Loading lib_com/ivas_prot_fx.h +3 −2 Original line number Diff line number Diff line Loading @@ -2998,10 +2998,11 @@ void acelp_fast_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 cdk_index, /* i : codebook index */ const Word16 dn_orig[L_SUBFR], /* i : corr. between target and h[]. */ // Q_new + 1 /* i : corr. between target and h[]. */ // Q_dn Word16 Q_dn, const Word16 cn[L_SUBFR], /* i : residual after long term prediction */ // Q_new + 1 /* i : residual after long term prediction */ // q_cn const Word16 q_cn, const Word16 H[L_SUBFR], /* i : impulse response of weighted synthesis filter */ // e(norm_s(H[0])+1) Word16 code[L_SUBFR], /* o : algebraic (fixed) codebook excitation */ Loading lib_com/ivas_spar_com_fx.c +75 −110 Original line number Diff line number Diff line Loading @@ -51,24 +51,16 @@ * Local constants *------------------------------------------------------------------------------------------*/ #define IVAS_FLT_EPS ( 1e-10F ) #define IVAS_FIX_EPS ( 1 ) #define IVAS_DBL_EPS ( (double) 1e-20 ) #define IVAS_FIX_EPS_Q40 ( 110 ) #define IVAS_REMIX_MULT_FAC ( 0.5f ) #define IVAS_ACTIVEW_DM_F ( 1.0f ) #define IVAS_ACTIVEW_DM_F_Q30 ( ONE_IN_Q30 ) /*1 Q30*/ #define IVAS_ACTIVEW_DM_F_DTX ( 0.25f ) #define IVAS_ACTIVEW_DM_F_DTX_Q30 ( 268435456 ) /*0.25 Q30*/ #define IVAS_ACTIVEW_DM_F_VLBR ( 0.25f ) #define IVAS_ACTIVEW_DM_F_VLBR_Q30 ( 268435456 ) /*0.25 Q30*/ #define IVAS_LIN_ACTIVEW_QUAD_ACTIVEW_THRESH ( 3.0f ) #define IVAS_LIN_ACTIVEW_QUAD_ACTIVEW_THRESH_Q29 ( 1610612736 ) /*3 Q29*/ #define IVAS_P_NORM_SCALING ( 1.0f ) #define IVAS_P_NORM_SCALING_FX ( ONE_IN_Q31 ) // 1 Q31 #define IVAS_P_NORM_SCALING_DTX ( 0.75f ) #define IVAS_P_NORM_SCALING_DTX_FX ( 1610612736 ) // 0.75 Q31 #define IVAS_MAT_DIM_3 ( 3 ) Loading Loading @@ -1626,8 +1618,18 @@ static void ivas_get_Wscaling_factor_enc_fx( ivas_calc_post_pred_per_band_enc_fx( cov_real, q_cov_real, mixer_mat, q_mixer_mat, num_ch, b, postpred_cov_re, &q_postpred_cov_re ); } Gw_sq = BASOP_Util_Divide3232_Scale( cov_real[0][0][b], L_max( postpred_cov_re[0][0], IVAS_FIX_EPS ), &tmp_exp ); // 15-(tmp_exp-(q_cov_real[0][0][b]- q_postpred_cov_re)) tmp = L_shl_sat( IVAS_FIX_EPS_Q40, sub( q_postpred_cov_re, 40 ) ); IF( LE_32( postpred_cov_re[0][0], tmp ) ) { Gw_sq = Mpy_32_32( cov_real[0][0][b], 1250000000 ); /*1/1e-10 = 1250000000 Q(-4)*/ q_Gw_sq = add( q_cov_real[0][0][b], -4 - 31 ); } ELSE { Gw_sq = BASOP_Util_Divide3232_Scale( cov_real[0][0][b], postpred_cov_re[0][0], &tmp_exp ); // 15-(tmp_exp-(q_cov_real[0][0][b]- q_postpred_cov_re)) q_Gw_sq = add( sub( 15, tmp_exp ), sub( q_cov_real[0][0][b], q_postpred_cov_re ) ); } shift = MAX16B; move16(); Loading Loading @@ -1992,12 +1994,15 @@ static void ivas_calc_post_pred_per_band_enc_fx( Word32 postpred_cov_re[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH], /*q_postpred_cov_re*/ Word16 *q_postpred_cov_re ) { Word16 i, j, k, guard_bits, tmp, q_temp_mat[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH], q_tmp_re, q_W_tmp; Word16 i, j, k; Word32 dmx_mat_conj[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word32 temp_mat[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word32 max_val; Word64 tmp_re, W_tmp; Word16 q_postpred_cov_re_per_value[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word16 temp_mat_e[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word16 q_postpred_cov_re_buf[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word16 min_val; Word32 tmp_re; Word16 tmp_q; Word16 tmp_e; FOR( i = 0; i < num_ch; i++ ) { Loading @@ -2014,135 +2019,71 @@ static void ivas_calc_post_pred_per_band_enc_fx( set32_fx( postpred_cov_re[i], 0, num_ch ); } max_val = 1; move32(); min_val = MAX16B; move16(); /* num_ch x num_ch mult */ FOR( i = 0; i < num_ch; i++ ) { FOR( j = 0; j < num_ch; j++ ) { tmp_re = 0; move64(); q_tmp_re = 31; temp_mat[i][j] = 0; move32(); temp_mat_e[i][j] = 0; move16(); FOR( k = 0; k < num_ch; k++ ) { W_tmp = W_shr( W_mult0_32_32( cov_real[i][k][band_idx], dmx_mat_conj[k][j] ), q_mixer_mat ); /*q_cov_real[i][k][band_idx]*/ IF( LT_16( q_cov_real[i][k][band_idx], q_tmp_re ) ) { tmp_re = W_add( W_shr( tmp_re, sub( q_tmp_re, q_cov_real[i][k][band_idx] ) ), W_tmp ); /*q_cov_real[i][k][band_idx]*/ q_tmp_re = q_cov_real[i][k][band_idx]; move16(); } ELSE { tmp_re = W_add( tmp_re, W_shr( W_tmp, sub( q_cov_real[i][k][band_idx], q_tmp_re ) ) ); /*q_tmp_re*/ } } IF( tmp_re == 0 ) tmp_re = Mpy_32_32( cov_real[i][k][band_idx], dmx_mat_conj[k][j] ); tmp_e = sub( 62, add( q_cov_real[i][k][band_idx], q_mixer_mat ) ); IF( tmp_re ) { q_temp_mat[i][j] = 31; move16(); temp_mat[i][j] = 0; temp_mat[i][j] = BASOP_Util_Add_Mant32Exp( temp_mat[i][j], temp_mat_e[i][j], tmp_re, tmp_e, &temp_mat_e[i][j] ); move32(); } ELSE { q_temp_mat[i][j] = q_tmp_re; move16(); q_tmp_re = W_norm( tmp_re ); temp_mat[i][j] = W_extract_h( W_shl( tmp_re, q_tmp_re ) ); /*q_temp_mat[i][j]+ q_tmp_re -32*/ move32(); q_temp_mat[i][j] = sub( add( q_temp_mat[i][j], q_tmp_re ), 32 ); move16(); } max_val = L_max( max_val, L_abs( temp_mat[i][j] ) ); } } guard_bits = find_guarded_bits_fx( num_ch ); tmp = norm_l( max_val ); IF( LT_16( tmp, guard_bits ) ) { guard_bits = sub( guard_bits, tmp ); } ELSE { guard_bits = 0; move16(); } *q_postpred_cov_re = 31; move16(); /* num_ch x num_ch mult */ FOR( i = 0; i < num_ch; i++ ) { FOR( j = i; j < num_ch; j++ ) { tmp_re = 0; move64(); q_tmp_re = 31; q_postpred_cov_re_buf[i][j] = *q_postpred_cov_re; move16(); FOR( k = 0; k < num_ch; k++ ) { W_tmp = W_shr( W_mult0_32_32( mixer_mat[i][k][band_idx], temp_mat[k][j] ), guard_bits ); // q_temp_mat[k][j]+ q_mixer_mat-guard_bits q_W_tmp = sub( add( q_temp_mat[k][j], q_mixer_mat ), guard_bits ); IF( LT_16( q_W_tmp, q_tmp_re ) ) tmp_re = Mpy_32_32( mixer_mat[i][k][band_idx], temp_mat[k][j] ); tmp_q = sub( q_mixer_mat, temp_mat_e[k][j] ); IF( tmp_re ) { tmp_re = W_add( W_shr( tmp_re, sub( q_tmp_re, q_W_tmp ) ), W_tmp ); // q_W_tmp q_tmp_re = q_W_tmp; tmp_e = sub( 31, q_postpred_cov_re_buf[i][j] ); postpred_cov_re[i][j] = BASOP_Util_Add_Mant32Exp( postpred_cov_re[i][j], tmp_e, tmp_re, sub( Q31, tmp_q ), &tmp_e ); move32(); q_postpred_cov_re_buf[i][j] = sub( 31, tmp_e ); move16(); } ELSE { tmp_re = W_add( tmp_re, W_shr( W_tmp, sub( q_W_tmp, q_tmp_re ) ) ); // q_tmp_re } } if ( LT_64( W_abs( tmp_re ), L_shl( IVAS_FIX_EPS, guard_bits ) ) ) { tmp_re = 0; move64(); } q_postpred_cov_re_per_value[i][j] = q_tmp_re; move16(); IF( tmp_re == 0 ) { postpred_cov_re[i][j] = W_extract_l( tmp_re ); /* q_tmp_re*/ move32(); } ELSE IF( postpred_cov_re[i][j] ) { q_tmp_re = W_norm( tmp_re ); postpred_cov_re[i][j] = W_extract_h( W_shl( tmp_re, q_tmp_re ) ); /* q_tmp_re+ q_postpred_cov_re_per_value[i][j] -32*/ move32(); q_postpred_cov_re_per_value[i][j] = sub( add( q_tmp_re, q_postpred_cov_re_per_value[i][j] ), 32 ); move16(); min_val = s_min( min_val, q_postpred_cov_re_buf[i][j] ); } *q_postpred_cov_re = s_min( *q_postpred_cov_re, q_postpred_cov_re_per_value[i][j] ); move16(); } } /*Changing Q of postpred_cov_re to min_val*/ FOR( i = 0; i < num_ch; i++ ) { FOR( j = i; j < num_ch; j++ ) { IF( postpred_cov_re[i][j] >= 0 ) IF( postpred_cov_re[i][j] ) { postpred_cov_re[i][j] = L_shr( postpred_cov_re[i][j], sub( q_postpred_cov_re_per_value[i][j], *q_postpred_cov_re ) ); //*q_postpred_cov_re move32(); } ELSE { postpred_cov_re[i][j] = L_negate( L_shr( L_negate( postpred_cov_re[i][j] ), sub( q_postpred_cov_re_per_value[i][j], *q_postpred_cov_re ) ) ); //*q_postpred_cov_re postpred_cov_re[i][j] = L_shl( postpred_cov_re[i][j], sub( min_val, q_postpred_cov_re_buf[i][j] ) ); move32(); } } } FOR( i = 0; i < num_ch; i++ ) { FOR( j = 0; j < i; j++ ) Loading @@ -2152,6 +2093,14 @@ static void ivas_calc_post_pred_per_band_enc_fx( } } if ( EQ_16( min_val, MAX16B ) ) { min_val = Q31; move16(); } *q_postpred_cov_re = min_val; move16(); return; } Loading Loading @@ -2687,7 +2636,8 @@ static void ivas_calc_p_coeffs_per_band_enc_fx( trace = W_add( trace, W_deposit32_l( L_abs( cov_uu_re[i - num_dmx][i - num_dmx] ) ) ); // q_cov_uu_re } factor = L_max( IVAS_FIX_EPS, postpred_cov_re[0][0] ); // q_postpred_cov_re factor = postpred_cov_re[0][0]; // q_postpred_cov_re move32(); q_factor = q_postpred_cov_re; move16(); IF( trace != 0 ) Loading @@ -2708,10 +2658,22 @@ static void ivas_calc_p_coeffs_per_band_enc_fx( factor = L_max( factor, tmp ); // q_factor } tmp = L_shl_sat( 189 /* 1e-20 in Q74 */, sub( q_factor, 74 ) ); Word16 factor_exp = 0; move16(); IF( LE_32( factor, tmp ) ) { factor = 22204; // (1 / 1e-20) in Q(-52) factor_exp = Q15 - ( -52 ); move32(); move16(); } ELSE { factor = BASOP_Util_Divide3232_Scale( 1, factor, &factor_exp ); // q=15-(factor_exp+31-(31-q_factor)) factor_exp = add( factor_exp, q_factor ); } /* normalise Hermitian (except for rounding) cov_uu */ FOR( i = num_dmx; i < num_ch; i++ ) Loading @@ -2728,7 +2690,7 @@ static void ivas_calc_p_coeffs_per_band_enc_fx( { q_tmp = W_norm( W_tmp ); } cov_uu_re[i - num_dmx][j - num_dmx] = W_extract_h( W_shl( W_mult0_32_32( cov_uu_re[i - num_dmx][j - num_dmx], factor ), q_tmp ) ); /*q_cov_uu_re+15-factor_exp+q_tmp-32*/ cov_uu_re[i - num_dmx][j - num_dmx] = W_extract_h( W_shl( W_tmp, q_tmp ) ); /*q_cov_uu_re+15-factor_exp+q_tmp-32*/ move32(); q_cov_uu_re_per_value[i - num_dmx][j - num_dmx] = sub( add( add( q_cov_uu_re, sub( 15, factor_exp ) ), q_tmp ), 32 ); move16(); Loading Loading @@ -3311,6 +3273,9 @@ void ivas_calc_c_p_coeffs_enc_fx( Word16 i, j, q_postpred_cov_re; Word32 postpred_cov_re[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; q_postpred_cov_re = 0; move16(); FOR( i = 0; i < IVAS_SPAR_MAX_CH; i++ ) { set_zero_fx( postpred_cov_re[i], IVAS_SPAR_MAX_CH ); Loading lib_com/options.h +4 −2 Original line number Diff line number Diff line Loading @@ -67,6 +67,8 @@ #define BASOP_NOGLOB_DECLARE_LOCAL #endif #define FIX_1378_ACELP_OUT_OF_BOUNDS /* Note: each compile switch (FIX_1101_...) is independent from the other ones */ //#define OPT_STEREO_32KBPS_V1 /* Optimization made in stereo decoding path for 32kbps decoding */ #define OPT_AVOID_STATE_BUF_RESCALE /* Optimization made to avoid rescale of synth state buffer */ Loading @@ -82,10 +84,10 @@ //#define FORCE_GENERIC //#define ALLOW_TM /* To allow some transition mode */ #define REMOVE_A_SCALE //#define REMOVE_A_SCALE #if 1 // diminish MLD by ~1 on NO_S #if 0 // diminish MLD by ~1 on NO_S #define USE_EVS_FUNC_LP // -> BE for IVAS, but condition seems missing compared to float for rf condition Loading lib_com/prot_fx.h +1 −8 Original line number Diff line number Diff line Loading @@ -5077,14 +5077,7 @@ void fine_gain_quant_fx( Word16 *fg_pred, /* i/o: Predicted gains / Corrected gains Q12 */ const Word16 *gopt /* i : Optimal gains Q12 */ ); void fine_gain_quant_ivas_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 *ord, /* i : Indices for energy order Q0 */ const Word16 num_sfm, /* i : Number of bands Q0 */ const Word16 *gain_bits, /* i : Gain adjustment bits per sub band Q0 */ Word16 *fg_pred, /* i/o: Predicted gains / Corrected gains i:Q12 / o:Q11 */ const Word16 *gopt /* i : Optimal gains Q12 */ ); void get_max_pulses_fx( const Word16 *band_start, /* i : Sub band start indices */ const Word16 *band_end, /* i : Sub band end indices */ Loading lib_com/pvq_com_fx.c +0 −67 Original line number Diff line number Diff line Loading @@ -509,73 +509,6 @@ void apply_gain_fx( * * Fine gain quantization *--------------------------------------------------------------------------*/ void fine_gain_quant_ivas_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 *ord, /* i : Indices for energy order Q0 */ const Word16 num_sfm, /* i : Number of bands Q0 */ const Word16 *gain_bits, /* i : Gain adjustment bits per sub band Q0 */ Word16 *fg_pred, /* i/o: Predicted gains / Corrected gains i:Q12 / o:Q11 */ const Word16 *gopt /* i : Optimal gains Q12 */ ) { Word16 band; Word16 gbits; Word16 idx; Word16 gain_db, gain_dbq; Word16 err; Word16 tmp1, tmp2, exp1, exp2; Word32 L_tmp; UWord16 lsb; #ifdef BASOP_NOGLOB_DECLARE_LOCAL Flag Overflow = 0; move32(); #endif FOR( band = 0; band < num_sfm; band++ ) { gbits = gain_bits[ord[band]]; /* Q0 */ move16(); test(); IF( fg_pred[band] != 0 && gbits > 0 ) { exp1 = norm_s( gopt[band] ); exp1 = sub( exp1, 1 ); tmp1 = shl( gopt[band], exp1 ); exp2 = norm_s( fg_pred[band] ); tmp2 = shl( fg_pred[band], exp2 ); /* Q12 + exp2 */ exp1 = add( 15, sub( exp1, exp2 ) ); err = div_s( tmp1, tmp2 ); /* Q15 */ tmp1 = norm_s( err ); exp2 = Log2_norm_lc( L_deposit_h( shl( err, tmp1 ) ) ); tmp1 = sub( 14, tmp1 ); tmp1 = sub( tmp1, exp1 ); L_tmp = L_Comp( tmp1, exp2 ); Mpy_32_16_ss( L_tmp, 24660, &L_tmp, &lsb ); /* 24660 = 20*log10(2) in Q12 */ /*16+12-15=13 */ gain_db = round_fx_sat( L_shl_o( L_tmp, 17, &Overflow ) ); /* Q14 */ idx = squant_fx( gain_db, &gain_dbq, finegain_fx[gbits - 1], gain_cb_size[gbits - 1] ); /* Q0 */ push_indice( hBstr, IND_PVQ_FINE_GAIN, idx, gbits ); L_tmp = L_mult0( gain_dbq, 21771 ); /* 21771=0.05*log2(10) */ /* 14+17=31 */ L_tmp = L_shr( L_tmp, 15 ); /* Q16 */ tmp1 = L_Extract_lc( L_tmp, &exp1 ); tmp1 = abs_s( tmp1 ); tmp1 = extract_l( Pow2( 14, tmp1 ) ); exp1 = sub( 14, exp1 ); L_tmp = L_mult0( fg_pred[band], tmp1 ); /*12+exp1 */ fg_pred[band] = round_fx( L_shl( L_tmp, sub( 15, exp1 ) ) ); /*12+exp1+16-exp1-16=12 - 1-> Q11*/ move16(); } ELSE { fg_pred[band] = shr( fg_pred[band], 1 ); // Q12 -> Q11 To align all the fg_pred indices in same Q. } } return; } void fine_gain_quant_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 *ord, /* i : Indices for energy order Q0 */ Loading Loading
lib_com/ivas_prot_fx.h +3 −2 Original line number Diff line number Diff line Loading @@ -2998,10 +2998,11 @@ void acelp_fast_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 cdk_index, /* i : codebook index */ const Word16 dn_orig[L_SUBFR], /* i : corr. between target and h[]. */ // Q_new + 1 /* i : corr. between target and h[]. */ // Q_dn Word16 Q_dn, const Word16 cn[L_SUBFR], /* i : residual after long term prediction */ // Q_new + 1 /* i : residual after long term prediction */ // q_cn const Word16 q_cn, const Word16 H[L_SUBFR], /* i : impulse response of weighted synthesis filter */ // e(norm_s(H[0])+1) Word16 code[L_SUBFR], /* o : algebraic (fixed) codebook excitation */ Loading
lib_com/ivas_spar_com_fx.c +75 −110 Original line number Diff line number Diff line Loading @@ -51,24 +51,16 @@ * Local constants *------------------------------------------------------------------------------------------*/ #define IVAS_FLT_EPS ( 1e-10F ) #define IVAS_FIX_EPS ( 1 ) #define IVAS_DBL_EPS ( (double) 1e-20 ) #define IVAS_FIX_EPS_Q40 ( 110 ) #define IVAS_REMIX_MULT_FAC ( 0.5f ) #define IVAS_ACTIVEW_DM_F ( 1.0f ) #define IVAS_ACTIVEW_DM_F_Q30 ( ONE_IN_Q30 ) /*1 Q30*/ #define IVAS_ACTIVEW_DM_F_DTX ( 0.25f ) #define IVAS_ACTIVEW_DM_F_DTX_Q30 ( 268435456 ) /*0.25 Q30*/ #define IVAS_ACTIVEW_DM_F_VLBR ( 0.25f ) #define IVAS_ACTIVEW_DM_F_VLBR_Q30 ( 268435456 ) /*0.25 Q30*/ #define IVAS_LIN_ACTIVEW_QUAD_ACTIVEW_THRESH ( 3.0f ) #define IVAS_LIN_ACTIVEW_QUAD_ACTIVEW_THRESH_Q29 ( 1610612736 ) /*3 Q29*/ #define IVAS_P_NORM_SCALING ( 1.0f ) #define IVAS_P_NORM_SCALING_FX ( ONE_IN_Q31 ) // 1 Q31 #define IVAS_P_NORM_SCALING_DTX ( 0.75f ) #define IVAS_P_NORM_SCALING_DTX_FX ( 1610612736 ) // 0.75 Q31 #define IVAS_MAT_DIM_3 ( 3 ) Loading Loading @@ -1626,8 +1618,18 @@ static void ivas_get_Wscaling_factor_enc_fx( ivas_calc_post_pred_per_band_enc_fx( cov_real, q_cov_real, mixer_mat, q_mixer_mat, num_ch, b, postpred_cov_re, &q_postpred_cov_re ); } Gw_sq = BASOP_Util_Divide3232_Scale( cov_real[0][0][b], L_max( postpred_cov_re[0][0], IVAS_FIX_EPS ), &tmp_exp ); // 15-(tmp_exp-(q_cov_real[0][0][b]- q_postpred_cov_re)) tmp = L_shl_sat( IVAS_FIX_EPS_Q40, sub( q_postpred_cov_re, 40 ) ); IF( LE_32( postpred_cov_re[0][0], tmp ) ) { Gw_sq = Mpy_32_32( cov_real[0][0][b], 1250000000 ); /*1/1e-10 = 1250000000 Q(-4)*/ q_Gw_sq = add( q_cov_real[0][0][b], -4 - 31 ); } ELSE { Gw_sq = BASOP_Util_Divide3232_Scale( cov_real[0][0][b], postpred_cov_re[0][0], &tmp_exp ); // 15-(tmp_exp-(q_cov_real[0][0][b]- q_postpred_cov_re)) q_Gw_sq = add( sub( 15, tmp_exp ), sub( q_cov_real[0][0][b], q_postpred_cov_re ) ); } shift = MAX16B; move16(); Loading Loading @@ -1992,12 +1994,15 @@ static void ivas_calc_post_pred_per_band_enc_fx( Word32 postpred_cov_re[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH], /*q_postpred_cov_re*/ Word16 *q_postpred_cov_re ) { Word16 i, j, k, guard_bits, tmp, q_temp_mat[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH], q_tmp_re, q_W_tmp; Word16 i, j, k; Word32 dmx_mat_conj[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word32 temp_mat[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word32 max_val; Word64 tmp_re, W_tmp; Word16 q_postpred_cov_re_per_value[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word16 temp_mat_e[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word16 q_postpred_cov_re_buf[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; Word16 min_val; Word32 tmp_re; Word16 tmp_q; Word16 tmp_e; FOR( i = 0; i < num_ch; i++ ) { Loading @@ -2014,135 +2019,71 @@ static void ivas_calc_post_pred_per_band_enc_fx( set32_fx( postpred_cov_re[i], 0, num_ch ); } max_val = 1; move32(); min_val = MAX16B; move16(); /* num_ch x num_ch mult */ FOR( i = 0; i < num_ch; i++ ) { FOR( j = 0; j < num_ch; j++ ) { tmp_re = 0; move64(); q_tmp_re = 31; temp_mat[i][j] = 0; move32(); temp_mat_e[i][j] = 0; move16(); FOR( k = 0; k < num_ch; k++ ) { W_tmp = W_shr( W_mult0_32_32( cov_real[i][k][band_idx], dmx_mat_conj[k][j] ), q_mixer_mat ); /*q_cov_real[i][k][band_idx]*/ IF( LT_16( q_cov_real[i][k][band_idx], q_tmp_re ) ) { tmp_re = W_add( W_shr( tmp_re, sub( q_tmp_re, q_cov_real[i][k][band_idx] ) ), W_tmp ); /*q_cov_real[i][k][band_idx]*/ q_tmp_re = q_cov_real[i][k][band_idx]; move16(); } ELSE { tmp_re = W_add( tmp_re, W_shr( W_tmp, sub( q_cov_real[i][k][band_idx], q_tmp_re ) ) ); /*q_tmp_re*/ } } IF( tmp_re == 0 ) tmp_re = Mpy_32_32( cov_real[i][k][band_idx], dmx_mat_conj[k][j] ); tmp_e = sub( 62, add( q_cov_real[i][k][band_idx], q_mixer_mat ) ); IF( tmp_re ) { q_temp_mat[i][j] = 31; move16(); temp_mat[i][j] = 0; temp_mat[i][j] = BASOP_Util_Add_Mant32Exp( temp_mat[i][j], temp_mat_e[i][j], tmp_re, tmp_e, &temp_mat_e[i][j] ); move32(); } ELSE { q_temp_mat[i][j] = q_tmp_re; move16(); q_tmp_re = W_norm( tmp_re ); temp_mat[i][j] = W_extract_h( W_shl( tmp_re, q_tmp_re ) ); /*q_temp_mat[i][j]+ q_tmp_re -32*/ move32(); q_temp_mat[i][j] = sub( add( q_temp_mat[i][j], q_tmp_re ), 32 ); move16(); } max_val = L_max( max_val, L_abs( temp_mat[i][j] ) ); } } guard_bits = find_guarded_bits_fx( num_ch ); tmp = norm_l( max_val ); IF( LT_16( tmp, guard_bits ) ) { guard_bits = sub( guard_bits, tmp ); } ELSE { guard_bits = 0; move16(); } *q_postpred_cov_re = 31; move16(); /* num_ch x num_ch mult */ FOR( i = 0; i < num_ch; i++ ) { FOR( j = i; j < num_ch; j++ ) { tmp_re = 0; move64(); q_tmp_re = 31; q_postpred_cov_re_buf[i][j] = *q_postpred_cov_re; move16(); FOR( k = 0; k < num_ch; k++ ) { W_tmp = W_shr( W_mult0_32_32( mixer_mat[i][k][band_idx], temp_mat[k][j] ), guard_bits ); // q_temp_mat[k][j]+ q_mixer_mat-guard_bits q_W_tmp = sub( add( q_temp_mat[k][j], q_mixer_mat ), guard_bits ); IF( LT_16( q_W_tmp, q_tmp_re ) ) tmp_re = Mpy_32_32( mixer_mat[i][k][band_idx], temp_mat[k][j] ); tmp_q = sub( q_mixer_mat, temp_mat_e[k][j] ); IF( tmp_re ) { tmp_re = W_add( W_shr( tmp_re, sub( q_tmp_re, q_W_tmp ) ), W_tmp ); // q_W_tmp q_tmp_re = q_W_tmp; tmp_e = sub( 31, q_postpred_cov_re_buf[i][j] ); postpred_cov_re[i][j] = BASOP_Util_Add_Mant32Exp( postpred_cov_re[i][j], tmp_e, tmp_re, sub( Q31, tmp_q ), &tmp_e ); move32(); q_postpred_cov_re_buf[i][j] = sub( 31, tmp_e ); move16(); } ELSE { tmp_re = W_add( tmp_re, W_shr( W_tmp, sub( q_W_tmp, q_tmp_re ) ) ); // q_tmp_re } } if ( LT_64( W_abs( tmp_re ), L_shl( IVAS_FIX_EPS, guard_bits ) ) ) { tmp_re = 0; move64(); } q_postpred_cov_re_per_value[i][j] = q_tmp_re; move16(); IF( tmp_re == 0 ) { postpred_cov_re[i][j] = W_extract_l( tmp_re ); /* q_tmp_re*/ move32(); } ELSE IF( postpred_cov_re[i][j] ) { q_tmp_re = W_norm( tmp_re ); postpred_cov_re[i][j] = W_extract_h( W_shl( tmp_re, q_tmp_re ) ); /* q_tmp_re+ q_postpred_cov_re_per_value[i][j] -32*/ move32(); q_postpred_cov_re_per_value[i][j] = sub( add( q_tmp_re, q_postpred_cov_re_per_value[i][j] ), 32 ); move16(); min_val = s_min( min_val, q_postpred_cov_re_buf[i][j] ); } *q_postpred_cov_re = s_min( *q_postpred_cov_re, q_postpred_cov_re_per_value[i][j] ); move16(); } } /*Changing Q of postpred_cov_re to min_val*/ FOR( i = 0; i < num_ch; i++ ) { FOR( j = i; j < num_ch; j++ ) { IF( postpred_cov_re[i][j] >= 0 ) IF( postpred_cov_re[i][j] ) { postpred_cov_re[i][j] = L_shr( postpred_cov_re[i][j], sub( q_postpred_cov_re_per_value[i][j], *q_postpred_cov_re ) ); //*q_postpred_cov_re move32(); } ELSE { postpred_cov_re[i][j] = L_negate( L_shr( L_negate( postpred_cov_re[i][j] ), sub( q_postpred_cov_re_per_value[i][j], *q_postpred_cov_re ) ) ); //*q_postpred_cov_re postpred_cov_re[i][j] = L_shl( postpred_cov_re[i][j], sub( min_val, q_postpred_cov_re_buf[i][j] ) ); move32(); } } } FOR( i = 0; i < num_ch; i++ ) { FOR( j = 0; j < i; j++ ) Loading @@ -2152,6 +2093,14 @@ static void ivas_calc_post_pred_per_band_enc_fx( } } if ( EQ_16( min_val, MAX16B ) ) { min_val = Q31; move16(); } *q_postpred_cov_re = min_val; move16(); return; } Loading Loading @@ -2687,7 +2636,8 @@ static void ivas_calc_p_coeffs_per_band_enc_fx( trace = W_add( trace, W_deposit32_l( L_abs( cov_uu_re[i - num_dmx][i - num_dmx] ) ) ); // q_cov_uu_re } factor = L_max( IVAS_FIX_EPS, postpred_cov_re[0][0] ); // q_postpred_cov_re factor = postpred_cov_re[0][0]; // q_postpred_cov_re move32(); q_factor = q_postpred_cov_re; move16(); IF( trace != 0 ) Loading @@ -2708,10 +2658,22 @@ static void ivas_calc_p_coeffs_per_band_enc_fx( factor = L_max( factor, tmp ); // q_factor } tmp = L_shl_sat( 189 /* 1e-20 in Q74 */, sub( q_factor, 74 ) ); Word16 factor_exp = 0; move16(); IF( LE_32( factor, tmp ) ) { factor = 22204; // (1 / 1e-20) in Q(-52) factor_exp = Q15 - ( -52 ); move32(); move16(); } ELSE { factor = BASOP_Util_Divide3232_Scale( 1, factor, &factor_exp ); // q=15-(factor_exp+31-(31-q_factor)) factor_exp = add( factor_exp, q_factor ); } /* normalise Hermitian (except for rounding) cov_uu */ FOR( i = num_dmx; i < num_ch; i++ ) Loading @@ -2728,7 +2690,7 @@ static void ivas_calc_p_coeffs_per_band_enc_fx( { q_tmp = W_norm( W_tmp ); } cov_uu_re[i - num_dmx][j - num_dmx] = W_extract_h( W_shl( W_mult0_32_32( cov_uu_re[i - num_dmx][j - num_dmx], factor ), q_tmp ) ); /*q_cov_uu_re+15-factor_exp+q_tmp-32*/ cov_uu_re[i - num_dmx][j - num_dmx] = W_extract_h( W_shl( W_tmp, q_tmp ) ); /*q_cov_uu_re+15-factor_exp+q_tmp-32*/ move32(); q_cov_uu_re_per_value[i - num_dmx][j - num_dmx] = sub( add( add( q_cov_uu_re, sub( 15, factor_exp ) ), q_tmp ), 32 ); move16(); Loading Loading @@ -3311,6 +3273,9 @@ void ivas_calc_c_p_coeffs_enc_fx( Word16 i, j, q_postpred_cov_re; Word32 postpred_cov_re[IVAS_SPAR_MAX_CH][IVAS_SPAR_MAX_CH]; q_postpred_cov_re = 0; move16(); FOR( i = 0; i < IVAS_SPAR_MAX_CH; i++ ) { set_zero_fx( postpred_cov_re[i], IVAS_SPAR_MAX_CH ); Loading
lib_com/options.h +4 −2 Original line number Diff line number Diff line Loading @@ -67,6 +67,8 @@ #define BASOP_NOGLOB_DECLARE_LOCAL #endif #define FIX_1378_ACELP_OUT_OF_BOUNDS /* Note: each compile switch (FIX_1101_...) is independent from the other ones */ //#define OPT_STEREO_32KBPS_V1 /* Optimization made in stereo decoding path for 32kbps decoding */ #define OPT_AVOID_STATE_BUF_RESCALE /* Optimization made to avoid rescale of synth state buffer */ Loading @@ -82,10 +84,10 @@ //#define FORCE_GENERIC //#define ALLOW_TM /* To allow some transition mode */ #define REMOVE_A_SCALE //#define REMOVE_A_SCALE #if 1 // diminish MLD by ~1 on NO_S #if 0 // diminish MLD by ~1 on NO_S #define USE_EVS_FUNC_LP // -> BE for IVAS, but condition seems missing compared to float for rf condition Loading
lib_com/prot_fx.h +1 −8 Original line number Diff line number Diff line Loading @@ -5077,14 +5077,7 @@ void fine_gain_quant_fx( Word16 *fg_pred, /* i/o: Predicted gains / Corrected gains Q12 */ const Word16 *gopt /* i : Optimal gains Q12 */ ); void fine_gain_quant_ivas_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 *ord, /* i : Indices for energy order Q0 */ const Word16 num_sfm, /* i : Number of bands Q0 */ const Word16 *gain_bits, /* i : Gain adjustment bits per sub band Q0 */ Word16 *fg_pred, /* i/o: Predicted gains / Corrected gains i:Q12 / o:Q11 */ const Word16 *gopt /* i : Optimal gains Q12 */ ); void get_max_pulses_fx( const Word16 *band_start, /* i : Sub band start indices */ const Word16 *band_end, /* i : Sub band end indices */ Loading
lib_com/pvq_com_fx.c +0 −67 Original line number Diff line number Diff line Loading @@ -509,73 +509,6 @@ void apply_gain_fx( * * Fine gain quantization *--------------------------------------------------------------------------*/ void fine_gain_quant_ivas_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 *ord, /* i : Indices for energy order Q0 */ const Word16 num_sfm, /* i : Number of bands Q0 */ const Word16 *gain_bits, /* i : Gain adjustment bits per sub band Q0 */ Word16 *fg_pred, /* i/o: Predicted gains / Corrected gains i:Q12 / o:Q11 */ const Word16 *gopt /* i : Optimal gains Q12 */ ) { Word16 band; Word16 gbits; Word16 idx; Word16 gain_db, gain_dbq; Word16 err; Word16 tmp1, tmp2, exp1, exp2; Word32 L_tmp; UWord16 lsb; #ifdef BASOP_NOGLOB_DECLARE_LOCAL Flag Overflow = 0; move32(); #endif FOR( band = 0; band < num_sfm; band++ ) { gbits = gain_bits[ord[band]]; /* Q0 */ move16(); test(); IF( fg_pred[band] != 0 && gbits > 0 ) { exp1 = norm_s( gopt[band] ); exp1 = sub( exp1, 1 ); tmp1 = shl( gopt[band], exp1 ); exp2 = norm_s( fg_pred[band] ); tmp2 = shl( fg_pred[band], exp2 ); /* Q12 + exp2 */ exp1 = add( 15, sub( exp1, exp2 ) ); err = div_s( tmp1, tmp2 ); /* Q15 */ tmp1 = norm_s( err ); exp2 = Log2_norm_lc( L_deposit_h( shl( err, tmp1 ) ) ); tmp1 = sub( 14, tmp1 ); tmp1 = sub( tmp1, exp1 ); L_tmp = L_Comp( tmp1, exp2 ); Mpy_32_16_ss( L_tmp, 24660, &L_tmp, &lsb ); /* 24660 = 20*log10(2) in Q12 */ /*16+12-15=13 */ gain_db = round_fx_sat( L_shl_o( L_tmp, 17, &Overflow ) ); /* Q14 */ idx = squant_fx( gain_db, &gain_dbq, finegain_fx[gbits - 1], gain_cb_size[gbits - 1] ); /* Q0 */ push_indice( hBstr, IND_PVQ_FINE_GAIN, idx, gbits ); L_tmp = L_mult0( gain_dbq, 21771 ); /* 21771=0.05*log2(10) */ /* 14+17=31 */ L_tmp = L_shr( L_tmp, 15 ); /* Q16 */ tmp1 = L_Extract_lc( L_tmp, &exp1 ); tmp1 = abs_s( tmp1 ); tmp1 = extract_l( Pow2( 14, tmp1 ) ); exp1 = sub( 14, exp1 ); L_tmp = L_mult0( fg_pred[band], tmp1 ); /*12+exp1 */ fg_pred[band] = round_fx( L_shl( L_tmp, sub( 15, exp1 ) ) ); /*12+exp1+16-exp1-16=12 - 1-> Q11*/ move16(); } ELSE { fg_pred[band] = shr( fg_pred[band], 1 ); // Q12 -> Q11 To align all the fg_pred indices in same Q. } } return; } void fine_gain_quant_fx( BSTR_ENC_HANDLE hBstr, /* i/o: encoder bitstream handle */ const Word16 *ord, /* i : Indices for energy order Q0 */ Loading