vp9_switchable_interp_map[mbmi->interp_filter]]; // If even the 'Y' rd value of split is higher than best so far // then dont bother looking at UV if (tmp_rd < best_yrd) { int uv_skippable; vp9_build_inter4x4_predictors_mbuv(&x->e_mbd, mb_row, mb_col); vp9_subtract_mbuv(x->src_diff, x->src.u_buffer, x->src.v_buffer, x->e_mbd.predictor, x->src.uv_stride); super_block_uvrd_4x4(cm, x, &rate_uv, &distortion_uv, &uv_skippable, BLOCK_SIZE_MB16X16); rate2 += rate_uv; distortion2 += distortion_uv; skippable = skippable && uv_skippable; } else { this_rd = INT64_MAX; disable_skip = 1; } if (!mode_excluded) { if (is_comp_pred) mode_excluded = cpi->common.comp_pred_mode == SINGLE_PREDICTION_ONLY; else mode_excluded = cpi->common.comp_pred_mode == COMP_PREDICTION_ONLY; } compmode_cost = vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_COMP), is_comp_pred); mbmi->mode = this_mode; } else { #if CONFIG_COMP_INTERINTRA_PRED if (mbmi->second_ref_frame == INTRA_FRAME) { if (best_intra16_mode == DC_PRED - 1) continue; mbmi->interintra_mode = best_intra16_mode; #if SEPARATE_INTERINTRA_UV mbmi->interintra_uv_mode = best_intra16_uv_mode; #else mbmi->interintra_uv_mode = best_intra16_mode; #endif } #endif this_rd = handle_inter_mode(cpi, x, BLOCK_SIZE_MB16X16, &saddone, near_sadidx, mdcounts, txfm_cache, &rate2, &distortion2, &skippable, &compmode_cost, #if CONFIG_COMP_INTERINTRA_PRED &compmode_interintra_cost, #endif &rate_y, &distortion, &rate_uv, &distortion_uv, &mode_excluded, &disable_skip, mode_index, &tmp_best_filter, frame_mv, scaled_ref_frame, mb_row, mb_col); if (this_rd == INT64_MAX) continue; } #if CONFIG_COMP_INTERINTRA_PRED if (cpi->common.use_interintra) rate2 += compmode_interintra_cost; #endif if (cpi->common.comp_pred_mode == HYBRID_PREDICTION) rate2 += compmode_cost; // Estimate the reference frame signaling cost and add it // to the rolling cost variable. rate2 += ref_costs[mbmi->ref_frame]; if (!disable_skip) { // Test for the condition where skip block will be activated // because there are no non zero coefficients and make any // necessary adjustment for rate. Ignore if skip is coded at // segment level as the cost wont have been added in. if (cpi->common.mb_no_coeff_skip) { int mb_skip_allowed; // Is Mb level skip allowed (i.e. not coded at segment level). mb_skip_allowed = !vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP); if (skippable) { mbmi->mb_skip_coeff = 1; // Back out the coefficient coding costs rate2 -= (rate_y + rate_uv); // for best_yrd calculation rate_uv = 0; if (mb_skip_allowed) { int prob_skip_cost; // Cost the skip mb case vp9_prob skip_prob = vp9_get_pred_prob(cm, &x->e_mbd, PRED_MBSKIP); if (skip_prob) { prob_skip_cost = vp9_cost_bit(skip_prob, 1); rate2 += prob_skip_cost; other_cost += prob_skip_cost; } } } // Add in the cost of the no skip flag. else { mbmi->mb_skip_coeff = 0; if (mb_skip_allowed) { int prob_skip_cost = vp9_cost_bit( vp9_get_pred_prob(cm, &x->e_mbd, PRED_MBSKIP), 0); rate2 += prob_skip_cost; other_cost += prob_skip_cost; } } } // Calculate the final RD estimate for this mode. this_rd = RDCOST(x->rdmult, x->rddiv, rate2, distortion2); } // Keep record of best intra distortion if ((mbmi->ref_frame == INTRA_FRAME) && (this_rd < best_intra_rd)) { best_intra_rd = this_rd; *returnintra = distortion2; } #if CONFIG_COMP_INTERINTRA_PRED if ((mbmi->ref_frame == INTRA_FRAME) && (this_mode <= TM_PRED) && (this_rd < best_intra16_rd)) { best_intra16_rd = this_rd; best_intra16_mode = this_mode; #if SEPARATE_INTERINTRA_UV best_intra16_uv_mode = uv_intra_mode[mbmi->txfm_size != TX_4X4]; #endif } #endif if (!disable_skip && mbmi->ref_frame == INTRA_FRAME) for (i = 0; i < NB_PREDICTION_TYPES; ++i) best_pred_rd[i] = MIN(best_pred_rd[i], this_rd); if (this_rd < best_overall_rd) { best_overall_rd = this_rd; best_filter = tmp_best_filter; best_mode = this_mode; #if CONFIG_COMP_INTERINTRA_PRED is_best_interintra = (mbmi->second_ref_frame == INTRA_FRAME); #endif } // Did this mode help.. i.e. is it the new best mode if (this_rd < best_rd || x->skip) { if (!mode_excluded) { /* if (mbmi->second_ref_frame == INTRA_FRAME) { printf("rd %d best %d bestintra16 %d\n", this_rd, best_rd, best_intra16_rd); } */ // Note index of best mode so far best_mode_index = mode_index; if (this_mode <= I4X4_PRED) { if (mbmi->txfm_size != TX_4X4 && this_mode != I4X4_PRED && this_mode != I8X8_PRED) mbmi->uv_mode = uv_intra_mode[TX_8X8]; else mbmi->uv_mode = uv_intra_mode[TX_4X4]; /* required for left and above block mv */ mbmi->mv[0].as_int = 0; } other_cost += ref_costs[mbmi->ref_frame]; /* Calculate the final y RD estimate for this mode */ best_yrd = RDCOST(x->rdmult, x->rddiv, (rate2 - rate_uv - other_cost), (distortion2 - distortion_uv)); *returnrate = rate2; *returndistortion = distortion2; best_rd = this_rd; vpx_memcpy(&best_mbmode, mbmi, sizeof(MB_MODE_INFO)); vpx_memcpy(&best_partition, x->partition_info, sizeof(PARTITION_INFO)); if ((this_mode == I4X4_PRED) || (this_mode == I8X8_PRED) || (this_mode == SPLITMV)) for (i = 0; i < 16; i++) { best_bmodes[i] = xd->block[i].bmi; } } // Testing this mode gave rise to an improvement in best error score. // Lower threshold a bit for next time cpi->rd_thresh_mult[mode_index] = (cpi->rd_thresh_mult[mode_index] >= (MIN_THRESHMULT + 2)) ? cpi->rd_thresh_mult[mode_index] - 2 : MIN_THRESHMULT; cpi->rd_threshes[mode_index] = (cpi->rd_baseline_thresh[mode_index] >> 7) * cpi->rd_thresh_mult[mode_index]; } else { // If the mode did not help improve the best error case then raise the // threshold for testing that mode next time around. cpi->rd_thresh_mult[mode_index] += 4; if (cpi->rd_thresh_mult[mode_index] > MAX_THRESHMULT) cpi->rd_thresh_mult[mode_index] = MAX_THRESHMULT; cpi->rd_threshes[mode_index] = (cpi->rd_baseline_thresh[mode_index] >> 7) * cpi->rd_thresh_mult[mode_index]; } /* keep record of best compound/single-only prediction */ if (!disable_skip && mbmi->ref_frame != INTRA_FRAME) { int64_t single_rd, hybrid_rd; int single_rate, hybrid_rate; if (cpi->common.comp_pred_mode == HYBRID_PREDICTION) { single_rate = rate2 - compmode_cost; hybrid_rate = rate2; } else { single_rate = rate2; hybrid_rate = rate2 + compmode_cost; } single_rd = RDCOST(x->rdmult, x->rddiv, single_rate, distortion2); hybrid_rd = RDCOST(x->rdmult, x->rddiv, hybrid_rate, distortion2); if (mbmi->second_ref_frame <= INTRA_FRAME && single_rd < best_pred_rd[SINGLE_PREDICTION_ONLY]) { best_pred_rd[SINGLE_PREDICTION_ONLY] = single_rd; } else if (mbmi->second_ref_frame > INTRA_FRAME && single_rd < best_pred_rd[COMP_PREDICTION_ONLY]) { best_pred_rd[COMP_PREDICTION_ONLY] = single_rd; } if (hybrid_rd < best_pred_rd[HYBRID_PREDICTION]) best_pred_rd[HYBRID_PREDICTION] = hybrid_rd; } /* keep record of best txfm size */ if (!mode_excluded && this_rd != INT64_MAX) { for (i = 0; i < NB_TXFM_MODES; i++) { int64_t adj_rd; if (this_mode != I4X4_PRED) { const int64_t txfm_mode_diff = txfm_cache[i] - txfm_cache[cm->txfm_mode]; adj_rd = this_rd + txfm_mode_diff; } else { adj_rd = this_rd; } if (adj_rd < best_txfm_rd[i]) best_txfm_rd[i] = adj_rd; } } if (x->skip && !mode_excluded) break; } assert((cm->mcomp_filter_type == SWITCHABLE) || (cm->mcomp_filter_type == best_mbmode.interp_filter) || (best_mbmode.mode <= I4X4_PRED)); #if CONFIG_COMP_INTERINTRA_PRED ++cpi->interintra_select_count[is_best_interintra]; #endif // Accumulate filter usage stats // TODO(agrange): Use RD criteria to select interpolation filter mode. if ((best_mode >= NEARESTMV) && (best_mode <= SPLITMV)) ++cpi->best_switchable_interp_count[vp9_switchable_interp_map[best_filter]]; // Reduce the activation RD thresholds for the best choice mode if ((cpi->rd_baseline_thresh[best_mode_index] > 0) && (cpi->rd_baseline_thresh[best_mode_index] < (INT_MAX >> 2))) { int best_adjustment = (cpi->rd_thresh_mult[best_mode_index] >> 2); cpi->rd_thresh_mult[best_mode_index] = (cpi->rd_thresh_mult[best_mode_index] >= (MIN_THRESHMULT + best_adjustment)) ? cpi->rd_thresh_mult[best_mode_index] - best_adjustment : MIN_THRESHMULT; cpi->rd_threshes[best_mode_index] = (cpi->rd_baseline_thresh[best_mode_index] >> 7) * cpi->rd_thresh_mult[best_mode_index]; } // This code forces Altref,0,0 and skip for the frame that overlays a // an alrtef unless Altref is filtered. However, this is unsafe if // segment level coding of ref frame is enabled for this // segment. if (!vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME) && cpi->is_src_frame_alt_ref && (cpi->oxcf.arnr_max_frames == 0) && (best_mbmode.mode != ZEROMV || best_mbmode.ref_frame != ALTREF_FRAME)) { mbmi->mode = ZEROMV; if (cm->txfm_mode <= ALLOW_8X8) mbmi->txfm_size = cm->txfm_mode; else mbmi->txfm_size = TX_16X16; mbmi->ref_frame = ALTREF_FRAME; mbmi->mv[0].as_int = 0; mbmi->uv_mode = DC_PRED; mbmi->mb_skip_coeff = (cpi->common.mb_no_coeff_skip) ? 1 : 0; mbmi->partitioning = 0; set_scale_factors(xd, mbmi->ref_frame, mbmi->second_ref_frame, scale_factor); vpx_memset(best_pred_diff, 0, sizeof(best_pred_diff)); vpx_memset(best_txfm_diff, 0, sizeof(best_txfm_diff)); goto end; } // macroblock modes vpx_memcpy(mbmi, &best_mbmode, sizeof(MB_MODE_INFO)); if (best_mbmode.mode == I4X4_PRED) { for (i = 0; i < 16; i++) { xd->mode_info_context->bmi[i].as_mode = best_bmodes[i].as_mode; xd->block[i].bmi.as_mode = xd->mode_info_context->bmi[i].as_mode; } } if (best_mbmode.mode == I8X8_PRED) set_i8x8_block_modes(x, mode8x8); if (best_mbmode.mode == SPLITMV) { for (i = 0; i < 16; i++) xd->mode_info_context->bmi[i].as_mv[0].as_int = best_bmodes[i].as_mv[0].as_int; if (mbmi->second_ref_frame > 0) for (i = 0; i < 16; i++) xd->mode_info_context->bmi[i].as_mv[1].as_int = best_bmodes[i].as_mv[1].as_int; vpx_memcpy(x->partition_info, &best_partition, 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; } for (i = 0; i < NB_PREDICTION_TYPES; ++i) { if (best_pred_rd[i] == INT64_MAX) best_pred_diff[i] = INT_MIN; else best_pred_diff[i] = best_rd - best_pred_rd[i]; } if (!x->skip) { for (i = 0; i < NB_TXFM_MODES; i++) { if (best_txfm_rd[i] == INT64_MAX) best_txfm_diff[i] = 0; else best_txfm_diff[i] = best_rd - best_txfm_rd[i]; } } else { vpx_memset(best_txfm_diff, 0, sizeof(best_txfm_diff)); } end: set_scale_factors(xd, mbmi->ref_frame, mbmi->second_ref_frame, scale_factor); store_coding_context(x, &x->mb_context[xd->sb_index][xd->mb_index], best_mode_index, &best_partition, &mbmi->ref_mvs[mbmi->ref_frame][0], &mbmi->ref_mvs[mbmi->second_ref_frame < 0 ? 0 : mbmi->second_ref_frame][0], best_pred_diff, best_txfm_diff); } void vp9_rd_pick_intra_mode_sb(VP9_COMP *cpi, MACROBLOCK *x, int *returnrate, int *returndist, BLOCK_SIZE_TYPE bsize, PICK_MODE_CONTEXT *ctx) { VP9_COMMON *cm = &cpi->common; MACROBLOCKD *xd = &x->e_mbd; int rate_y = 0, rate_uv; int rate_y_tokenonly = 0, rate_uv_tokenonly; int dist_y = 0, dist_uv; int y_skip = 0, uv_skip; int64_t txfm_cache[NB_TXFM_MODES], err; int i; xd->mode_info_context->mbmi.mode = DC_PRED; err = rd_pick_intra_sby_mode(cpi, x, &rate_y, &rate_y_tokenonly, &dist_y, &y_skip, bsize, txfm_cache); rd_pick_intra_sbuv_mode(cpi, x, &rate_uv, &rate_uv_tokenonly, &dist_uv, &uv_skip, bsize); if (cpi->common.mb_no_coeff_skip && y_skip && uv_skip) { *returnrate = rate_y + rate_uv - rate_y_tokenonly - rate_uv_tokenonly + vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_MBSKIP), 1); *returndist = dist_y + (dist_uv >> 2); memset(ctx->txfm_rd_diff, 0, sizeof(x->sb32_context[xd->sb_index].txfm_rd_diff)); } else { *returnrate = rate_y + rate_uv; if (cpi->common.mb_no_coeff_skip) *returnrate += vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_MBSKIP), 0); *returndist = dist_y + (dist_uv >> 2); for (i = 0; i < NB_TXFM_MODES; i++) { ctx->txfm_rd_diff[i] = err - txfm_cache[i]; } } vpx_memcpy(&ctx->mic, xd->mode_info_context, sizeof(MODE_INFO)); } void vp9_rd_pick_intra_mode(VP9_COMP *cpi, MACROBLOCK *x, int *returnrate, int *returndist) { VP9_COMMON *cm = &cpi->common; MACROBLOCKD *xd = &x->e_mbd; MB_MODE_INFO * mbmi = &x->e_mbd.mode_info_context->mbmi; int64_t error4x4, error16x16; int rate4x4, rate16x16 = 0, rateuv[2]; int dist4x4 = 0, dist16x16 = 0, distuv[2]; int rate; int rate4x4_tokenonly = 0; int rate16x16_tokenonly = 0; int rateuv_tokenonly[2]; int64_t error8x8; int rate8x8_tokenonly=0; int rate8x8, dist8x8; int mode16x16; int mode8x8[4]; int dist; int modeuv[2], uv_intra_skippable[2]; int y_intra16x16_skippable = 0; int64_t txfm_cache[2][NB_TXFM_MODES]; TX_SIZE txfm_size_16x16, txfm_size_8x8; int i; mbmi->ref_frame = INTRA_FRAME; mbmi->mode = DC_PRED; for (i = 0; i <= TX_8X8; i++) { mbmi->txfm_size = i; rd_pick_intra_sbuv_mode(cpi, x, &rateuv[i], &rateuv_tokenonly[i], &distuv[i], &uv_intra_skippable[i], BLOCK_SIZE_MB16X16); modeuv[i] = mbmi->uv_mode; } // current macroblock under rate-distortion optimization test loop error16x16 = rd_pick_intra_sby_mode(cpi, x, &rate16x16, &rate16x16_tokenonly, &dist16x16, &y_intra16x16_skippable, BLOCK_SIZE_MB16X16, txfm_cache[1]); mode16x16 = mbmi->mode; txfm_size_16x16 = mbmi->txfm_size; if (cpi->common.mb_no_coeff_skip && y_intra16x16_skippable && ((cm->txfm_mode == ONLY_4X4 && uv_intra_skippable[TX_4X4]) || (cm->txfm_mode != ONLY_4X4 && uv_intra_skippable[TX_8X8]))) { error16x16 -= RDCOST(x->rdmult, x->rddiv, rate16x16_tokenonly, 0); rate16x16 -= rate16x16_tokenonly; } for (i = 0; i < NB_TXFM_MODES; i++) { txfm_cache[0][i] = error16x16 - txfm_cache[1][cm->txfm_mode] + txfm_cache[1][i]; } error8x8 = rd_pick_intra8x8mby_modes_and_txsz(cpi, x, &rate8x8, &rate8x8_tokenonly, &dist8x8, mode8x8, error16x16, txfm_cache[1]); txfm_size_8x8 = mbmi->txfm_size; for (i = 0; i < NB_TXFM_MODES; i++) { int64_t tmp_rd = error8x8 - txfm_cache[1][cm->txfm_mode] + txfm_cache[1][i]; if (tmp_rd < txfm_cache[0][i]) txfm_cache[0][i] = tmp_rd; } mbmi->txfm_size = TX_4X4; error4x4 = rd_pick_intra4x4mby_modes(cpi, x, &rate4x4, &rate4x4_tokenonly, &dist4x4, error16x16); for (i = 0; i < NB_TXFM_MODES; i++) { if (error4x4 < txfm_cache[0][i]) txfm_cache[0][i] = error4x4; } mbmi->mb_skip_coeff = 0; if (cpi->common.mb_no_coeff_skip && y_intra16x16_skippable && ((cm->txfm_mode == ONLY_4X4 && uv_intra_skippable[TX_4X4]) || (cm->txfm_mode != ONLY_4X4 && uv_intra_skippable[TX_8X8]))) { mbmi->mb_skip_coeff = 1; mbmi->mode = mode16x16; mbmi->uv_mode = modeuv[cm->txfm_mode != ONLY_4X4]; rate = rate16x16 + vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_MBSKIP), 1); dist = dist16x16; rate += rateuv[cm->txfm_mode != ONLY_4X4] - rateuv_tokenonly[cm->txfm_mode != ONLY_4X4]; dist += (distuv[cm->txfm_mode != ONLY_4X4] >> 2); mbmi->txfm_size = txfm_size_16x16; } else if (error8x8 > error16x16) { if (error4x4 < error16x16) { rate = rateuv[TX_4X4] + rate4x4; mbmi->mode = I4X4_PRED; mbmi->txfm_size = TX_4X4; dist = dist4x4 + (distuv[TX_4X4] >> 2); mbmi->uv_mode = modeuv[TX_4X4]; } else { mbmi->txfm_size = txfm_size_16x16; mbmi->mode = mode16x16; rate = rate16x16 + rateuv[mbmi->txfm_size != TX_4X4]; dist = dist16x16 + (distuv[mbmi->txfm_size != TX_4X4] >> 2); mbmi->uv_mode = modeuv[mbmi->txfm_size != TX_4X4]; } if (cpi->common.mb_no_coeff_skip) rate += vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_MBSKIP), 0); } else { if (error4x4 < error8x8) { rate = rateuv[TX_4X4] + rate4x4; mbmi->mode = I4X4_PRED; mbmi->txfm_size = TX_4X4; dist = dist4x4 + (distuv[TX_4X4] >> 2); mbmi->uv_mode = modeuv[TX_4X4]; } else { mbmi->mode = I8X8_PRED; mbmi->txfm_size = txfm_size_8x8; set_i8x8_block_modes(x, mode8x8); rate = rate8x8 + rateuv[TX_4X4]; dist = dist8x8 + (distuv[TX_4X4] >> 2); } if (cpi->common.mb_no_coeff_skip) rate += vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_MBSKIP), 0); } for (i = 0; i < NB_TXFM_MODES; i++) { x->mb_context[xd->sb_index][xd->mb_index].txfm_rd_diff[i] = txfm_cache[0][cm->txfm_mode] - txfm_cache[0][i]; } *returnrate = rate; *returndist = dist; } int64_t vp9_rd_pick_inter_mode_sb(VP9_COMP *cpi, MACROBLOCK *x, int mb_row, int mb_col, int *returnrate, int *returndistortion, BLOCK_SIZE_TYPE bsize, PICK_MODE_CONTEXT *ctx) { const enum BlockSize block_size = y_bsizet_to_block_size(bsize); VP9_COMMON *cm = &cpi->common; MACROBLOCKD *xd = &x->e_mbd; MB_MODE_INFO *mbmi = &xd->mode_info_context->mbmi; MB_PREDICTION_MODE this_mode; MB_PREDICTION_MODE best_mode = DC_PRED; MV_REFERENCE_FRAME ref_frame; unsigned char segment_id = xd->mode_info_context->mbmi.segment_id; int comp_pred, i; int_mv frame_mv[MB_MODE_COUNT][MAX_REF_FRAMES]; int frame_mdcounts[4][4]; YV12_BUFFER_CONFIG yv12_mb[4]; static const int flag_list[4] = { 0, VP9_LAST_FLAG, VP9_GOLD_FLAG, VP9_ALT_FLAG }; int idx_list[4] = {0, cpi->lst_fb_idx, cpi->gld_fb_idx, cpi->alt_fb_idx}; int mdcounts[4]; int near_sadidx[8] = { 0, 1, 2, 3, 4, 5, 6, 7 }; int saddone = 0; int64_t best_rd = INT64_MAX; int64_t best_txfm_rd[NB_TXFM_MODES]; int64_t best_txfm_diff[NB_TXFM_MODES]; int64_t best_pred_diff[NB_PREDICTION_TYPES]; int64_t best_pred_rd[NB_PREDICTION_TYPES]; MB_MODE_INFO best_mbmode; int mode_index, best_mode_index = 0; unsigned int ref_costs[MAX_REF_FRAMES]; #if CONFIG_COMP_INTERINTRA_PRED int is_best_interintra = 0; int64_t best_intra16_rd = INT64_MAX; int best_intra16_mode = DC_PRED; #if SEPARATE_INTERINTRA_UV int best_intra16_uv_mode = DC_PRED; #endif #endif int64_t best_overall_rd = INT64_MAX; INTERPOLATIONFILTERTYPE best_filter = SWITCHABLE; INTERPOLATIONFILTERTYPE tmp_best_filter = SWITCHABLE; int rate_uv_intra[TX_SIZE_MAX_SB], rate_uv_tokenonly[TX_SIZE_MAX_SB]; int dist_uv[TX_SIZE_MAX_SB], skip_uv[TX_SIZE_MAX_SB]; MB_PREDICTION_MODE mode_uv[TX_SIZE_MAX_SB]; struct scale_factors scale_factor[4]; xd->mode_info_context->mbmi.segment_id = segment_id; estimate_ref_frame_costs(cpi, segment_id, ref_costs); vpx_memset(&best_mbmode, 0, sizeof(best_mbmode)); for (i = 0; i < NB_PREDICTION_TYPES; ++i) best_pred_rd[i] = INT64_MAX; for (i = 0; i < NB_TXFM_MODES; i++) best_txfm_rd[i] = INT64_MAX; for (ref_frame = LAST_FRAME; ref_frame <= ALTREF_FRAME; ref_frame++) { if (cpi->ref_frame_flags & flag_list[ref_frame]) { setup_buffer_inter(cpi, x, idx_list[ref_frame], ref_frame, block_size, mb_row, mb_col, frame_mv[NEARESTMV], frame_mv[NEARMV], frame_mdcounts, yv12_mb, scale_factor); } frame_mv[NEWMV][ref_frame].as_int = INVALID_MV; frame_mv[ZEROMV][ref_frame].as_int = 0; } mbmi->mode = DC_PRED; for (i = 0; i <= ((bsize < BLOCK_SIZE_SB64X64) ? TX_16X16 : TX_32X32); i++) { mbmi->txfm_size = i; rd_pick_intra_sbuv_mode(cpi, x, &rate_uv_intra[i], &rate_uv_tokenonly[i], &dist_uv[i], &skip_uv[i], bsize); mode_uv[i] = mbmi->uv_mode; } for (mode_index = 0; mode_index < MAX_MODES; ++mode_index) { int mode_excluded = 0; int64_t this_rd = INT64_MAX; int disable_skip = 0; int other_cost = 0; int compmode_cost = 0; int rate2 = 0, rate_y = 0, rate_uv = 0; int distortion2 = 0, distortion_y = 0, distortion_uv = 0; int skippable; int64_t txfm_cache[NB_TXFM_MODES]; #if CONFIG_COMP_INTERINTRA_PRED int compmode_interintra_cost = 0; #endif // Test best rd so far against threshold for trying this mode. if (best_rd <= cpi->rd_threshes[mode_index] || cpi->rd_threshes[mode_index] == INT_MAX) { continue; } x->skip = 0; this_mode = vp9_mode_order[mode_index].mode; ref_frame = vp9_mode_order[mode_index].ref_frame; if (!(ref_frame == INTRA_FRAME || (cpi->ref_frame_flags & flag_list[ref_frame]))) { continue; } mbmi->ref_frame = ref_frame; mbmi->second_ref_frame = vp9_mode_order[mode_index].second_ref_frame; set_scale_factors(xd, mbmi->ref_frame, mbmi->second_ref_frame, scale_factor); comp_pred = mbmi->second_ref_frame > INTRA_FRAME; mbmi->mode = this_mode; mbmi->uv_mode = DC_PRED; #if CONFIG_COMP_INTERINTRA_PRED mbmi->interintra_mode = (MB_PREDICTION_MODE)(DC_PRED - 1); mbmi->interintra_uv_mode = (MB_PREDICTION_MODE)(DC_PRED - 1); #endif // Evaluate all sub-pel filters irrespective of whether we can use // them for this frame. mbmi->interp_filter = cm->mcomp_filter_type; vp9_setup_interp_filters(xd, mbmi->interp_filter, &cpi->common); // if (!(cpi->ref_frame_flags & flag_list[ref_frame])) // continue; if (this_mode == I8X8_PRED || this_mode == I4X4_PRED || this_mode == SPLITMV) continue; // if (vp9_mode_order[mode_index].second_ref_frame == INTRA_FRAME) // continue; if (comp_pred) { int second_ref; if (ref_frame == ALTREF_FRAME) { second_ref = LAST_FRAME; } else { second_ref = ref_frame + 1; } if (!(cpi->ref_frame_flags & flag_list[second_ref])) continue; mbmi->second_ref_frame = second_ref; set_scale_factors(xd, mbmi->ref_frame, mbmi->second_ref_frame, scale_factor); xd->second_pre = yv12_mb[second_ref]; mode_excluded = mode_excluded ? mode_excluded : cm->comp_pred_mode == SINGLE_PREDICTION_ONLY; } else { // mbmi->second_ref_frame = vp9_mode_order[mode_index].second_ref_frame; if (ref_frame != INTRA_FRAME) { if (mbmi->second_ref_frame != INTRA_FRAME) mode_excluded = mode_excluded ? mode_excluded : cm->comp_pred_mode == COMP_PREDICTION_ONLY; #if CONFIG_COMP_INTERINTRA_PRED else mode_excluded = mode_excluded ? mode_excluded : !cm->use_interintra; #endif } } xd->pre = yv12_mb[ref_frame]; vpx_memcpy(mdcounts, frame_mdcounts[ref_frame], sizeof(mdcounts)); // If the segment reference frame feature is enabled.... // then do nothing if the current ref frame is not allowed.. if (vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME) && !vp9_check_segref(xd, segment_id, ref_frame)) { continue; // If the segment skip feature is enabled.... // then do nothing if the current mode is not allowed.. } else if (vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP) && (this_mode != ZEROMV)) { continue; // Disable this drop out case if the ref frame // segment level feature is enabled for this segment. This is to // prevent the possibility that we end up unable to pick any mode. } else if (!vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME)) { // Only consider ZEROMV/ALTREF_FRAME for alt ref frame, // unless ARNR filtering is enabled in which case we want // an unfiltered alternative if (cpi->is_src_frame_alt_ref && (cpi->oxcf.arnr_max_frames == 0)) { if (this_mode != ZEROMV || ref_frame != ALTREF_FRAME) { continue; } } } if (ref_frame == INTRA_FRAME) { TX_SIZE uv_tx; vp9_build_intra_predictors_sby_s(xd, bsize); super_block_yrd(cpi, x, &rate_y, &distortion_y, &skippable, bsize, txfm_cache); uv_tx = mbmi->txfm_size; if (bsize < BLOCK_SIZE_SB32X32 && uv_tx == TX_16X16) uv_tx = TX_8X8; else if (bsize < BLOCK_SIZE_SB64X64 && uv_tx == TX_32X32) uv_tx = TX_16X16; rate_uv = rate_uv_intra[uv_tx]; distortion_uv = dist_uv[uv_tx]; skippable = skippable && skip_uv[uv_tx]; mbmi->uv_mode = mode_uv[uv_tx]; rate2 = rate_y + x->mbmode_cost[cm->frame_type][mbmi->mode] + rate_uv; distortion2 = distortion_y + distortion_uv; } else { YV12_BUFFER_CONFIG *scaled_ref_frame = NULL; int fb; if (mbmi->ref_frame == LAST_FRAME) { fb = cpi->lst_fb_idx; } else if (mbmi->ref_frame == GOLDEN_FRAME) { fb = cpi->gld_fb_idx; } else { fb = cpi->alt_fb_idx; } if (cpi->scaled_ref_idx[fb] != cm->ref_frame_map[fb]) scaled_ref_frame = &cm->yv12_fb[cpi->scaled_ref_idx[fb]]; #if CONFIG_COMP_INTERINTRA_PRED if (mbmi->second_ref_frame == INTRA_FRAME) { if (best_intra16_mode == DC_PRED - 1) continue; mbmi->interintra_mode = best_intra16_mode; #if SEPARATE_INTERINTRA_UV mbmi->interintra_uv_mode = best_intra16_uv_mode; #else mbmi->interintra_uv_mode = best_intra16_mode; #endif } #endif this_rd = handle_inter_mode(cpi, x, bsize, &saddone, near_sadidx, mdcounts, txfm_cache, &rate2, &distortion2, &skippable, &compmode_cost, #if CONFIG_COMP_INTERINTRA_PRED &compmode_interintra_cost, #endif &rate_y, &distortion_y, &rate_uv, &distortion_uv, &mode_excluded, &disable_skip, mode_index, &tmp_best_filter, frame_mv, scaled_ref_frame, mb_row, mb_col); if (this_rd == INT64_MAX) continue; } #if CONFIG_COMP_INTERINTRA_PRED if (cpi->common.use_interintra) { rate2 += compmode_interintra_cost; } #endif if (cpi->common.comp_pred_mode == HYBRID_PREDICTION) { rate2 += compmode_cost; } // Estimate the reference frame signaling cost and add it // to the rolling cost variable. rate2 += ref_costs[xd->mode_info_context->mbmi.ref_frame]; if (!disable_skip) { // Test for the condition where skip block will be activated // because there are no non zero coefficients and make any // necessary adjustment for rate. Ignore if skip is coded at // segment level as the cost wont have been added in. if (cpi->common.mb_no_coeff_skip) { int mb_skip_allowed; // Is Mb level skip allowed (i.e. not coded at segment level). mb_skip_allowed = !vp9_segfeature_active(xd, segment_id, SEG_LVL_SKIP); if (skippable) { // Back out the coefficient coding costs rate2 -= (rate_y + rate_uv); // for best_yrd calculation rate_uv = 0; if (mb_skip_allowed) { int prob_skip_cost; // Cost the skip mb case vp9_prob skip_prob = vp9_get_pred_prob(cm, xd, PRED_MBSKIP); if (skip_prob) { prob_skip_cost = vp9_cost_bit(skip_prob, 1); rate2 += prob_skip_cost; other_cost += prob_skip_cost; } } } // Add in the cost of the no skip flag. else if (mb_skip_allowed) { int prob_skip_cost = vp9_cost_bit(vp9_get_pred_prob(cm, xd, PRED_MBSKIP), 0); rate2 += prob_skip_cost; other_cost += prob_skip_cost; } } // Calculate the final RD estimate for this mode. this_rd = RDCOST(x->rdmult, x->rddiv, rate2, distortion2); } #if 0 // Keep record of best intra distortion if ((xd->mode_info_context->mbmi.ref_frame == INTRA_FRAME) && (this_rd < best_intra_rd)) { best_intra_rd = this_rd; *returnintra = distortion2; } #endif #if CONFIG_COMP_INTERINTRA_PRED if ((mbmi->ref_frame == INTRA_FRAME) && (this_mode <= TM_PRED) && (this_rd < best_intra16_rd)) { best_intra16_rd = this_rd; best_intra16_mode = this_mode; #if SEPARATE_INTERINTRA_UV best_intra16_uv_mode = (mbmi->txfm_size != TX_4X4 ? mode_uv_8x8 : mode_uv_4x4); #endif } #endif if (!disable_skip && mbmi->ref_frame == INTRA_FRAME) for (i = 0; i < NB_PREDICTION_TYPES; ++i) best_pred_rd[i] = MIN(best_pred_rd[i], this_rd); if (this_rd < best_overall_rd) { best_overall_rd = this_rd; best_filter = tmp_best_filter; best_mode = this_mode; #if CONFIG_COMP_INTERINTRA_PRED is_best_interintra = (mbmi->second_ref_frame == INTRA_FRAME); #endif } // Did this mode help.. i.e. is it the new best mode if (this_rd < best_rd || x->skip) { if (!mode_excluded) { // Note index of best mode so far best_mode_index = mode_index; if (this_mode <= I4X4_PRED) { /* required for left and above block mv */ mbmi->mv[0].as_int = 0; } other_cost += ref_costs[xd->mode_info_context->mbmi.ref_frame]; *returnrate = rate2; *returndistortion = distortion2; best_rd = this_rd; vpx_memcpy(&best_mbmode, mbmi, sizeof(MB_MODE_INFO)); } #if 0 // Testing this mode gave rise to an improvement in best error score. // Lower threshold a bit for next time cpi->rd_thresh_mult[mode_index] = (cpi->rd_thresh_mult[mode_index] >= (MIN_THRESHMULT + 2)) ? cpi->rd_thresh_mult[mode_index] - 2 : MIN_THRESHMULT; cpi->rd_threshes[mode_index] = (cpi->rd_baseline_thresh[mode_index] >> 7) * cpi->rd_thresh_mult[mode_index]; #endif } else { // If the mode did not help improve the best error case then // raise the threshold for testing that mode next time around. #if 0 cpi->rd_thresh_mult[mode_index] += 4; if (cpi->rd_thresh_mult[mode_index] > MAX_THRESHMULT) cpi->rd_thresh_mult[mode_index] = MAX_THRESHMULT; cpi->rd_threshes[mode_index] = (cpi->rd_baseline_thresh[mode_index] >> 7) * cpi->rd_thresh_mult[mode_index]; #endif } /* keep record of best compound/single-only prediction */ if (!disable_skip && mbmi->ref_frame != INTRA_FRAME) { int single_rd, hybrid_rd, single_rate, hybrid_rate; if (cpi->common.comp_pred_mode == HYBRID_PREDICTION) { single_rate = rate2 - compmode_cost; hybrid_rate = rate2; } else { single_rate = rate2; hybrid_rate = rate2 + compmode_cost; } single_rd = RDCOST(x->rdmult, x->rddiv, single_rate, distortion2); hybrid_rd = RDCOST(x->rdmult, x->rddiv, hybrid_rate, distortion2); if (mbmi->second_ref_frame <= INTRA_FRAME && single_rd < best_pred_rd[SINGLE_PREDICTION_ONLY]) { best_pred_rd[SINGLE_PREDICTION_ONLY] = single_rd; } else if (mbmi->second_ref_frame > INTRA_FRAME && single_rd < best_pred_rd[COMP_PREDICTION_ONLY]) { best_pred_rd[COMP_PREDICTION_ONLY] = single_rd; } if (hybrid_rd < best_pred_rd[HYBRID_PREDICTION]) best_pred_rd[HYBRID_PREDICTION] = hybrid_rd; } /* keep record of best txfm size */ if (!mode_excluded && this_rd != INT64_MAX) { for (i = 0; i < NB_TXFM_MODES; i++) { int64_t adj_rd; if (this_mode != I4X4_PRED) { adj_rd = this_rd + txfm_cache[i] - txfm_cache[cm->txfm_mode]; } else { adj_rd = this_rd; } if (adj_rd < best_txfm_rd[i]) best_txfm_rd[i] = adj_rd; } } if (x->skip && !mode_excluded) break; } assert((cm->mcomp_filter_type == SWITCHABLE) || (cm->mcomp_filter_type == best_mbmode.interp_filter) || (best_mbmode.mode <= I4X4_PRED)); #if CONFIG_COMP_INTERINTRA_PRED ++cpi->interintra_select_count[is_best_interintra]; // if (is_best_interintra) printf("best_interintra\n"); #endif // Accumulate filter usage stats // TODO(agrange): Use RD criteria to select interpolation filter mode. if ((best_mode >= NEARESTMV) && (best_mode <= SPLITMV)) ++cpi->best_switchable_interp_count[vp9_switchable_interp_map[best_filter]]; // TODO(rbultje) integrate with RD thresholding #if 0 // Reduce the activation RD thresholds for the best choice mode if ((cpi->rd_baseline_thresh[best_mode_index] > 0) && (cpi->rd_baseline_thresh[best_mode_index] < (INT_MAX >> 2))) { int best_adjustment = (cpi->rd_thresh_mult[best_mode_index] >> 2); cpi->rd_thresh_mult[best_mode_index] = (cpi->rd_thresh_mult[best_mode_index] >= (MIN_THRESHMULT + best_adjustment)) ? cpi->rd_thresh_mult[best_mode_index] - best_adjustment : MIN_THRESHMULT; cpi->rd_threshes[best_mode_index] = (cpi->rd_baseline_thresh[best_mode_index] >> 7) * cpi->rd_thresh_mult[best_mode_index]; } #endif // This code forces Altref,0,0 and skip for the frame that overlays a // an alrtef unless Altref is filtered. However, this is unsafe if // segment level coding of ref frame is enabled for this segment. if (!vp9_segfeature_active(xd, segment_id, SEG_LVL_REF_FRAME) && cpi->is_src_frame_alt_ref && (cpi->oxcf.arnr_max_frames == 0) && (best_mbmode.mode != ZEROMV || best_mbmode.ref_frame != ALTREF_FRAME)) { mbmi->mode = ZEROMV; mbmi->ref_frame = ALTREF_FRAME; mbmi->second_ref_frame = INTRA_FRAME; mbmi->mv[0].as_int = 0; mbmi->uv_mode = DC_PRED; mbmi->mb_skip_coeff = (cpi->common.mb_no_coeff_skip) ? 1 : 0; mbmi->partitioning = 0; mbmi->txfm_size = cm->txfm_mode == TX_MODE_SELECT ? TX_32X32 : cm->txfm_mode; vpx_memset(best_txfm_diff, 0, sizeof(best_txfm_diff)); vpx_memset(best_pred_diff, 0, sizeof(best_pred_diff)); goto end; } // macroblock modes vpx_memcpy(mbmi, &best_mbmode, sizeof(MB_MODE_INFO)); for (i = 0; i < NB_PREDICTION_TYPES; ++i) { if (best_pred_rd[i] == INT64_MAX) best_pred_diff[i] = INT_MIN; else best_pred_diff[i] = best_rd - best_pred_rd[i]; } if (!x->skip) { for (i = 0; i < NB_TXFM_MODES; i++) { if (best_txfm_rd[i] == INT64_MAX) best_txfm_diff[i] = 0; else best_txfm_diff[i] = best_rd - best_txfm_rd[i]; } } else { vpx_memset(best_txfm_diff, 0, sizeof(best_txfm_diff)); } end: set_scale_factors(xd, mbmi->ref_frame, mbmi->second_ref_frame, scale_factor); store_coding_context(x, ctx, best_mode_index, NULL, &mbmi->ref_mvs[mbmi->ref_frame][0], &mbmi->ref_mvs[mbmi->second_ref_frame < 0 ? 0 : mbmi->second_ref_frame][0], best_pred_diff, best_txfm_diff); return best_rd; } void vp9_pick_mode_inter_macroblock(VP9_COMP *cpi, MACROBLOCK *x, int mb_row, int mb_col, int *totalrate, int *totaldist) { MACROBLOCKD *const xd = &x->e_mbd; MB_MODE_INFO * mbmi = &x->e_mbd.mode_info_context->mbmi; int rate, distortion; int64_t intra_error = 0; unsigned char *segment_id = &mbmi->segment_id; if (xd->segmentation_enabled) x->encode_breakout = cpi->segment_encode_breakout[*segment_id]; else x->encode_breakout = cpi->oxcf.encode_breakout; // if (cpi->sf.RD) // For now this codebase is limited to a single rd encode path { int zbin_mode_boost_enabled = cpi->zbin_mode_boost_enabled; rd_pick_inter_mode(cpi, x, mb_row, mb_col, &rate, &distortion, &intra_error); /* restore cpi->zbin_mode_boost_enabled */ cpi->zbin_mode_boost_enabled = zbin_mode_boost_enabled; } // else // The non rd encode path has been deleted from this code base // to simplify development // vp9_pick_inter_mode // Store metrics so they can be added in to totals if this mode is picked x->mb_context[xd->sb_index][xd->mb_index].distortion = distortion; x->mb_context[xd->sb_index][xd->mb_index].intra_error = intra_error; *totalrate = rate; *totaldist = distortion; }