trigtabs.cpp
1 /* ***** BEGIN LICENSE BLOCK ***** 2 * Version: RCSL 1.0/RPSL 1.0 3 * 4 * Portions Copyright (c) 1995-2002 RealNetworks, Inc. All Rights Reserved. 5 * 6 * The contents of this file, and the files included with this file, are 7 * subject to the current version of the RealNetworks Public Source License 8 * Version 1.0 (the "RPSL") available at 9 * http://www.helixcommunity.org/content/rpsl unless you have licensed 10 * the file under the RealNetworks Community Source License Version 1.0 11 * (the "RCSL") available at http://www.helixcommunity.org/content/rcsl, 12 * in which case the RCSL will apply. You may also obtain the license terms 13 * directly from RealNetworks. You may not use this file except in 14 * compliance with the RPSL or, if you have a valid RCSL with RealNetworks 15 * applicable to this file, the RCSL. Please see the applicable RPSL or 16 * RCSL for the rights, obligations and limitations governing use of the 17 * contents of the file. 18 * 19 * This file is part of the Helix DNA Technology. RealNetworks is the 20 * developer of the Original Code and owns the copyrights in the portions 21 * it created. 22 * 23 * This file, and the files included with this file, is distributed and made 24 * available on an 'AS IS' basis, WITHOUT WARRANTY OF ANY KIND, EITHER 25 * EXPRESS OR IMPLIED, AND REALNETWORKS HEREBY DISCLAIMS ALL SUCH WARRANTIES, 26 * INCLUDING WITHOUT LIMITATION, ANY WARRANTIES OF MERCHANTABILITY, FITNESS 27 * FOR A PARTICULAR PURPOSE, QUIET ENJOYMENT OR NON-INFRINGEMENT. 28 * 29 * Technology Compatibility Kit Test Suite(s) Location: 30 * http://www.helixcommunity.org/content/tck 31 * 32 * Contributor(s): 33 * 34 * ***** END LICENSE BLOCK ***** */ 35 36 /************************************************************************************** 37 * Fixed-point MP3 decoder 38 * Jon Recker (jrecker@real.com), Ken Cooke (kenc@real.com) 39 * June 2003 40 * 41 * trigtabs.c - global ROM tables for pre-calculated trig coefficients 42 **************************************************************************************/ 43 44 // constants in RAM are not significantly faster 45 46 #include "coder.h" 47 48 /* post-IMDCT window, win[blockType][i] 49 * format = Q31 50 * Fused sin window with final stage of IMDCT 51 * includes 1/sqrt(2) scaling, since we scale by sqrt(2) in dequant in order 52 * for fast IMDCT36 to be usable 53 * 54 * for(i=0;i<9;i++) win[0][i] = sin(pi/36 *(i+0.5)); 55 * for(i=9;i<36;i++) win[0][i] = -sin(pi/36 *(i+0.5)); 56 * 57 * for(i=0;i<9;i++) win[1][i] = sin(pi/36 *(i+0.5)); 58 * for(i=9;i<18;i++) win[1][i] = -sin(pi/36 *(i+0.5)); 59 * for(i=18;i<24;i++) win[1][i] = -1; 60 * for(i=24;i<30;i++) win[1][i] = -sin(pi/12 *(i+0.5-18)); 61 * for(i=30;i<36;i++) win[1][i] = 0; 62 * 63 * for(i=0;i<6;i++) win[3][i] = 0; 64 * for(i=6;i<9;i++) win[3][i] = sin(pi/12 *(i+0.5-6)); 65 * for(i=9;i<12;i++) win[3][i] = -sin(pi/12 *(i+0.5-6)); 66 * for(i=12;i<18;i++) win[3][i] = -1; 67 * for(i=18;i<36;i++) win[3][i] = -sin(pi/36*(i+0.5)); 68 * 69 * for(i=0;i<3;i++) win[2][i] = sin(pi/12*(i+0.5)); 70 * for(i=3;i<12;i++) win[2][i] = -sin(pi/12*(i+0.5)); 71 * for(i=12;i<36;i++) win[2][i] = 0; 72 * 73 * for (i = 0; i < 4; i++) { 74 * if (i == 2) { 75 * win[i][8] *= cos(pi/12 * (0+0.5)); 76 * win[i][9] *= cos(pi/12 * (0+0.5)); 77 * win[i][7] *= cos(pi/12 * (1+0.5)); 78 * win[i][10] *= cos(pi/12 * (1+0.5)); 79 * win[i][6] *= cos(pi/12 * (2+0.5)); 80 * win[i][11] *= cos(pi/12 * (2+0.5)); 81 * win[i][0] *= cos(pi/12 * (3+0.5)); 82 * win[i][5] *= cos(pi/12 * (3+0.5)); 83 * win[i][1] *= cos(pi/12 * (4+0.5)); 84 * win[i][4] *= cos(pi/12 * (4+0.5)); 85 * win[i][2] *= cos(pi/12 * (5+0.5)); 86 * win[i][3] *= cos(pi/12 * (5+0.5)); 87 * } else { 88 * for (j = 0; j < 9; j++) { 89 * win[i][8-j] *= cos(pi/36 * (17-j+0.5)); 90 * win[i][9+j] *= cos(pi/36 * (17-j+0.5)); 91 * } 92 * for (j = 0; j < 9; j++) { 93 * win[i][18+8-j] *= cos(pi/36 * (j+0.5)); 94 * win[i][18+9+j] *= cos(pi/36 * (j+0.5)); 95 * } 96 * } 97 * } 98 * for (i = 0; i < 4; i++) 99 * for (j = 0; j < 36; j++) 100 * win[i][j] *= 1.0 / sqrt(2); 101 */ 102 const int imdctWin[4][36] = { 103 { 104 (int32_t)0x02aace8b, (int32_t)0x07311c28, (int32_t)0x0a868fec, (int32_t)0x0c913b52, (int32_t)0x0d413ccd, (int32_t)0x0c913b52, (int32_t)0x0a868fec, (int32_t)0x07311c28, 105 (int32_t)0x02aace8b, (int32_t)0xfd16d8dd, (int32_t)0xf6a09e66, (int32_t)0xef7a6275, (int32_t)0xe7dbc161, (int32_t)0xe0000000, (int32_t)0xd8243e9f, (int32_t)0xd0859d8b, 106 (int32_t)0xc95f619a, (int32_t)0xc2e92723, (int32_t)0xbd553175, (int32_t)0xb8cee3d8, (int32_t)0xb5797014, (int32_t)0xb36ec4ae, (int32_t)0xb2bec333, (int32_t)0xb36ec4ae, 107 (int32_t)0xb5797014, (int32_t)0xb8cee3d8, (int32_t)0xbd553175, (int32_t)0xc2e92723, (int32_t)0xc95f619a, (int32_t)0xd0859d8b, (int32_t)0xd8243e9f, (int32_t)0xe0000000, 108 (int32_t)0xe7dbc161, (int32_t)0xef7a6275, (int32_t)0xf6a09e66, (int32_t)0xfd16d8dd, 109 }, 110 { 111 (int32_t)0x02aace8b, (int32_t)0x07311c28, (int32_t)0x0a868fec, (int32_t)0x0c913b52, (int32_t)0x0d413ccd, (int32_t)0x0c913b52, (int32_t)0x0a868fec, (int32_t)0x07311c28, 112 (int32_t)0x02aace8b, (int32_t)0xfd16d8dd, (int32_t)0xf6a09e66, (int32_t)0xef7a6275, (int32_t)0xe7dbc161, (int32_t)0xe0000000, (int32_t)0xd8243e9f, (int32_t)0xd0859d8b, 113 (int32_t)0xc95f619a, (int32_t)0xc2e92723, (int32_t)0xbd44ef14, (int32_t)0xb831a052, (int32_t)0xb3aa3837, (int32_t)0xafb789a4, (int32_t)0xac6145bb, (int32_t)0xa9adecdc, 114 (int32_t)0xa864491f, (int32_t)0xad1868f0, (int32_t)0xb8431f49, (int32_t)0xc8f42236, (int32_t)0xdda8e6b1, (int32_t)0xf47755dc, (int32_t)0x00000000, (int32_t)0x00000000, 115 (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, 116 }, 117 { 118 (int32_t)0x07311c28, (int32_t)0x0d413ccd, (int32_t)0x07311c28, (int32_t)0xf6a09e66, (int32_t)0xe0000000, (int32_t)0xc95f619a, (int32_t)0xb8cee3d8, (int32_t)0xb2bec333, 119 (int32_t)0xb8cee3d8, (int32_t)0xc95f619a, (int32_t)0xe0000000, (int32_t)0xf6a09e66, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, 120 (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, 121 (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, 122 (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, 123 }, 124 { 125 (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x00000000, (int32_t)0x028e9709, (int32_t)0x04855ec0, 126 (int32_t)0x026743a1, (int32_t)0xfcde2c10, (int32_t)0xf515dc82, (int32_t)0xec93e53b, (int32_t)0xe4c880f8, (int32_t)0xdd5d0b08, (int32_t)0xd63510b7, (int32_t)0xcf5e834a, 127 (int32_t)0xc8e6b562, (int32_t)0xc2da4105, (int32_t)0xbd553175, (int32_t)0xb8cee3d8, (int32_t)0xb5797014, (int32_t)0xb36ec4ae, (int32_t)0xb2bec333, (int32_t)0xb36ec4ae, 128 (int32_t)0xb5797014, (int32_t)0xb8cee3d8, (int32_t)0xbd553175, (int32_t)0xc2e92723, (int32_t)0xc95f619a, (int32_t)0xd0859d8b, (int32_t)0xd8243e9f, (int32_t)0xe0000000, 129 (int32_t)0xe7dbc161, (int32_t)0xef7a6275, (int32_t)0xf6a09e66, (int32_t)0xfd16d8dd, 130 }, 131 }; 132 133 /* indexing = [mid-side off/on][intensity scale factor] 134 * format = Q30, range = [0.0, 1.414] 135 * 136 * mid-side off: 137 * ISFMpeg1[0][i] = tan(i*pi/12) / [1 + tan(i*pi/12)] (left scalefactor) 138 * = 1 / [1 + tan(i*pi/12)] (right scalefactor) 139 * 140 * mid-side on: 141 * ISFMpeg1[1][i] = sqrt(2) * ISFMpeg1[0][i] 142 * 143 * output L = ISFMpeg1[midSide][isf][0] * input L 144 * output R = ISFMpeg1[midSide][isf][1] * input L 145 * 146 * obviously left scalefactor + right scalefactor = 1 (m-s off) or sqrt(2) (m-s on) 147 * so just store left and calculate right as 1 - left 148 * (can derive as right = ISFMpeg1[x][6] - left) 149 * 150 * if mid-side enabled, multiply joint stereo scale factors by sqrt(2) 151 * - we scaled whole spectrum by 1/sqrt(2) in Dequant for the M+S/sqrt(2) in MidSideProc 152 * - but the joint stereo part of the spectrum doesn't need this, so we have to undo it 153 * 154 * if scale factor is and illegal intensity position, this becomes a passthrough 155 * - gain = [1, 0] if mid-side off, since L is coded directly and R = 0 in this region 156 * - gain = [1, 1] if mid-side on, since L = (M+S)/sqrt(2), R = (M-S)/sqrt(2) 157 * - and since S = 0 in the joint stereo region (above NZB right) then L = R = M * 1.0 158 */ 159 const int ISFMpeg1[2][7] = { 160 {(int32_t)0x00000000, (int32_t)0x0d8658ba, (int32_t)0x176cf5d0, (int32_t)0x20000000, (int32_t)0x28930a2f, (int32_t)0x3279a745, (int32_t)0x40000000}, 161 {(int32_t)0x00000000, (int32_t)0x13207f5c, (int32_t)0x2120fb83, (int32_t)0x2d413ccc, (int32_t)0x39617e16, (int32_t)0x4761fa3d, (int32_t)0x5a827999} 162 }; 163 164 /* indexing = [intensity scale on/off][mid-side off/on][intensity scale factor] 165 * format = Q30, range = [0.0, 1.414] 166 * 167 * if (isf == 0) kl = 1.0 kr = 1.0 168 * else if (isf & (int32_t)0x01 == (int32_t)0x01) kl = i0^((isf+1)/2), kr = 1.0 169 * else if (isf & (int32_t)0x01 == (int32_t)0x00) kl = 1.0, kr = i0^(isf/2) 170 * 171 * if (intensityScale == 1) i0 = 1/sqrt(2) = (int32_t)0x2d413ccc (Q30) 172 * else i0 = 1/sqrt(sqrt(2)) = (int32_t)0x35d13f32 (Q30) 173 * 174 * see comments for ISFMpeg1 (just above) regarding scaling, sqrt(2), etc. 175 * 176 * compress the MPEG2 table using the obvious identities above... 177 * for isf = [0, 1, 2, ... 30], let sf = table[(isf+1) >> 1] 178 * - if isf odd, L = sf*L, R = tab[0]*R 179 * - if isf even, L = tab[0]*L, R = sf*R 180 */ 181 const int ISFMpeg2[2][2][16] = { 182 { 183 { 184 /* intensityScale off, mid-side off */ 185 (int32_t)0x40000000, (int32_t)0x35d13f32, (int32_t)0x2d413ccc, (int32_t)0x260dfc14, (int32_t)0x1fffffff, (int32_t)0x1ae89f99, (int32_t)0x16a09e66, (int32_t)0x1306fe0a, 186 (int32_t)0x0fffffff, (int32_t)0x0d744fcc, (int32_t)0x0b504f33, (int32_t)0x09837f05, (int32_t)0x07ffffff, (int32_t)0x06ba27e6, (int32_t)0x05a82799, (int32_t)0x04c1bf82, 187 }, 188 { 189 /* intensityScale off, mid-side on */ 190 (int32_t)0x5a827999, (int32_t)0x4c1bf827, (int32_t)0x3fffffff, (int32_t)0x35d13f32, (int32_t)0x2d413ccc, (int32_t)0x260dfc13, (int32_t)0x1fffffff, (int32_t)0x1ae89f99, 191 (int32_t)0x16a09e66, (int32_t)0x1306fe09, (int32_t)0x0fffffff, (int32_t)0x0d744fcc, (int32_t)0x0b504f33, (int32_t)0x09837f04, (int32_t)0x07ffffff, (int32_t)0x06ba27e6, 192 }, 193 }, 194 { 195 { 196 /* intensityScale on, mid-side off */ 197 (int32_t)0x40000000, (int32_t)0x2d413ccc, (int32_t)0x20000000, (int32_t)0x16a09e66, (int32_t)0x10000000, (int32_t)0x0b504f33, (int32_t)0x08000000, (int32_t)0x05a82799, 198 (int32_t)0x04000000, (int32_t)0x02d413cc, (int32_t)0x02000000, (int32_t)0x016a09e6, (int32_t)0x01000000, (int32_t)0x00b504f3, (int32_t)0x00800000, (int32_t)0x005a8279, 199 }, 200 /* intensityScale on, mid-side on */ 201 { 202 (int32_t)0x5a827999, (int32_t)0x3fffffff, (int32_t)0x2d413ccc, (int32_t)0x1fffffff, (int32_t)0x16a09e66, (int32_t)0x0fffffff, (int32_t)0x0b504f33, (int32_t)0x07ffffff, 203 (int32_t)0x05a82799, (int32_t)0x03ffffff, (int32_t)0x02d413cc, (int32_t)0x01ffffff, (int32_t)0x016a09e6, (int32_t)0x00ffffff, (int32_t)0x00b504f3, (int32_t)0x007fffff, 204 } 205 } 206 }; 207 208 /* indexing = [intensity scale on/off][left/right] 209 * format = Q30, range = [0.0, 1.414] 210 * 211 * illegal intensity position scalefactors (see comments on ISFMpeg1) 212 */ 213 const int ISFIIP[2][2] = { 214 {(int32_t)0x40000000, (int32_t)0x00000000}, /* mid-side off */ 215 {(int32_t)0x40000000, (int32_t)0x40000000}, /* mid-side on */ 216 }; 217 218 const unsigned char uniqueIDTab[8] = {(int32_t)0x5f, (int32_t)0x4b, (int32_t)0x43, (int32_t)0x5f, (int32_t)0x5f, (int32_t)0x4a, (int32_t)0x52, (int32_t)0x5f}; 219 220 /* anti-alias coefficients - see spec Annex B, table 3-B.9 221 * csa[0][i] = CSi, csa[1][i] = CAi 222 * format = Q31 223 */ 224 const int csa[8][2] = { 225 {(int32_t)0x6dc253f0, (int32_t)0xbe2500aa}, 226 {(int32_t)0x70dcebe4, (int32_t)0xc39e4949}, 227 {(int32_t)0x798d6e73, (int32_t)0xd7e33f4a}, 228 {(int32_t)0x7ddd40a7, (int32_t)0xe8b71176}, 229 {(int32_t)0x7f6d20b7, (int32_t)0xf3e4fe2f}, 230 {(int32_t)0x7fe47e40, (int32_t)0xfac1a3c7}, 231 {(int32_t)0x7ffcb263, (int32_t)0xfe2ebdc6}, 232 {(int32_t)0x7fffc694, (int32_t)0xff86c25d}, 233 }; 234 235 /* format = Q30, range = [0.0981, 1.9976] 236 * 237 * n = 16; 238 * k = 0; 239 * for(i=0; i<5; i++, n=n/2) { 240 * for(p=0; p<n; p++, k++) { 241 * t = (PI / (4*n)) * (2*p + 1); 242 * coef32[k] = 2.0 * cos(t); 243 * } 244 * } 245 * coef32[30] *= 0.5; / *** for initial back butterfly (i.e. two-point DCT) *** / 246 */ 247 const int coef32[31] = { 248 (int32_t)0x7fd8878d, (int32_t)0x7e9d55fc, (int32_t)0x7c29fbee, (int32_t)0x78848413, (int32_t)0x73b5ebd0, (int32_t)0x6dca0d14, (int32_t)0x66cf811f, (int32_t)0x5ed77c89, 249 (int32_t)0x55f5a4d2, (int32_t)0x4c3fdff3, (int32_t)0x41ce1e64, (int32_t)0x36ba2013, (int32_t)0x2b1f34eb, (int32_t)0x1f19f97b, (int32_t)0x12c8106e, (int32_t)0x0647d97c, 250 (int32_t)0x7f62368f, (int32_t)0x7a7d055b, (int32_t)0x70e2cbc6, (int32_t)0x62f201ac, (int32_t)0x5133cc94, (int32_t)0x3c56ba70, (int32_t)0x25280c5d, (int32_t)0x0c8bd35e, 251 (int32_t)0x7d8a5f3f, (int32_t)0x6a6d98a4, (int32_t)0x471cece6, (int32_t)0x18f8b83c, (int32_t)0x7641af3c, (int32_t)0x30fbc54d, (int32_t)0x2d413ccc, 252 }; 253 254 /* format = Q30, right shifted by 12 (sign bits only in top 12 - undo this when rounding to short) 255 * this is to enable early-terminating multiplies on ARM 256 * range = [-1.144287109, 1.144989014] 257 * max gain of filter (per output sample) ~= 2.731 258 * 259 * new (properly sign-flipped) values 260 * - these actually are correct to 32 bits, (floating-pt coefficients in spec 261 * chosen such that only ~20 bits are required) 262 * 263 * Reordering - see table 3-B.3 in spec (appendix B) 264 * 265 * polyCoef[i] = 266 * D[ 0, 32, 64, ... 480], i = [ 0, 15] 267 * D[ 1, 33, 65, ... 481], i = [ 16, 31] 268 * D[ 2, 34, 66, ... 482], i = [ 32, 47] 269 * ... 270 * D[15, 47, 79, ... 495], i = [240,255] 271 * 272 * also exploits symmetry: D[i] = -D[512 - i], for i = [1, 255] 273 * 274 * polyCoef[256, 257, ... 263] are for special case of sample 16 (out of 0) 275 * see PolyphaseStereo() and PolyphaseMono() 276 */ 277 const int polyCoef[264] = { 278 /* shuffled vs. original from 0, 1, ... 15 to 0, 15, 2, 13, ... 14, 1 */ 279 (int32_t)0x00000000, (int32_t)0x00000074, (int32_t)0x00000354, (int32_t)0x0000072c, (int32_t)0x00001fd4, (int32_t)0x00005084, (int32_t)0x000066b8, (int32_t)0x000249c4, 280 (int32_t)0x00049478, (int32_t)0xfffdb63c, (int32_t)0x000066b8, (int32_t)0xffffaf7c, (int32_t)0x00001fd4, (int32_t)0xfffff8d4, (int32_t)0x00000354, (int32_t)0xffffff8c, 281 (int32_t)0xfffffffc, (int32_t)0x00000068, (int32_t)0x00000368, (int32_t)0x00000644, (int32_t)0x00001f40, (int32_t)0x00004ad0, (int32_t)0x00005d1c, (int32_t)0x00022ce0, 282 (int32_t)0x000493c0, (int32_t)0xfffd9960, (int32_t)0x00006f78, (int32_t)0xffffa9cc, (int32_t)0x0000203c, (int32_t)0xfffff7e4, (int32_t)0x00000340, (int32_t)0xffffff84, 283 (int32_t)0xfffffffc, (int32_t)0x00000060, (int32_t)0x00000378, (int32_t)0x0000056c, (int32_t)0x00001e80, (int32_t)0x00004524, (int32_t)0x000052a0, (int32_t)0x00020ffc, 284 (int32_t)0x000491a0, (int32_t)0xfffd7ca0, (int32_t)0x00007760, (int32_t)0xffffa424, (int32_t)0x00002080, (int32_t)0xfffff6ec, (int32_t)0x00000328, (int32_t)0xffffff74, 285 (int32_t)0xfffffffc, (int32_t)0x00000054, (int32_t)0x00000384, (int32_t)0x00000498, (int32_t)0x00001d94, (int32_t)0x00003f7c, (int32_t)0x00004744, (int32_t)0x0001f32c, 286 (int32_t)0x00048e18, (int32_t)0xfffd6008, (int32_t)0x00007e70, (int32_t)0xffff9e8c, (int32_t)0x0000209c, (int32_t)0xfffff5ec, (int32_t)0x00000310, (int32_t)0xffffff68, 287 (int32_t)0xfffffffc, (int32_t)0x0000004c, (int32_t)0x0000038c, (int32_t)0x000003d0, (int32_t)0x00001c78, (int32_t)0x000039e4, (int32_t)0x00003b00, (int32_t)0x0001d680, 288 (int32_t)0x00048924, (int32_t)0xfffd43ac, (int32_t)0x000084b0, (int32_t)0xffff990c, (int32_t)0x00002094, (int32_t)0xfffff4e4, (int32_t)0x000002f8, (int32_t)0xffffff5c, 289 (int32_t)0xfffffffc, (int32_t)0x00000044, (int32_t)0x00000390, (int32_t)0x00000314, (int32_t)0x00001b2c, (int32_t)0x0000345c, (int32_t)0x00002ddc, (int32_t)0x0001ba04, 290 (int32_t)0x000482d0, (int32_t)0xfffd279c, (int32_t)0x00008a20, (int32_t)0xffff93a4, (int32_t)0x0000206c, (int32_t)0xfffff3d4, (int32_t)0x000002dc, (int32_t)0xffffff4c, 291 (int32_t)0xfffffffc, (int32_t)0x00000040, (int32_t)0x00000390, (int32_t)0x00000264, (int32_t)0x000019b0, (int32_t)0x00002ef0, (int32_t)0x00001fd4, (int32_t)0x00019dc8, 292 (int32_t)0x00047b1c, (int32_t)0xfffd0be8, (int32_t)0x00008ecc, (int32_t)0xffff8e64, (int32_t)0x00002024, (int32_t)0xfffff2c0, (int32_t)0x000002c0, (int32_t)0xffffff3c, 293 (int32_t)0xfffffff8, (int32_t)0x00000038, (int32_t)0x0000038c, (int32_t)0x000001bc, (int32_t)0x000017fc, (int32_t)0x0000299c, (int32_t)0x000010e8, (int32_t)0x000181d8, 294 (int32_t)0x0004720c, (int32_t)0xfffcf09c, (int32_t)0x000092b4, (int32_t)0xffff894c, (int32_t)0x00001fc0, (int32_t)0xfffff1a4, (int32_t)0x000002a4, (int32_t)0xffffff2c, 295 (int32_t)0xfffffff8, (int32_t)0x00000034, (int32_t)0x00000380, (int32_t)0x00000120, (int32_t)0x00001618, (int32_t)0x00002468, (int32_t)0x00000118, (int32_t)0x00016644, 296 (int32_t)0x000467a4, (int32_t)0xfffcd5cc, (int32_t)0x000095e0, (int32_t)0xffff8468, (int32_t)0x00001f44, (int32_t)0xfffff084, (int32_t)0x00000284, (int32_t)0xffffff18, 297 (int32_t)0xfffffff8, (int32_t)0x0000002c, (int32_t)0x00000374, (int32_t)0x00000090, (int32_t)0x00001400, (int32_t)0x00001f58, (int32_t)0xfffff068, (int32_t)0x00014b14, 298 (int32_t)0x00045bf0, (int32_t)0xfffcbb88, (int32_t)0x00009858, (int32_t)0xffff7fbc, (int32_t)0x00001ea8, (int32_t)0xffffef60, (int32_t)0x00000268, (int32_t)0xffffff04, 299 (int32_t)0xfffffff8, (int32_t)0x00000028, (int32_t)0x0000035c, (int32_t)0x00000008, (int32_t)0x000011ac, (int32_t)0x00001a70, (int32_t)0xffffded8, (int32_t)0x00013058, 300 (int32_t)0x00044ef8, (int32_t)0xfffca1d8, (int32_t)0x00009a1c, (int32_t)0xffff7b54, (int32_t)0x00001dfc, (int32_t)0xffffee3c, (int32_t)0x0000024c, (int32_t)0xfffffef0, 301 (int32_t)0xfffffff4, (int32_t)0x00000024, (int32_t)0x00000340, (int32_t)0xffffff8c, (int32_t)0x00000f28, (int32_t)0x000015b0, (int32_t)0xffffcc70, (int32_t)0x0001161c, 302 (int32_t)0x000440bc, (int32_t)0xfffc88d8, (int32_t)0x00009b3c, (int32_t)0xffff7734, (int32_t)0x00001d38, (int32_t)0xffffed18, (int32_t)0x0000022c, (int32_t)0xfffffedc, 303 (int32_t)0xfffffff4, (int32_t)0x00000020, (int32_t)0x00000320, (int32_t)0xffffff1c, (int32_t)0x00000c68, (int32_t)0x0000111c, (int32_t)0xffffb92c, (int32_t)0x0000fc6c, 304 (int32_t)0x00043150, (int32_t)0xfffc708c, (int32_t)0x00009bb8, (int32_t)0xffff7368, (int32_t)0x00001c64, (int32_t)0xffffebf4, (int32_t)0x00000210, (int32_t)0xfffffec4, 305 (int32_t)0xfffffff0, (int32_t)0x0000001c, (int32_t)0x000002f4, (int32_t)0xfffffeb4, (int32_t)0x00000974, (int32_t)0x00000cb8, (int32_t)0xffffa518, (int32_t)0x0000e350, 306 (int32_t)0x000420b4, (int32_t)0xfffc5908, (int32_t)0x00009b9c, (int32_t)0xffff6ff4, (int32_t)0x00001b7c, (int32_t)0xffffead0, (int32_t)0x000001f4, (int32_t)0xfffffeac, 307 (int32_t)0xfffffff0, (int32_t)0x0000001c, (int32_t)0x000002c4, (int32_t)0xfffffe58, (int32_t)0x00000648, (int32_t)0x00000884, (int32_t)0xffff9038, (int32_t)0x0000cad0, 308 (int32_t)0x00040ef8, (int32_t)0xfffc425c, (int32_t)0x00009af0, (int32_t)0xffff6ce0, (int32_t)0x00001a88, (int32_t)0xffffe9b0, (int32_t)0x000001d4, (int32_t)0xfffffe94, 309 (int32_t)0xffffffec, (int32_t)0x00000018, (int32_t)0x0000028c, (int32_t)0xfffffe04, (int32_t)0x000002e4, (int32_t)0x00000480, (int32_t)0xffff7a90, (int32_t)0x0000b2fc, 310 (int32_t)0x0003fc28, (int32_t)0xfffc2c90, (int32_t)0x000099b8, (int32_t)0xffff6a3c, (int32_t)0x00001988, (int32_t)0xffffe898, (int32_t)0x000001bc, (int32_t)0xfffffe7c, 311 (int32_t)0x000001a0, (int32_t)0x0000187c, (int32_t)0x000097fc, (int32_t)0x0003e84c, (int32_t)0xffff6424, (int32_t)0xffffff4c, (int32_t)0x00000248, (int32_t)0xffffffec, 312 }; 313