1 /* 2 * Copyright (C) 2009 The Android Open Source Project 3 * 4 * Licensed under the Apache License, Version 2.0 (the "License"); 5 * you may not use this file except in compliance with the License. 6 * You may obtain a copy of the License at 7 * 8 * http://www.apache.org/licenses/LICENSE-2.0 9 * 10 * Unless required by applicable law or agreed to in writing, software 11 * distributed under the License is distributed on an "AS IS" BASIS, 12 * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. 13 * See the License for the specific language governing permissions and 14 * limitations under the License. 15 */ 16 17 /*------------------------------------------------------------------------------ 18 19 Table of contents 20 21 1. Include headers 22 2. External compiler flags 23 3. Module defines 24 4. Local function prototypes 25 5. Functions 26 h264bsdFilterPicture 27 FilterVerLumaEdge 28 FilterHorLumaEdge 29 FilterHorLuma 30 FilterVerChromaEdge 31 FilterHorChromaEdge 32 FilterHorChroma 33 InnerBoundaryStrength 34 EdgeBoundaryStrength 35 GetBoundaryStrengths 36 IsSliceBoundaryOnLeft 37 IsSliceBoundaryOnTop 38 GetMbFilteringFlags 39 GetLumaEdgeThresholds 40 GetChromaEdgeThresholds 41 FilterLuma 42 FilterChroma 43 44 ------------------------------------------------------------------------------*/ 45 46 /*------------------------------------------------------------------------------ 47 1. Include headers 48 ------------------------------------------------------------------------------*/ 49 50 #include "basetype.h" 51 #include "h264bsd_util.h" 52 #include "h264bsd_macroblock_layer.h" 53 #include "h264bsd_deblocking.h" 54 #include "h264bsd_dpb.h" 55 56 #ifdef H264DEC_OMXDL 57 #include "omxtypes.h" 58 #include "omxVC.h" 59 #include "armVC.h" 60 #endif /* H264DEC_OMXDL */ 61 62 /*------------------------------------------------------------------------------ 63 2. External compiler flags 64 -------------------------------------------------------------------------------- 65 66 -------------------------------------------------------------------------------- 67 3. Module defines 68 ------------------------------------------------------------------------------*/ 69 70 /* Switch off the following Lint messages for this file: 71 * Info 701: Shift left of signed quantity (int) 72 * Info 702: Shift right of signed quantity (int) 73 */ 74 /*lint -e701 -e702 */ 75 76 /* array of alpha values, from the standard */ 77 static const u8 alphas[52] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,4,4,5,6,7,8,9,10, 78 12,13,15,17,20,22,25,28,32,36,40,45,50,56,63,71,80,90,101,113,127,144,162, 79 182,203,226,255,255}; 80 81 /* array of beta values, from the standard */ 82 static const u8 betas[52] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,2,2,2,3,3,3,3,4,4, 83 4,6,6,7,7,8,8,9,9,10,10,11,11,12,12,13,13,14,14,15,15,16,16,17,17,18,18}; 84 85 86 87 #ifndef H264DEC_OMXDL 88 /* array of tc0 values, from the standard, each triplet corresponds to a 89 * column in the table. Indexing goes as tc0[indexA][bS-1] */ 90 static const u8 tc0[52][3] = { 91 {0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0}, 92 {0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0},{0,0,0}, 93 {0,0,0},{0,0,1},{0,0,1},{0,0,1},{0,0,1},{0,1,1},{0,1,1},{1,1,1}, 94 {1,1,1},{1,1,1},{1,1,1},{1,1,2},{1,1,2},{1,1,2},{1,1,2},{1,2,3}, 95 {1,2,3},{2,2,3},{2,2,4},{2,3,4},{2,3,4},{3,3,5},{3,4,6},{3,4,6}, 96 {4,5,7},{4,5,8},{4,6,9},{5,7,10},{6,8,11},{6,8,13},{7,10,14},{8,11,16}, 97 {9,12,18},{10,13,20},{11,15,23},{13,17,25} 98 }; 99 #else 100 /* array of tc0 values, from the standard, each triplet corresponds to a 101 * column in the table. Indexing goes as tc0[indexA][bS] */ 102 static const u8 tc0[52][5] = { 103 {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, 104 {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, 105 {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, 106 {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, {0, 0, 0, 0, 0}, 107 {0, 0, 0, 0, 0}, {0, 0, 0, 1, 0}, {0, 0, 0, 1, 0}, {0, 0, 0, 1, 0}, 108 {0, 0, 0, 1, 0}, {0, 0, 1, 1, 0}, {0, 0, 1, 1, 0}, {0, 1, 1, 1, 0}, 109 {0, 1, 1, 1, 0}, {0, 1, 1, 1, 0}, {0, 1, 1, 1, 0}, {0, 1, 1, 2, 0}, 110 {0, 1, 1, 2, 0}, {0, 1, 1, 2, 0}, {0, 1, 1, 2, 0}, {0, 1, 2, 3, 0}, 111 {0, 1, 2, 3, 0}, {0, 2, 2, 3, 0}, {0, 2, 2, 4, 0}, {0, 2, 3, 4, 0}, 112 {0, 2, 3, 4, 0}, {0, 3, 3, 5, 0}, {0, 3, 4, 6, 0}, {0, 3, 4, 6, 0}, 113 {0, 4, 5, 7, 0}, {0, 4, 5, 8, 0}, {0, 4, 6, 9, 0}, {0, 5, 7, 10, 0}, 114 {0, 6, 8, 11, 0}, {0, 6, 8, 13, 0}, {0, 7, 10, 14, 0}, 115 {0, 8, 11, 16, 0}, {0, 9, 12, 18, 0}, {0, 10, 13, 20, 0}, 116 {0, 11, 15, 23, 0}, {0, 13, 17, 25, 0} 117 }; 118 #endif 119 120 121 #ifndef H264DEC_OMXDL 122 /* mapping of raster scan block index to 4x4 block index */ 123 static const u32 mb4x4Index[16] = 124 {0, 1, 4, 5, 2, 3, 6, 7, 8, 9, 12, 13, 10, 11, 14, 15}; 125 126 typedef struct { 127 const u8 *tc0; 128 u32 alpha; 129 u32 beta; 130 } edgeThreshold_t; 131 132 typedef struct { 133 u32 top; 134 u32 left; 135 } bS_t; 136 137 enum { TOP = 0, LEFT = 1, INNER = 2 }; 138 #endif /* H264DEC_OMXDL */ 139 140 #define FILTER_LEFT_EDGE 0x04 141 #define FILTER_TOP_EDGE 0x02 142 #define FILTER_INNER_EDGE 0x01 143 144 145 /* clipping table defined in intra_prediction.c */ 146 extern const u8 h264bsdClip[]; 147 148 /*------------------------------------------------------------------------------ 149 4. Local function prototypes 150 ------------------------------------------------------------------------------*/ 151 152 static u32 InnerBoundaryStrength(mbStorage_t *mb1, u32 i1, u32 i2); 153 154 #ifndef H264DEC_OMXDL 155 static u32 EdgeBoundaryStrength(mbStorage_t *mb1, mbStorage_t *mb2, 156 u32 i1, u32 i2); 157 #else 158 static u32 InnerBoundaryStrength2(mbStorage_t *mb1, u32 i1, u32 i2); 159 static u32 EdgeBoundaryStrengthLeft(mbStorage_t *mb1, mbStorage_t *mb2); 160 static u32 EdgeBoundaryStrengthTop(mbStorage_t *mb1, mbStorage_t *mb2); 161 #endif 162 163 static u32 IsSliceBoundaryOnLeft(mbStorage_t *mb); 164 165 static u32 IsSliceBoundaryOnTop(mbStorage_t *mb); 166 167 static u32 GetMbFilteringFlags(mbStorage_t *mb); 168 169 #ifndef H264DEC_OMXDL 170 171 static u32 GetBoundaryStrengths(mbStorage_t *mb, bS_t *bs, u32 flags); 172 173 static void FilterLuma(u8 *data, bS_t *bS, edgeThreshold_t *thresholds, 174 u32 imageWidth); 175 176 static void FilterChroma(u8 *cb, u8 *cr, bS_t *bS, edgeThreshold_t *thresholds, 177 u32 imageWidth); 178 179 static void FilterVerLumaEdge( u8 *data, u32 bS, edgeThreshold_t *thresholds, 180 u32 imageWidth); 181 static void FilterHorLumaEdge( u8 *data, u32 bS, edgeThreshold_t *thresholds, 182 i32 imageWidth); 183 static void FilterHorLuma( u8 *data, u32 bS, edgeThreshold_t *thresholds, 184 i32 imageWidth); 185 186 static void FilterVerChromaEdge( u8 *data, u32 bS, edgeThreshold_t *thresholds, 187 u32 imageWidth); 188 static void FilterHorChromaEdge( u8 *data, u32 bS, edgeThreshold_t *thresholds, 189 i32 imageWidth); 190 static void FilterHorChroma( u8 *data, u32 bS, edgeThreshold_t *thresholds, 191 i32 imageWidth); 192 193 static void GetLumaEdgeThresholds( 194 edgeThreshold_t *thresholds, 195 mbStorage_t *mb, 196 u32 filteringFlags); 197 198 static void GetChromaEdgeThresholds( 199 edgeThreshold_t *thresholds, 200 mbStorage_t *mb, 201 u32 filteringFlags, 202 i32 chromaQpIndexOffset); 203 204 #else /* H264DEC_OMXDL */ 205 206 static u32 GetBoundaryStrengths(mbStorage_t *mb, u8 (*bs)[16], u32 flags); 207 208 static void GetLumaEdgeThresholds( 209 mbStorage_t *mb, 210 u8 (*alpha)[2], 211 u8 (*beta)[2], 212 u8 (*threshold)[16], 213 u8 (*bs)[16], 214 u32 filteringFlags ); 215 216 static void GetChromaEdgeThresholds( 217 mbStorage_t *mb, 218 u8 (*alpha)[2], 219 u8 (*beta)[2], 220 u8 (*threshold)[8], 221 u8 (*bs)[16], 222 u32 filteringFlags, 223 i32 chromaQpIndexOffset); 224 225 #endif /* H264DEC_OMXDL */ 226 227 /*------------------------------------------------------------------------------ 228 229 Function: IsSliceBoundaryOnLeft 230 231 Functional description: 232 Function to determine if there is a slice boundary on the left side 233 of a macroblock. 234 235 ------------------------------------------------------------------------------*/ 236 u32 IsSliceBoundaryOnLeft(mbStorage_t *mb) 237 { 238 239 /* Variables */ 240 241 /* Code */ 242 243 ASSERT(mb && mb->mbA); 244 245 if (mb->sliceId != mb->mbA->sliceId) 246 return(HANTRO_TRUE); 247 else 248 return(HANTRO_FALSE); 249 250 } 251 252 /*------------------------------------------------------------------------------ 253 254 Function: IsSliceBoundaryOnTop 255 256 Functional description: 257 Function to determine if there is a slice boundary above the 258 current macroblock. 259 260 ------------------------------------------------------------------------------*/ 261 u32 IsSliceBoundaryOnTop(mbStorage_t *mb) 262 { 263 264 /* Variables */ 265 266 /* Code */ 267 268 ASSERT(mb && mb->mbB); 269 270 if (mb->sliceId != mb->mbB->sliceId) 271 return(HANTRO_TRUE); 272 else 273 return(HANTRO_FALSE); 274 275 } 276 277 /*------------------------------------------------------------------------------ 278 279 Function: GetMbFilteringFlags 280 281 Functional description: 282 Function to determine which edges of a macroblock has to be 283 filtered. Output is a bit-wise OR of FILTER_LEFT_EDGE, 284 FILTER_TOP_EDGE and FILTER_INNER_EDGE, depending on which edges 285 shall be filtered. 286 287 ------------------------------------------------------------------------------*/ 288 u32 GetMbFilteringFlags(mbStorage_t *mb) 289 { 290 291 /* Variables */ 292 293 u32 flags = 0; 294 295 /* Code */ 296 297 ASSERT(mb); 298 299 /* nothing will be filtered if disableDeblockingFilterIdc == 1 */ 300 if (mb->disableDeblockingFilterIdc != 1) 301 { 302 flags |= FILTER_INNER_EDGE; 303 304 /* filterLeftMbEdgeFlag, left mb is MB_A */ 305 if (mb->mbA && 306 ((mb->disableDeblockingFilterIdc != 2) || 307 !IsSliceBoundaryOnLeft(mb))) 308 flags |= FILTER_LEFT_EDGE; 309 310 /* filterTopMbEdgeFlag */ 311 if (mb->mbB && 312 ((mb->disableDeblockingFilterIdc != 2) || 313 !IsSliceBoundaryOnTop(mb))) 314 flags |= FILTER_TOP_EDGE; 315 } 316 317 return(flags); 318 319 } 320 321 /*------------------------------------------------------------------------------ 322 323 Function: InnerBoundaryStrength 324 325 Functional description: 326 Function to calculate boundary strength value bs for an inner 327 edge of a macroblock. Macroblock type is checked before this is 328 called -> no intra mb condition here. 329 330 ------------------------------------------------------------------------------*/ 331 u32 InnerBoundaryStrength(mbStorage_t *mb1, u32 ind1, u32 ind2) 332 { 333 i32 tmp1, tmp2; 334 i32 mv1, mv2, mv3, mv4; 335 336 tmp1 = mb1->totalCoeff[ind1]; 337 tmp2 = mb1->totalCoeff[ind2]; 338 mv1 = mb1->mv[ind1].hor; 339 mv2 = mb1->mv[ind2].hor; 340 mv3 = mb1->mv[ind1].ver; 341 mv4 = mb1->mv[ind2].ver; 342 343 if (tmp1 || tmp2) 344 { 345 return 2; 346 } 347 else if ( (ABS(mv1 - mv2) >= 4) || (ABS(mv3 - mv4) >= 4) || 348 (mb1->refAddr[ind1 >> 2] != mb1->refAddr[ind2 >> 2]) ) 349 { 350 return 1; 351 } 352 else 353 return 0; 354 } 355 356 /*------------------------------------------------------------------------------ 357 358 Function: InnerBoundaryStrength2 359 360 Functional description: 361 Function to calculate boundary strength value bs for an inner 362 edge of a macroblock. The function is the same as 363 InnerBoundaryStrength but without checking totalCoeff. 364 365 ------------------------------------------------------------------------------*/ 366 u32 InnerBoundaryStrength2(mbStorage_t *mb1, u32 ind1, u32 ind2) 367 { 368 i32 tmp1, tmp2, tmp3, tmp4; 369 370 tmp1 = mb1->mv[ind1].hor; 371 tmp2 = mb1->mv[ind2].hor; 372 tmp3 = mb1->mv[ind1].ver; 373 tmp4 = mb1->mv[ind2].ver; 374 375 if ( (ABS(tmp1 - tmp2) >= 4) || (ABS(tmp3 - tmp4) >= 4) || 376 (mb1->refAddr[ind1 >> 2] != mb1->refAddr[ind2 >> 2])) 377 { 378 return 1; 379 } 380 else 381 return 0; 382 } 383 #ifndef H264DEC_OMXDL 384 /*------------------------------------------------------------------------------ 385 386 Function: EdgeBoundaryStrength 387 388 Functional description: 389 Function to calculate boundary strength value bs for left- or 390 top-most edge of a macroblock. Macroblock types are checked 391 before this is called -> no intra mb conditions here. 392 393 ------------------------------------------------------------------------------*/ 394 u32 EdgeBoundaryStrength(mbStorage_t *mb1, mbStorage_t *mb2, 395 u32 ind1, u32 ind2) 396 { 397 398 if (mb1->totalCoeff[ind1] || mb2->totalCoeff[ind2]) 399 { 400 return 2; 401 } 402 else if ((mb1->refAddr[ind1 >> 2] != mb2->refAddr[ind2 >> 2]) || 403 (ABS(mb1->mv[ind1].hor - mb2->mv[ind2].hor) >= 4) || 404 (ABS(mb1->mv[ind1].ver - mb2->mv[ind2].ver) >= 4)) 405 { 406 return 1; 407 } 408 else 409 return 0; 410 } 411 412 #else /* H264DEC_OMXDL */ 413 414 /*------------------------------------------------------------------------------ 415 416 Function: EdgeBoundaryStrengthTop 417 418 Functional description: 419 Function to calculate boundary strength value bs for 420 top-most edge of a macroblock. Macroblock types are checked 421 before this is called -> no intra mb conditions here. 422 423 ------------------------------------------------------------------------------*/ 424 u32 EdgeBoundaryStrengthTop(mbStorage_t *mb1, mbStorage_t *mb2) 425 { 426 u32 topBs = 0; 427 u32 tmp1, tmp2, tmp3, tmp4; 428 429 tmp1 = mb1->totalCoeff[0]; 430 tmp2 = mb2->totalCoeff[10]; 431 tmp3 = mb1->totalCoeff[1]; 432 tmp4 = mb2->totalCoeff[11]; 433 if (tmp1 || tmp2) 434 { 435 topBs = 2<<0; 436 } 437 else if ((ABS(mb1->mv[0].hor - mb2->mv[10].hor) >= 4) || 438 (ABS(mb1->mv[0].ver - mb2->mv[10].ver) >= 4) || 439 (mb1->refAddr[0] != mb2->refAddr[10 >> 2])) 440 { 441 topBs = 1<<0; 442 } 443 tmp1 = mb1->totalCoeff[4]; 444 tmp2 = mb2->totalCoeff[14]; 445 if (tmp3 || tmp4) 446 { 447 topBs += 2<<8; 448 } 449 else if ((ABS(mb1->mv[1].hor - mb2->mv[11].hor) >= 4) || 450 (ABS(mb1->mv[1].ver - mb2->mv[11].ver) >= 4) || 451 (mb1->refAddr[0] != mb2->refAddr[11 >> 2])) 452 { 453 topBs += 1<<8; 454 } 455 tmp3 = mb1->totalCoeff[5]; 456 tmp4 = mb2->totalCoeff[15]; 457 if (tmp1 || tmp2) 458 { 459 topBs += 2<<16; 460 } 461 else if ((ABS(mb1->mv[4].hor - mb2->mv[14].hor) >= 4) || 462 (ABS(mb1->mv[4].ver - mb2->mv[14].ver) >= 4) || 463 (mb1->refAddr[4 >> 2] != mb2->refAddr[14 >> 2])) 464 { 465 topBs += 1<<16; 466 } 467 if (tmp3 || tmp4) 468 { 469 topBs += 2<<24; 470 } 471 else if ((ABS(mb1->mv[5].hor - mb2->mv[15].hor) >= 4) || 472 (ABS(mb1->mv[5].ver - mb2->mv[15].ver) >= 4) || 473 (mb1->refAddr[5 >> 2] != mb2->refAddr[15 >> 2])) 474 { 475 topBs += 1<<24; 476 } 477 478 return topBs; 479 } 480 481 /*------------------------------------------------------------------------------ 482 483 Function: EdgeBoundaryStrengthLeft 484 485 Functional description: 486 Function to calculate boundary strength value bs for left- 487 edge of a macroblock. Macroblock types are checked 488 before this is called -> no intra mb conditions here. 489 490 ------------------------------------------------------------------------------*/ 491 u32 EdgeBoundaryStrengthLeft(mbStorage_t *mb1, mbStorage_t *mb2) 492 { 493 u32 leftBs = 0; 494 u32 tmp1, tmp2, tmp3, tmp4; 495 496 tmp1 = mb1->totalCoeff[0]; 497 tmp2 = mb2->totalCoeff[5]; 498 tmp3 = mb1->totalCoeff[2]; 499 tmp4 = mb2->totalCoeff[7]; 500 501 if (tmp1 || tmp2) 502 { 503 leftBs = 2<<0; 504 } 505 else if ((ABS(mb1->mv[0].hor - mb2->mv[5].hor) >= 4) || 506 (ABS(mb1->mv[0].ver - mb2->mv[5].ver) >= 4) || 507 (mb1->refAddr[0] != mb2->refAddr[5 >> 2])) 508 { 509 leftBs = 1<<0; 510 } 511 tmp1 = mb1->totalCoeff[8]; 512 tmp2 = mb2->totalCoeff[13]; 513 if (tmp3 || tmp4) 514 { 515 leftBs += 2<<8; 516 } 517 else if ((ABS(mb1->mv[2].hor - mb2->mv[7].hor) >= 4) || 518 (ABS(mb1->mv[2].ver - mb2->mv[7].ver) >= 4) || 519 (mb1->refAddr[0] != mb2->refAddr[7 >> 2])) 520 { 521 leftBs += 1<<8; 522 } 523 tmp3 = mb1->totalCoeff[10]; 524 tmp4 = mb2->totalCoeff[15]; 525 if (tmp1 || tmp2) 526 { 527 leftBs += 2<<16; 528 } 529 else if ((ABS(mb1->mv[8].hor - mb2->mv[13].hor) >= 4) || 530 (ABS(mb1->mv[8].ver - mb2->mv[13].ver) >= 4) || 531 (mb1->refAddr[8 >> 2] != mb2->refAddr[13 >> 2])) 532 { 533 leftBs += 1<<16; 534 } 535 if (tmp3 || tmp4) 536 { 537 leftBs += 2<<24; 538 } 539 else if ((ABS(mb1->mv[10].hor - mb2->mv[15].hor) >= 4) || 540 (ABS(mb1->mv[10].ver - mb2->mv[15].ver) >= 4) || 541 (mb1->refAddr[10 >> 2] != mb2->refAddr[15 >> 2])) 542 { 543 leftBs += 1<<24; 544 } 545 546 return leftBs; 547 } 548 #endif /* H264DEC_OMXDL */ 549 /*------------------------------------------------------------------------------ 550 551 Function: h264bsdFilterPicture 552 553 Functional description: 554 Perform deblocking filtering for a picture. Filter does not copy 555 the original picture anywhere but filtering is performed directly 556 on the original image. Parameters controlling the filtering process 557 are computed based on information in macroblock structures of the 558 filtered macroblock, macroblock above and macroblock on the left of 559 the filtered one. 560 561 Inputs: 562 image pointer to image to be filtered 563 mb pointer to macroblock data structure of the top-left 564 macroblock of the picture 565 566 Outputs: 567 image filtered image stored here 568 569 Returns: 570 none 571 572 ------------------------------------------------------------------------------*/ 573 #ifndef H264DEC_OMXDL 574 void h264bsdFilterPicture( 575 image_t *image, 576 mbStorage_t *mb) 577 { 578 579 /* Variables */ 580 581 u32 flags; 582 u32 picSizeInMbs, mbRow, mbCol; 583 u32 picWidthInMbs; 584 u8 *data; 585 mbStorage_t *pMb; 586 bS_t bS[16]; 587 edgeThreshold_t thresholds[3]; 588 589 /* Code */ 590 591 ASSERT(image); 592 ASSERT(mb); 593 ASSERT(image->data); 594 ASSERT(image->width); 595 ASSERT(image->height); 596 597 picWidthInMbs = image->width; 598 data = image->data; 599 picSizeInMbs = picWidthInMbs * image->height; 600 601 pMb = mb; 602 603 for (mbRow = 0, mbCol = 0; mbRow < image->height; pMb++) 604 { 605 flags = GetMbFilteringFlags(pMb); 606 607 if (flags) 608 { 609 /* GetBoundaryStrengths function returns non-zero value if any of 610 * the bS values for the macroblock being processed was non-zero */ 611 if (GetBoundaryStrengths(pMb, bS, flags)) 612 { 613 /* luma */ 614 GetLumaEdgeThresholds(thresholds, pMb, flags); 615 data = image->data + mbRow * picWidthInMbs * 256 + mbCol * 16; 616 617 FilterLuma((u8*)data, bS, thresholds, picWidthInMbs*16); 618 619 /* chroma */ 620 GetChromaEdgeThresholds(thresholds, pMb, flags, 621 pMb->chromaQpIndexOffset); 622 data = image->data + picSizeInMbs * 256 + 623 mbRow * picWidthInMbs * 64 + mbCol * 8; 624 625 FilterChroma((u8*)data, data + 64*picSizeInMbs, bS, 626 thresholds, picWidthInMbs*8); 627 628 } 629 } 630 631 mbCol++; 632 if (mbCol == picWidthInMbs) 633 { 634 mbCol = 0; 635 mbRow++; 636 } 637 } 638 639 } 640 641 /*------------------------------------------------------------------------------ 642 643 Function: FilterVerLumaEdge 644 645 Functional description: 646 Filter one vertical 4-pixel luma edge. 647 648 ------------------------------------------------------------------------------*/ 649 void FilterVerLumaEdge( 650 u8 *data, 651 u32 bS, 652 edgeThreshold_t *thresholds, 653 u32 imageWidth) 654 { 655 656 /* Variables */ 657 658 i32 delta, tc, tmp; 659 u32 i; 660 u8 p0, q0, p1, q1, p2, q2; 661 u32 tmpFlag; 662 const u8 *clp = h264bsdClip + 512; 663 664 /* Code */ 665 666 ASSERT(data); 667 ASSERT(bS && bS <= 4); 668 ASSERT(thresholds); 669 670 if (bS < 4) 671 { 672 tc = thresholds->tc0[bS-1]; 673 tmp = tc; 674 for (i = 4; i; i--, data += imageWidth) 675 { 676 p1 = data[-2]; p0 = data[-1]; 677 q0 = data[0]; q1 = data[1]; 678 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 679 ((unsigned)ABS(p1-p0) < thresholds->beta) && 680 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 681 { 682 p2 = data[-3]; 683 q2 = data[2]; 684 685 if ((unsigned)ABS(p2-p0) < thresholds->beta) 686 { 687 data[-2] = (u8)(p1 + CLIP3(-tc,tc, 688 (p2 + ((p0 + q0 + 1) >> 1) - (p1 << 1)) >> 1)); 689 tmp++; 690 } 691 692 if ((unsigned)ABS(q2-q0) < thresholds->beta) 693 { 694 data[1] = (u8)(q1 + CLIP3(-tc,tc, 695 (q2 + ((p0 + q0 + 1) >> 1) - (q1 << 1)) >> 1)); 696 tmp++; 697 } 698 699 delta = CLIP3(-tmp, tmp, ((((q0 - p0) << 2) + 700 (p1 - q1) + 4) >> 3)); 701 702 p0 = clp[p0 + delta]; 703 q0 = clp[q0 - delta]; 704 tmp = tc; 705 data[-1] = p0; 706 data[ 0] = q0; 707 } 708 } 709 } 710 else 711 { 712 for (i = 4; i; i--, data += imageWidth) 713 { 714 p1 = data[-2]; p0 = data[-1]; 715 q0 = data[0]; q1 = data[1]; 716 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 717 ((unsigned)ABS(p1-p0) < thresholds->beta) && 718 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 719 { 720 tmpFlag = 721 ((unsigned)ABS(p0-q0) < ((thresholds->alpha >> 2) +2)) ? 722 HANTRO_TRUE : HANTRO_FALSE; 723 724 p2 = data[-3]; 725 q2 = data[2]; 726 727 if (tmpFlag && (unsigned)ABS(p2-p0) < thresholds->beta) 728 { 729 tmp = p1 + p0 + q0; 730 data[-1] = (u8)((p2 + 2 * tmp + q1 + 4) >> 3); 731 data[-2] = (u8)((p2 + tmp + 2) >> 2); 732 data[-3] = (u8)((2 * data[-4] + 3 * p2 + tmp + 4) >> 3); 733 } 734 else 735 data[-1] = (2 * p1 + p0 + q1 + 2) >> 2; 736 737 if (tmpFlag && (unsigned)ABS(q2-q0) < thresholds->beta) 738 { 739 tmp = p0 + q0 + q1; 740 data[0] = (u8)((p1 + 2 * tmp + q2 + 4) >> 3); 741 data[1] = (u8)((tmp + q2 + 2) >> 2); 742 data[2] = (u8)((2 * data[3] + 3 * q2 + tmp + 4) >> 3); 743 } 744 else 745 data[0] = (u8)((2 * q1 + q0 + p1 + 2) >> 2); 746 } 747 } 748 } 749 750 } 751 752 /*------------------------------------------------------------------------------ 753 754 Function: FilterHorLumaEdge 755 756 Functional description: 757 Filter one horizontal 4-pixel luma edge 758 759 ------------------------------------------------------------------------------*/ 760 void FilterHorLumaEdge( 761 u8 *data, 762 u32 bS, 763 edgeThreshold_t *thresholds, 764 i32 imageWidth) 765 { 766 767 /* Variables */ 768 769 i32 delta, tc, tmp; 770 u32 i; 771 u8 p0, q0, p1, q1, p2, q2; 772 const u8 *clp = h264bsdClip + 512; 773 774 /* Code */ 775 776 ASSERT(data); 777 ASSERT(bS < 4); 778 ASSERT(thresholds); 779 780 tc = thresholds->tc0[bS-1]; 781 tmp = tc; 782 for (i = 4; i; i--, data++) 783 { 784 p1 = data[-imageWidth*2]; p0 = data[-imageWidth]; 785 q0 = data[0]; q1 = data[imageWidth]; 786 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 787 ((unsigned)ABS(p1-p0) < thresholds->beta) && 788 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 789 { 790 p2 = data[-imageWidth*3]; 791 792 if ((unsigned)ABS(p2-p0) < thresholds->beta) 793 { 794 data[-imageWidth*2] = (u8)(p1 + CLIP3(-tc,tc, 795 (p2 + ((p0 + q0 + 1) >> 1) - (p1 << 1)) >> 1)); 796 tmp++; 797 } 798 799 q2 = data[imageWidth*2]; 800 801 if ((unsigned)ABS(q2-q0) < thresholds->beta) 802 { 803 data[imageWidth] = (u8)(q1 + CLIP3(-tc,tc, 804 (q2 + ((p0 + q0 + 1) >> 1) - (q1 << 1)) >> 1)); 805 tmp++; 806 } 807 808 delta = CLIP3(-tmp, tmp, ((((q0 - p0) << 2) + 809 (p1 - q1) + 4) >> 3)); 810 811 p0 = clp[p0 + delta]; 812 q0 = clp[q0 - delta]; 813 tmp = tc; 814 data[-imageWidth] = p0; 815 data[ 0] = q0; 816 } 817 } 818 } 819 820 /*------------------------------------------------------------------------------ 821 822 Function: FilterHorLuma 823 824 Functional description: 825 Filter all four successive horizontal 4-pixel luma edges. This can 826 be done when bS is equal to all four edges. 827 828 ------------------------------------------------------------------------------*/ 829 void FilterHorLuma( 830 u8 *data, 831 u32 bS, 832 edgeThreshold_t *thresholds, 833 i32 imageWidth) 834 { 835 836 /* Variables */ 837 838 i32 delta, tc, tmp; 839 u32 i; 840 u8 p0, q0, p1, q1, p2, q2; 841 u32 tmpFlag; 842 const u8 *clp = h264bsdClip + 512; 843 844 /* Code */ 845 846 ASSERT(data); 847 ASSERT(bS <= 4); 848 ASSERT(thresholds); 849 850 if (bS < 4) 851 { 852 tc = thresholds->tc0[bS-1]; 853 tmp = tc; 854 for (i = 16; i; i--, data++) 855 { 856 p1 = data[-imageWidth*2]; p0 = data[-imageWidth]; 857 q0 = data[0]; q1 = data[imageWidth]; 858 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 859 ((unsigned)ABS(p1-p0) < thresholds->beta) && 860 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 861 { 862 p2 = data[-imageWidth*3]; 863 864 if ((unsigned)ABS(p2-p0) < thresholds->beta) 865 { 866 data[-imageWidth*2] = (u8)(p1 + CLIP3(-tc,tc, 867 (p2 + ((p0 + q0 + 1) >> 1) - (p1 << 1)) >> 1)); 868 tmp++; 869 } 870 871 q2 = data[imageWidth*2]; 872 873 if ((unsigned)ABS(q2-q0) < thresholds->beta) 874 { 875 data[imageWidth] = (u8)(q1 + CLIP3(-tc,tc, 876 (q2 + ((p0 + q0 + 1) >> 1) - (q1 << 1)) >> 1)); 877 tmp++; 878 } 879 880 delta = CLIP3(-tmp, tmp, ((((q0 - p0) << 2) + 881 (p1 - q1) + 4) >> 3)); 882 883 p0 = clp[p0 + delta]; 884 q0 = clp[q0 - delta]; 885 tmp = tc; 886 data[-imageWidth] = p0; 887 data[ 0] = q0; 888 } 889 } 890 } 891 else 892 { 893 for (i = 16; i; i--, data++) 894 { 895 p1 = data[-imageWidth*2]; p0 = data[-imageWidth]; 896 q0 = data[0]; q1 = data[imageWidth]; 897 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 898 ((unsigned)ABS(p1-p0) < thresholds->beta) && 899 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 900 { 901 tmpFlag = ((unsigned)ABS(p0-q0) < ((thresholds->alpha >> 2) +2)) 902 ? HANTRO_TRUE : HANTRO_FALSE; 903 904 p2 = data[-imageWidth*3]; 905 q2 = data[imageWidth*2]; 906 907 if (tmpFlag && (unsigned)ABS(p2-p0) < thresholds->beta) 908 { 909 tmp = p1 + p0 + q0; 910 data[-imageWidth] = (u8)((p2 + 2 * tmp + q1 + 4) >> 3); 911 data[-imageWidth*2] = (u8)((p2 + tmp + 2) >> 2); 912 data[-imageWidth*3] = (u8)((2 * data[-imageWidth*4] + 913 3 * p2 + tmp + 4) >> 3); 914 } 915 else 916 data[-imageWidth] = (u8)((2 * p1 + p0 + q1 + 2) >> 2); 917 918 if (tmpFlag && (unsigned)ABS(q2-q0) < thresholds->beta) 919 { 920 tmp = p0 + q0 + q1; 921 data[ 0] = (u8)((p1 + 2 * tmp + q2 + 4) >> 3); 922 data[imageWidth] = (u8)((tmp + q2 + 2) >> 2); 923 data[imageWidth*2] = (u8)((2 * data[imageWidth*3] + 924 3 * q2 + tmp + 4) >> 3); 925 } 926 else 927 data[0] = (2 * q1 + q0 + p1 + 2) >> 2; 928 } 929 } 930 } 931 932 } 933 934 /*------------------------------------------------------------------------------ 935 936 Function: FilterVerChromaEdge 937 938 Functional description: 939 Filter one vertical 2-pixel chroma edge 940 941 ------------------------------------------------------------------------------*/ 942 void FilterVerChromaEdge( 943 u8 *data, 944 u32 bS, 945 edgeThreshold_t *thresholds, 946 u32 width) 947 { 948 949 /* Variables */ 950 951 i32 delta, tc; 952 u8 p0, q0, p1, q1; 953 const u8 *clp = h264bsdClip + 512; 954 955 /* Code */ 956 957 ASSERT(data); 958 ASSERT(bS <= 4); 959 ASSERT(thresholds); 960 961 p1 = data[-2]; p0 = data[-1]; 962 q0 = data[0]; q1 = data[1]; 963 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 964 ((unsigned)ABS(p1-p0) < thresholds->beta) && 965 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 966 { 967 if (bS < 4) 968 { 969 tc = thresholds->tc0[bS-1] + 1; 970 delta = CLIP3(-tc, tc, ((((q0 - p0) << 2) + 971 (p1 - q1) + 4) >> 3)); 972 p0 = clp[p0 + delta]; 973 q0 = clp[q0 - delta]; 974 data[-1] = p0; 975 data[ 0] = q0; 976 } 977 else 978 { 979 data[-1] = (2 * p1 + p0 + q1 + 2) >> 2; 980 data[ 0] = (2 * q1 + q0 + p1 + 2) >> 2; 981 } 982 } 983 data += width; 984 p1 = data[-2]; p0 = data[-1]; 985 q0 = data[0]; q1 = data[1]; 986 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 987 ((unsigned)ABS(p1-p0) < thresholds->beta) && 988 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 989 { 990 if (bS < 4) 991 { 992 tc = thresholds->tc0[bS-1] + 1; 993 delta = CLIP3(-tc, tc, ((((q0 - p0) << 2) + 994 (p1 - q1) + 4) >> 3)); 995 p0 = clp[p0 + delta]; 996 q0 = clp[q0 - delta]; 997 data[-1] = p0; 998 data[ 0] = q0; 999 } 1000 else 1001 { 1002 data[-1] = (2 * p1 + p0 + q1 + 2) >> 2; 1003 data[ 0] = (2 * q1 + q0 + p1 + 2) >> 2; 1004 } 1005 } 1006 1007 } 1008 1009 /*------------------------------------------------------------------------------ 1010 1011 Function: FilterHorChromaEdge 1012 1013 Functional description: 1014 Filter one horizontal 2-pixel chroma edge 1015 1016 ------------------------------------------------------------------------------*/ 1017 void FilterHorChromaEdge( 1018 u8 *data, 1019 u32 bS, 1020 edgeThreshold_t *thresholds, 1021 i32 width) 1022 { 1023 1024 /* Variables */ 1025 1026 i32 delta, tc; 1027 u32 i; 1028 u8 p0, q0, p1, q1; 1029 const u8 *clp = h264bsdClip + 512; 1030 1031 /* Code */ 1032 1033 ASSERT(data); 1034 ASSERT(bS < 4); 1035 ASSERT(thresholds); 1036 1037 tc = thresholds->tc0[bS-1] + 1; 1038 for (i = 2; i; i--, data++) 1039 { 1040 p1 = data[-width*2]; p0 = data[-width]; 1041 q0 = data[0]; q1 = data[width]; 1042 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 1043 ((unsigned)ABS(p1-p0) < thresholds->beta) && 1044 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 1045 { 1046 delta = CLIP3(-tc, tc, ((((q0 - p0) << 2) + 1047 (p1 - q1) + 4) >> 3)); 1048 p0 = clp[p0 + delta]; 1049 q0 = clp[q0 - delta]; 1050 data[-width] = p0; 1051 data[ 0] = q0; 1052 } 1053 } 1054 } 1055 1056 /*------------------------------------------------------------------------------ 1057 1058 Function: FilterHorChroma 1059 1060 Functional description: 1061 Filter all four successive horizontal 2-pixel chroma edges. This 1062 can be done if bS is equal for all four edges. 1063 1064 ------------------------------------------------------------------------------*/ 1065 void FilterHorChroma( 1066 u8 *data, 1067 u32 bS, 1068 edgeThreshold_t *thresholds, 1069 i32 width) 1070 { 1071 1072 /* Variables */ 1073 1074 i32 delta, tc; 1075 u32 i; 1076 u8 p0, q0, p1, q1; 1077 const u8 *clp = h264bsdClip + 512; 1078 1079 /* Code */ 1080 1081 ASSERT(data); 1082 ASSERT(bS <= 4); 1083 ASSERT(thresholds); 1084 1085 if (bS < 4) 1086 { 1087 tc = thresholds->tc0[bS-1] + 1; 1088 for (i = 8; i; i--, data++) 1089 { 1090 p1 = data[-width*2]; p0 = data[-width]; 1091 q0 = data[0]; q1 = data[width]; 1092 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 1093 ((unsigned)ABS(p1-p0) < thresholds->beta) && 1094 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 1095 { 1096 delta = CLIP3(-tc, tc, ((((q0 - p0) << 2) + 1097 (p1 - q1) + 4) >> 3)); 1098 p0 = clp[p0 + delta]; 1099 q0 = clp[q0 - delta]; 1100 data[-width] = p0; 1101 data[ 0] = q0; 1102 } 1103 } 1104 } 1105 else 1106 { 1107 for (i = 8; i; i--, data++) 1108 { 1109 p1 = data[-width*2]; p0 = data[-width]; 1110 q0 = data[0]; q1 = data[width]; 1111 if ( ((unsigned)ABS(p0-q0) < thresholds->alpha) && 1112 ((unsigned)ABS(p1-p0) < thresholds->beta) && 1113 ((unsigned)ABS(q1-q0) < thresholds->beta) ) 1114 { 1115 data[-width] = (2 * p1 + p0 + q1 + 2) >> 2; 1116 data[ 0] = (2 * q1 + q0 + p1 + 2) >> 2; 1117 } 1118 } 1119 } 1120 1121 } 1122 1123 1124 /*------------------------------------------------------------------------------ 1125 1126 Function: GetBoundaryStrengths 1127 1128 Functional description: 1129 Function to calculate boundary strengths for all edges of a 1130 macroblock. Function returns HANTRO_TRUE if any of the bS values for 1131 the macroblock had non-zero value, HANTRO_FALSE otherwise. 1132 1133 ------------------------------------------------------------------------------*/ 1134 u32 GetBoundaryStrengths(mbStorage_t *mb, bS_t *bS, u32 flags) 1135 { 1136 1137 /* Variables */ 1138 1139 /* this flag is set HANTRO_TRUE as soon as any boundary strength value is 1140 * non-zero */ 1141 u32 nonZeroBs = HANTRO_FALSE; 1142 1143 /* Code */ 1144 1145 ASSERT(mb); 1146 ASSERT(bS); 1147 ASSERT(flags); 1148 1149 /* top edges */ 1150 if (flags & FILTER_TOP_EDGE) 1151 { 1152 if (IS_INTRA_MB(*mb) || IS_INTRA_MB(*mb->mbB)) 1153 { 1154 bS[0].top = bS[1].top = bS[2].top = bS[3].top = 4; 1155 nonZeroBs = HANTRO_TRUE; 1156 } 1157 else 1158 { 1159 bS[0].top = EdgeBoundaryStrength(mb, mb->mbB, 0, 10); 1160 bS[1].top = EdgeBoundaryStrength(mb, mb->mbB, 1, 11); 1161 bS[2].top = EdgeBoundaryStrength(mb, mb->mbB, 4, 14); 1162 bS[3].top = EdgeBoundaryStrength(mb, mb->mbB, 5, 15); 1163 if (bS[0].top || bS[1].top || bS[2].top || bS[3].top) 1164 nonZeroBs = HANTRO_TRUE; 1165 } 1166 } 1167 else 1168 { 1169 bS[0].top = bS[1].top = bS[2].top = bS[3].top = 0; 1170 } 1171 1172 /* left edges */ 1173 if (flags & FILTER_LEFT_EDGE) 1174 { 1175 if (IS_INTRA_MB(*mb) || IS_INTRA_MB(*mb->mbA)) 1176 { 1177 bS[0].left = bS[4].left = bS[8].left = bS[12].left = 4; 1178 nonZeroBs = HANTRO_TRUE; 1179 } 1180 else 1181 { 1182 bS[0].left = EdgeBoundaryStrength(mb, mb->mbA, 0, 5); 1183 bS[4].left = EdgeBoundaryStrength(mb, mb->mbA, 2, 7); 1184 bS[8].left = EdgeBoundaryStrength(mb, mb->mbA, 8, 13); 1185 bS[12].left = EdgeBoundaryStrength(mb, mb->mbA, 10, 15); 1186 if (!nonZeroBs && 1187 (bS[0].left || bS[4].left || bS[8].left || bS[12].left)) 1188 nonZeroBs = HANTRO_TRUE; 1189 } 1190 } 1191 else 1192 { 1193 bS[0].left = bS[4].left = bS[8].left = bS[12].left = 0; 1194 } 1195 1196 /* inner edges */ 1197 if (IS_INTRA_MB(*mb)) 1198 { 1199 bS[4].top = bS[5].top = bS[6].top = bS[7].top = 1200 bS[8].top = bS[9].top = bS[10].top = bS[11].top = 1201 bS[12].top = bS[13].top = bS[14].top = bS[15].top = 3; 1202 1203 bS[1].left = bS[2].left = bS[3].left = 1204 bS[5].left = bS[6].left = bS[7].left = 1205 bS[9].left = bS[10].left = bS[11].left = 1206 bS[13].left = bS[14].left = bS[15].left = 3; 1207 nonZeroBs = HANTRO_TRUE; 1208 } 1209 else 1210 { 1211 /* 16x16 inter mb -> ref addresses or motion vectors cannot differ, 1212 * only check if either of the blocks contain coefficients */ 1213 if (h264bsdNumMbPart(mb->mbType) == 1) 1214 { 1215 bS[4].top = mb->totalCoeff[2] || mb->totalCoeff[0] ? 2 : 0; 1216 bS[5].top = mb->totalCoeff[3] || mb->totalCoeff[1] ? 2 : 0; 1217 bS[6].top = mb->totalCoeff[6] || mb->totalCoeff[4] ? 2 : 0; 1218 bS[7].top = mb->totalCoeff[7] || mb->totalCoeff[5] ? 2 : 0; 1219 bS[8].top = mb->totalCoeff[8] || mb->totalCoeff[2] ? 2 : 0; 1220 bS[9].top = mb->totalCoeff[9] || mb->totalCoeff[3] ? 2 : 0; 1221 bS[10].top = mb->totalCoeff[12] || mb->totalCoeff[6] ? 2 : 0; 1222 bS[11].top = mb->totalCoeff[13] || mb->totalCoeff[7] ? 2 : 0; 1223 bS[12].top = mb->totalCoeff[10] || mb->totalCoeff[8] ? 2 : 0; 1224 bS[13].top = mb->totalCoeff[11] || mb->totalCoeff[9] ? 2 : 0; 1225 bS[14].top = mb->totalCoeff[14] || mb->totalCoeff[12] ? 2 : 0; 1226 bS[15].top = mb->totalCoeff[15] || mb->totalCoeff[13] ? 2 : 0; 1227 1228 bS[1].left = mb->totalCoeff[1] || mb->totalCoeff[0] ? 2 : 0; 1229 bS[2].left = mb->totalCoeff[4] || mb->totalCoeff[1] ? 2 : 0; 1230 bS[3].left = mb->totalCoeff[5] || mb->totalCoeff[4] ? 2 : 0; 1231 bS[5].left = mb->totalCoeff[3] || mb->totalCoeff[2] ? 2 : 0; 1232 bS[6].left = mb->totalCoeff[6] || mb->totalCoeff[3] ? 2 : 0; 1233 bS[7].left = mb->totalCoeff[7] || mb->totalCoeff[6] ? 2 : 0; 1234 bS[9].left = mb->totalCoeff[9] || mb->totalCoeff[8] ? 2 : 0; 1235 bS[10].left = mb->totalCoeff[12] || mb->totalCoeff[9] ? 2 : 0; 1236 bS[11].left = mb->totalCoeff[13] || mb->totalCoeff[12] ? 2 : 0; 1237 bS[13].left = mb->totalCoeff[11] || mb->totalCoeff[10] ? 2 : 0; 1238 bS[14].left = mb->totalCoeff[14] || mb->totalCoeff[11] ? 2 : 0; 1239 bS[15].left = mb->totalCoeff[15] || mb->totalCoeff[14] ? 2 : 0; 1240 } 1241 /* 16x8 inter mb -> ref addresses and motion vectors can be different 1242 * only for the middle horizontal edge, for the other top edges it is 1243 * enough to check whether the blocks contain coefficients or not. The 1244 * same applies to all internal left edges. */ 1245 else if (mb->mbType == P_L0_L0_16x8) 1246 { 1247 bS[4].top = mb->totalCoeff[2] || mb->totalCoeff[0] ? 2 : 0; 1248 bS[5].top = mb->totalCoeff[3] || mb->totalCoeff[1] ? 2 : 0; 1249 bS[6].top = mb->totalCoeff[6] || mb->totalCoeff[4] ? 2 : 0; 1250 bS[7].top = mb->totalCoeff[7] || mb->totalCoeff[5] ? 2 : 0; 1251 bS[12].top = mb->totalCoeff[10] || mb->totalCoeff[8] ? 2 : 0; 1252 bS[13].top = mb->totalCoeff[11] || mb->totalCoeff[9] ? 2 : 0; 1253 bS[14].top = mb->totalCoeff[14] || mb->totalCoeff[12] ? 2 : 0; 1254 bS[15].top = mb->totalCoeff[15] || mb->totalCoeff[13] ? 2 : 0; 1255 bS[8].top = InnerBoundaryStrength(mb, 8, 2); 1256 bS[9].top = InnerBoundaryStrength(mb, 9, 3); 1257 bS[10].top = InnerBoundaryStrength(mb, 12, 6); 1258 bS[11].top = InnerBoundaryStrength(mb, 13, 7); 1259 1260 bS[1].left = mb->totalCoeff[1] || mb->totalCoeff[0] ? 2 : 0; 1261 bS[2].left = mb->totalCoeff[4] || mb->totalCoeff[1] ? 2 : 0; 1262 bS[3].left = mb->totalCoeff[5] || mb->totalCoeff[4] ? 2 : 0; 1263 bS[5].left = mb->totalCoeff[3] || mb->totalCoeff[2] ? 2 : 0; 1264 bS[6].left = mb->totalCoeff[6] || mb->totalCoeff[3] ? 2 : 0; 1265 bS[7].left = mb->totalCoeff[7] || mb->totalCoeff[6] ? 2 : 0; 1266 bS[9].left = mb->totalCoeff[9] || mb->totalCoeff[8] ? 2 : 0; 1267 bS[10].left = mb->totalCoeff[12] || mb->totalCoeff[9] ? 2 : 0; 1268 bS[11].left = mb->totalCoeff[13] || mb->totalCoeff[12] ? 2 : 0; 1269 bS[13].left = mb->totalCoeff[11] || mb->totalCoeff[10] ? 2 : 0; 1270 bS[14].left = mb->totalCoeff[14] || mb->totalCoeff[11] ? 2 : 0; 1271 bS[15].left = mb->totalCoeff[15] || mb->totalCoeff[14] ? 2 : 0; 1272 } 1273 /* 8x16 inter mb -> ref addresses and motion vectors can be different 1274 * only for the middle vertical edge, for the other left edges it is 1275 * enough to check whether the blocks contain coefficients or not. The 1276 * same applies to all internal top edges. */ 1277 else if (mb->mbType == P_L0_L0_8x16) 1278 { 1279 bS[4].top = mb->totalCoeff[2] || mb->totalCoeff[0] ? 2 : 0; 1280 bS[5].top = mb->totalCoeff[3] || mb->totalCoeff[1] ? 2 : 0; 1281 bS[6].top = mb->totalCoeff[6] || mb->totalCoeff[4] ? 2 : 0; 1282 bS[7].top = mb->totalCoeff[7] || mb->totalCoeff[5] ? 2 : 0; 1283 bS[8].top = mb->totalCoeff[8] || mb->totalCoeff[2] ? 2 : 0; 1284 bS[9].top = mb->totalCoeff[9] || mb->totalCoeff[3] ? 2 : 0; 1285 bS[10].top = mb->totalCoeff[12] || mb->totalCoeff[6] ? 2 : 0; 1286 bS[11].top = mb->totalCoeff[13] || mb->totalCoeff[7] ? 2 : 0; 1287 bS[12].top = mb->totalCoeff[10] || mb->totalCoeff[8] ? 2 : 0; 1288 bS[13].top = mb->totalCoeff[11] || mb->totalCoeff[9] ? 2 : 0; 1289 bS[14].top = mb->totalCoeff[14] || mb->totalCoeff[12] ? 2 : 0; 1290 bS[15].top = mb->totalCoeff[15] || mb->totalCoeff[13] ? 2 : 0; 1291 1292 bS[1].left = mb->totalCoeff[1] || mb->totalCoeff[0] ? 2 : 0; 1293 bS[3].left = mb->totalCoeff[5] || mb->totalCoeff[4] ? 2 : 0; 1294 bS[5].left = mb->totalCoeff[3] || mb->totalCoeff[2] ? 2 : 0; 1295 bS[7].left = mb->totalCoeff[7] || mb->totalCoeff[6] ? 2 : 0; 1296 bS[9].left = mb->totalCoeff[9] || mb->totalCoeff[8] ? 2 : 0; 1297 bS[11].left = mb->totalCoeff[13] || mb->totalCoeff[12] ? 2 : 0; 1298 bS[13].left = mb->totalCoeff[11] || mb->totalCoeff[10] ? 2 : 0; 1299 bS[15].left = mb->totalCoeff[15] || mb->totalCoeff[14] ? 2 : 0; 1300 bS[2].left = InnerBoundaryStrength(mb, 4, 1); 1301 bS[6].left = InnerBoundaryStrength(mb, 6, 3); 1302 bS[10].left = InnerBoundaryStrength(mb, 12, 9); 1303 bS[14].left = InnerBoundaryStrength(mb, 14, 11); 1304 } 1305 else 1306 { 1307 bS[4].top = 1308 InnerBoundaryStrength(mb, mb4x4Index[4], mb4x4Index[0]); 1309 bS[5].top = 1310 InnerBoundaryStrength(mb, mb4x4Index[5], mb4x4Index[1]); 1311 bS[6].top = 1312 InnerBoundaryStrength(mb, mb4x4Index[6], mb4x4Index[2]); 1313 bS[7].top = 1314 InnerBoundaryStrength(mb, mb4x4Index[7], mb4x4Index[3]); 1315 bS[8].top = 1316 InnerBoundaryStrength(mb, mb4x4Index[8], mb4x4Index[4]); 1317 bS[9].top = 1318 InnerBoundaryStrength(mb, mb4x4Index[9], mb4x4Index[5]); 1319 bS[10].top = 1320 InnerBoundaryStrength(mb, mb4x4Index[10], mb4x4Index[6]); 1321 bS[11].top = 1322 InnerBoundaryStrength(mb, mb4x4Index[11], mb4x4Index[7]); 1323 bS[12].top = 1324 InnerBoundaryStrength(mb, mb4x4Index[12], mb4x4Index[8]); 1325 bS[13].top = 1326 InnerBoundaryStrength(mb, mb4x4Index[13], mb4x4Index[9]); 1327 bS[14].top = 1328 InnerBoundaryStrength(mb, mb4x4Index[14], mb4x4Index[10]); 1329 bS[15].top = 1330 InnerBoundaryStrength(mb, mb4x4Index[15], mb4x4Index[11]); 1331 1332 bS[1].left = 1333 InnerBoundaryStrength(mb, mb4x4Index[1], mb4x4Index[0]); 1334 bS[2].left = 1335 InnerBoundaryStrength(mb, mb4x4Index[2], mb4x4Index[1]); 1336 bS[3].left = 1337 InnerBoundaryStrength(mb, mb4x4Index[3], mb4x4Index[2]); 1338 bS[5].left = 1339 InnerBoundaryStrength(mb, mb4x4Index[5], mb4x4Index[4]); 1340 bS[6].left = 1341 InnerBoundaryStrength(mb, mb4x4Index[6], mb4x4Index[5]); 1342 bS[7].left = 1343 InnerBoundaryStrength(mb, mb4x4Index[7], mb4x4Index[6]); 1344 bS[9].left = 1345 InnerBoundaryStrength(mb, mb4x4Index[9], mb4x4Index[8]); 1346 bS[10].left = 1347 InnerBoundaryStrength(mb, mb4x4Index[10], mb4x4Index[9]); 1348 bS[11].left = 1349 InnerBoundaryStrength(mb, mb4x4Index[11], mb4x4Index[10]); 1350 bS[13].left = 1351 InnerBoundaryStrength(mb, mb4x4Index[13], mb4x4Index[12]); 1352 bS[14].left = 1353 InnerBoundaryStrength(mb, mb4x4Index[14], mb4x4Index[13]); 1354 bS[15].left = 1355 InnerBoundaryStrength(mb, mb4x4Index[15], mb4x4Index[14]); 1356 } 1357 if (!nonZeroBs && 1358 (bS[4].top || bS[5].top || bS[6].top || bS[7].top || 1359 bS[8].top || bS[9].top || bS[10].top || bS[11].top || 1360 bS[12].top || bS[13].top || bS[14].top || bS[15].top || 1361 bS[1].left || bS[2].left || bS[3].left || 1362 bS[5].left || bS[6].left || bS[7].left || 1363 bS[9].left || bS[10].left || bS[11].left || 1364 bS[13].left || bS[14].left || bS[15].left)) 1365 nonZeroBs = HANTRO_TRUE; 1366 } 1367 1368 return(nonZeroBs); 1369 1370 } 1371 1372 /*------------------------------------------------------------------------------ 1373 1374 Function: GetLumaEdgeThresholds 1375 1376 Functional description: 1377 Compute alpha, beta and tc0 thresholds for inner, left and top 1378 luma edges of a macroblock. 1379 1380 ------------------------------------------------------------------------------*/ 1381 void GetLumaEdgeThresholds( 1382 edgeThreshold_t *thresholds, 1383 mbStorage_t *mb, 1384 u32 filteringFlags) 1385 { 1386 1387 /* Variables */ 1388 1389 u32 indexA, indexB; 1390 u32 qpAv, qp, qpTmp; 1391 1392 /* Code */ 1393 1394 ASSERT(thresholds); 1395 ASSERT(mb); 1396 1397 qp = mb->qpY; 1398 1399 indexA = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetA); 1400 indexB = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetB); 1401 1402 thresholds[INNER].alpha = alphas[indexA]; 1403 thresholds[INNER].beta = betas[indexB]; 1404 thresholds[INNER].tc0 = tc0[indexA]; 1405 1406 if (filteringFlags & FILTER_TOP_EDGE) 1407 { 1408 qpTmp = mb->mbB->qpY; 1409 if (qpTmp != qp) 1410 { 1411 qpAv = (qp + qpTmp + 1) >> 1; 1412 1413 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 1414 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 1415 1416 thresholds[TOP].alpha = alphas[indexA]; 1417 thresholds[TOP].beta = betas[indexB]; 1418 thresholds[TOP].tc0 = tc0[indexA]; 1419 } 1420 else 1421 { 1422 thresholds[TOP].alpha = thresholds[INNER].alpha; 1423 thresholds[TOP].beta = thresholds[INNER].beta; 1424 thresholds[TOP].tc0 = thresholds[INNER].tc0; 1425 } 1426 } 1427 if (filteringFlags & FILTER_LEFT_EDGE) 1428 { 1429 qpTmp = mb->mbA->qpY; 1430 if (qpTmp != qp) 1431 { 1432 qpAv = (qp + qpTmp + 1) >> 1; 1433 1434 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 1435 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 1436 1437 thresholds[LEFT].alpha = alphas[indexA]; 1438 thresholds[LEFT].beta = betas[indexB]; 1439 thresholds[LEFT].tc0 = tc0[indexA]; 1440 } 1441 else 1442 { 1443 thresholds[LEFT].alpha = thresholds[INNER].alpha; 1444 thresholds[LEFT].beta = thresholds[INNER].beta; 1445 thresholds[LEFT].tc0 = thresholds[INNER].tc0; 1446 } 1447 } 1448 1449 } 1450 1451 /*------------------------------------------------------------------------------ 1452 1453 Function: GetChromaEdgeThresholds 1454 1455 Functional description: 1456 Compute alpha, beta and tc0 thresholds for inner, left and top 1457 chroma edges of a macroblock. 1458 1459 ------------------------------------------------------------------------------*/ 1460 void GetChromaEdgeThresholds( 1461 edgeThreshold_t *thresholds, 1462 mbStorage_t *mb, 1463 u32 filteringFlags, 1464 i32 chromaQpIndexOffset) 1465 { 1466 1467 /* Variables */ 1468 1469 u32 indexA, indexB; 1470 u32 qpAv, qp, qpTmp; 1471 1472 /* Code */ 1473 1474 ASSERT(thresholds); 1475 ASSERT(mb); 1476 1477 qp = mb->qpY; 1478 qp = h264bsdQpC[CLIP3(0, 51, (i32)qp + chromaQpIndexOffset)]; 1479 1480 indexA = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetA); 1481 indexB = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetB); 1482 1483 thresholds[INNER].alpha = alphas[indexA]; 1484 thresholds[INNER].beta = betas[indexB]; 1485 thresholds[INNER].tc0 = tc0[indexA]; 1486 1487 if (filteringFlags & FILTER_TOP_EDGE) 1488 { 1489 qpTmp = mb->mbB->qpY; 1490 if (qpTmp != mb->qpY) 1491 { 1492 qpTmp = h264bsdQpC[CLIP3(0, 51, (i32)qpTmp + chromaQpIndexOffset)]; 1493 qpAv = (qp + qpTmp + 1) >> 1; 1494 1495 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 1496 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 1497 1498 thresholds[TOP].alpha = alphas[indexA]; 1499 thresholds[TOP].beta = betas[indexB]; 1500 thresholds[TOP].tc0 = tc0[indexA]; 1501 } 1502 else 1503 { 1504 thresholds[TOP].alpha = thresholds[INNER].alpha; 1505 thresholds[TOP].beta = thresholds[INNER].beta; 1506 thresholds[TOP].tc0 = thresholds[INNER].tc0; 1507 } 1508 } 1509 if (filteringFlags & FILTER_LEFT_EDGE) 1510 { 1511 qpTmp = mb->mbA->qpY; 1512 if (qpTmp != mb->qpY) 1513 { 1514 qpTmp = h264bsdQpC[CLIP3(0, 51, (i32)qpTmp + chromaQpIndexOffset)]; 1515 qpAv = (qp + qpTmp + 1) >> 1; 1516 1517 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 1518 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 1519 1520 thresholds[LEFT].alpha = alphas[indexA]; 1521 thresholds[LEFT].beta = betas[indexB]; 1522 thresholds[LEFT].tc0 = tc0[indexA]; 1523 } 1524 else 1525 { 1526 thresholds[LEFT].alpha = thresholds[INNER].alpha; 1527 thresholds[LEFT].beta = thresholds[INNER].beta; 1528 thresholds[LEFT].tc0 = thresholds[INNER].tc0; 1529 } 1530 } 1531 1532 } 1533 1534 /*------------------------------------------------------------------------------ 1535 1536 Function: FilterLuma 1537 1538 Functional description: 1539 Function to filter all luma edges of a macroblock 1540 1541 ------------------------------------------------------------------------------*/ 1542 void FilterLuma( 1543 u8 *data, 1544 bS_t *bS, 1545 edgeThreshold_t *thresholds, 1546 u32 width) 1547 { 1548 1549 /* Variables */ 1550 1551 u32 vblock; 1552 bS_t *tmp; 1553 u8 *ptr; 1554 u32 offset; 1555 1556 /* Code */ 1557 1558 ASSERT(data); 1559 ASSERT(bS); 1560 ASSERT(thresholds); 1561 1562 ptr = data; 1563 tmp = bS; 1564 1565 offset = TOP; 1566 1567 /* loop block rows, perform filtering for all vertical edges of the block 1568 * row first, then filter each horizontal edge of the row */ 1569 for (vblock = 4; vblock--;) 1570 { 1571 /* only perform filtering if bS is non-zero, first of the four 1572 * FilterVerLumaEdge handles the left edge of the macroblock, others 1573 * filter inner edges */ 1574 if (tmp[0].left) 1575 FilterVerLumaEdge(ptr, tmp[0].left, thresholds + LEFT, width); 1576 if (tmp[1].left) 1577 FilterVerLumaEdge(ptr+4, tmp[1].left, thresholds + INNER, width); 1578 if (tmp[2].left) 1579 FilterVerLumaEdge(ptr+8, tmp[2].left, thresholds + INNER, width); 1580 if (tmp[3].left) 1581 FilterVerLumaEdge(ptr+12, tmp[3].left, thresholds + INNER, width); 1582 1583 /* if bS is equal for all horizontal edges of the row -> perform 1584 * filtering with FilterHorLuma, otherwise use FilterHorLumaEdge for 1585 * each edge separately. offset variable indicates top macroblock edge 1586 * on the first loop round, inner edge for the other rounds */ 1587 if (tmp[0].top == tmp[1].top && tmp[1].top == tmp[2].top && 1588 tmp[2].top == tmp[3].top) 1589 { 1590 if(tmp[0].top) 1591 FilterHorLuma(ptr, tmp[0].top, thresholds + offset, (i32)width); 1592 } 1593 else 1594 { 1595 if(tmp[0].top) 1596 FilterHorLumaEdge(ptr, tmp[0].top, thresholds+offset, 1597 (i32)width); 1598 if(tmp[1].top) 1599 FilterHorLumaEdge(ptr+4, tmp[1].top, thresholds+offset, 1600 (i32)width); 1601 if(tmp[2].top) 1602 FilterHorLumaEdge(ptr+8, tmp[2].top, thresholds+offset, 1603 (i32)width); 1604 if(tmp[3].top) 1605 FilterHorLumaEdge(ptr+12, tmp[3].top, thresholds+offset, 1606 (i32)width); 1607 } 1608 1609 /* four pixel rows ahead, i.e. next row of 4x4-blocks */ 1610 ptr += width*4; 1611 tmp += 4; 1612 offset = INNER; 1613 } 1614 } 1615 1616 /*------------------------------------------------------------------------------ 1617 1618 Function: FilterChroma 1619 1620 Functional description: 1621 Function to filter all chroma edges of a macroblock 1622 1623 ------------------------------------------------------------------------------*/ 1624 void FilterChroma( 1625 u8 *dataCb, 1626 u8 *dataCr, 1627 bS_t *bS, 1628 edgeThreshold_t *thresholds, 1629 u32 width) 1630 { 1631 1632 /* Variables */ 1633 1634 u32 vblock; 1635 bS_t *tmp; 1636 u32 offset; 1637 1638 /* Code */ 1639 1640 ASSERT(dataCb); 1641 ASSERT(dataCr); 1642 ASSERT(bS); 1643 ASSERT(thresholds); 1644 1645 tmp = bS; 1646 offset = TOP; 1647 1648 /* loop block rows, perform filtering for all vertical edges of the block 1649 * row first, then filter each horizontal edge of the row */ 1650 for (vblock = 0; vblock < 2; vblock++) 1651 { 1652 /* only perform filtering if bS is non-zero, first two of the four 1653 * FilterVerChromaEdge calls handle the left edge of the macroblock, 1654 * others filter the inner edge. Note that as chroma uses bS values 1655 * determined for luma edges, each bS is used only for 2 pixels of 1656 * a 4-pixel edge */ 1657 if (tmp[0].left) 1658 { 1659 FilterVerChromaEdge(dataCb, tmp[0].left, thresholds + LEFT, width); 1660 FilterVerChromaEdge(dataCr, tmp[0].left, thresholds + LEFT, width); 1661 } 1662 if (tmp[4].left) 1663 { 1664 FilterVerChromaEdge(dataCb+2*width, tmp[4].left, thresholds + LEFT, 1665 width); 1666 FilterVerChromaEdge(dataCr+2*width, tmp[4].left, thresholds + LEFT, 1667 width); 1668 } 1669 if (tmp[2].left) 1670 { 1671 FilterVerChromaEdge(dataCb+4, tmp[2].left, thresholds + INNER, 1672 width); 1673 FilterVerChromaEdge(dataCr+4, tmp[2].left, thresholds + INNER, 1674 width); 1675 } 1676 if (tmp[6].left) 1677 { 1678 FilterVerChromaEdge(dataCb+2*width+4, tmp[6].left, 1679 thresholds + INNER, width); 1680 FilterVerChromaEdge(dataCr+2*width+4, tmp[6].left, 1681 thresholds + INNER, width); 1682 } 1683 1684 /* if bS is equal for all horizontal edges of the row -> perform 1685 * filtering with FilterHorChroma, otherwise use FilterHorChromaEdge 1686 * for each edge separately. offset variable indicates top macroblock 1687 * edge on the first loop round, inner edge for the second */ 1688 if (tmp[0].top == tmp[1].top && tmp[1].top == tmp[2].top && 1689 tmp[2].top == tmp[3].top) 1690 { 1691 if(tmp[0].top) 1692 { 1693 FilterHorChroma(dataCb, tmp[0].top, thresholds+offset, 1694 (i32)width); 1695 FilterHorChroma(dataCr, tmp[0].top, thresholds+offset, 1696 (i32)width); 1697 } 1698 } 1699 else 1700 { 1701 if (tmp[0].top) 1702 { 1703 FilterHorChromaEdge(dataCb, tmp[0].top, thresholds+offset, 1704 (i32)width); 1705 FilterHorChromaEdge(dataCr, tmp[0].top, thresholds+offset, 1706 (i32)width); 1707 } 1708 if (tmp[1].top) 1709 { 1710 FilterHorChromaEdge(dataCb+2, tmp[1].top, thresholds+offset, 1711 (i32)width); 1712 FilterHorChromaEdge(dataCr+2, tmp[1].top, thresholds+offset, 1713 (i32)width); 1714 } 1715 if (tmp[2].top) 1716 { 1717 FilterHorChromaEdge(dataCb+4, tmp[2].top, thresholds+offset, 1718 (i32)width); 1719 FilterHorChromaEdge(dataCr+4, tmp[2].top, thresholds+offset, 1720 (i32)width); 1721 } 1722 if (tmp[3].top) 1723 { 1724 FilterHorChromaEdge(dataCb+6, tmp[3].top, thresholds+offset, 1725 (i32)width); 1726 FilterHorChromaEdge(dataCr+6, tmp[3].top, thresholds+offset, 1727 (i32)width); 1728 } 1729 } 1730 1731 tmp += 8; 1732 dataCb += width*4; 1733 dataCr += width*4; 1734 offset = INNER; 1735 } 1736 } 1737 1738 #else /* H264DEC_OMXDL */ 1739 1740 /*------------------------------------------------------------------------------ 1741 1742 Function: h264bsdFilterPicture 1743 1744 Functional description: 1745 Perform deblocking filtering for a picture. Filter does not copy 1746 the original picture anywhere but filtering is performed directly 1747 on the original image. Parameters controlling the filtering process 1748 are computed based on information in macroblock structures of the 1749 filtered macroblock, macroblock above and macroblock on the left of 1750 the filtered one. 1751 1752 Inputs: 1753 image pointer to image to be filtered 1754 mb pointer to macroblock data structure of the top-left 1755 macroblock of the picture 1756 1757 Outputs: 1758 image filtered image stored here 1759 1760 Returns: 1761 none 1762 1763 ------------------------------------------------------------------------------*/ 1764 1765 /*lint --e{550} Symbol not accessed */ 1766 void h264bsdFilterPicture( 1767 image_t *image, 1768 mbStorage_t *mb) 1769 { 1770 1771 /* Variables */ 1772 1773 u32 flags; 1774 u32 picSizeInMbs, mbRow, mbCol; 1775 u32 picWidthInMbs; 1776 u8 *data; 1777 mbStorage_t *pMb; 1778 u8 bS[2][16]; 1779 u8 thresholdLuma[2][16]; 1780 u8 thresholdChroma[2][8]; 1781 u8 alpha[2][2]; 1782 u8 beta[2][2]; 1783 OMXResult res; 1784 1785 /* Code */ 1786 1787 ASSERT(image); 1788 ASSERT(mb); 1789 ASSERT(image->data); 1790 ASSERT(image->width); 1791 ASSERT(image->height); 1792 1793 picWidthInMbs = image->width; 1794 data = image->data; 1795 picSizeInMbs = picWidthInMbs * image->height; 1796 1797 pMb = mb; 1798 1799 for (mbRow = 0, mbCol = 0; mbRow < image->height; pMb++) 1800 { 1801 flags = GetMbFilteringFlags(pMb); 1802 1803 if (flags) 1804 { 1805 /* GetBoundaryStrengths function returns non-zero value if any of 1806 * the bS values for the macroblock being processed was non-zero */ 1807 if (GetBoundaryStrengths(pMb, bS, flags)) 1808 { 1809 1810 /* Luma */ 1811 GetLumaEdgeThresholds(pMb,alpha,beta,thresholdLuma,bS,flags); 1812 data = image->data + mbRow * picWidthInMbs * 256 + mbCol * 16; 1813 1814 res = omxVCM4P10_FilterDeblockingLuma_VerEdge_I( data, 1815 (OMX_S32)(picWidthInMbs*16), 1816 (const OMX_U8*)alpha, 1817 (const OMX_U8*)beta, 1818 (const OMX_U8*)thresholdLuma, 1819 (const OMX_U8*)bS ); 1820 1821 res = omxVCM4P10_FilterDeblockingLuma_HorEdge_I( data, 1822 (OMX_S32)(picWidthInMbs*16), 1823 (const OMX_U8*)alpha+2, 1824 (const OMX_U8*)beta+2, 1825 (const OMX_U8*)thresholdLuma+16, 1826 (const OMX_U8*)bS+16 ); 1827 /* Cb */ 1828 GetChromaEdgeThresholds(pMb, alpha, beta, thresholdChroma, 1829 bS, flags, pMb->chromaQpIndexOffset); 1830 data = image->data + picSizeInMbs * 256 + 1831 mbRow * picWidthInMbs * 64 + mbCol * 8; 1832 1833 res = omxVCM4P10_FilterDeblockingChroma_VerEdge_I( data, 1834 (OMX_S32)(picWidthInMbs*8), 1835 (const OMX_U8*)alpha, 1836 (const OMX_U8*)beta, 1837 (const OMX_U8*)thresholdChroma, 1838 (const OMX_U8*)bS ); 1839 res = omxVCM4P10_FilterDeblockingChroma_HorEdge_I( data, 1840 (OMX_S32)(picWidthInMbs*8), 1841 (const OMX_U8*)alpha+2, 1842 (const OMX_U8*)beta+2, 1843 (const OMX_U8*)thresholdChroma+8, 1844 (const OMX_U8*)bS+16 ); 1845 /* Cr */ 1846 data += (picSizeInMbs * 64); 1847 res = omxVCM4P10_FilterDeblockingChroma_VerEdge_I( data, 1848 (OMX_S32)(picWidthInMbs*8), 1849 (const OMX_U8*)alpha, 1850 (const OMX_U8*)beta, 1851 (const OMX_U8*)thresholdChroma, 1852 (const OMX_U8*)bS ); 1853 res = omxVCM4P10_FilterDeblockingChroma_HorEdge_I( data, 1854 (OMX_S32)(picWidthInMbs*8), 1855 (const OMX_U8*)alpha+2, 1856 (const OMX_U8*)beta+2, 1857 (const OMX_U8*)thresholdChroma+8, 1858 (const OMX_U8*)bS+16 ); 1859 } 1860 } 1861 1862 mbCol++; 1863 if (mbCol == picWidthInMbs) 1864 { 1865 mbCol = 0; 1866 mbRow++; 1867 } 1868 } 1869 1870 } 1871 1872 /*------------------------------------------------------------------------------ 1873 1874 Function: GetBoundaryStrengths 1875 1876 Functional description: 1877 Function to calculate boundary strengths for all edges of a 1878 macroblock. Function returns HANTRO_TRUE if any of the bS values for 1879 the macroblock had non-zero value, HANTRO_FALSE otherwise. 1880 1881 ------------------------------------------------------------------------------*/ 1882 u32 GetBoundaryStrengths(mbStorage_t *mb, u8 (*bS)[16], u32 flags) 1883 { 1884 1885 /* Variables */ 1886 1887 /* this flag is set HANTRO_TRUE as soon as any boundary strength value is 1888 * non-zero */ 1889 u32 nonZeroBs = HANTRO_FALSE; 1890 u32 *pTmp; 1891 u32 tmp1, tmp2, isIntraMb; 1892 1893 /* Code */ 1894 1895 ASSERT(mb); 1896 ASSERT(bS); 1897 ASSERT(flags); 1898 1899 isIntraMb = IS_INTRA_MB(*mb); 1900 1901 /* top edges */ 1902 pTmp = (u32*)&bS[1][0]; 1903 if (flags & FILTER_TOP_EDGE) 1904 { 1905 if (isIntraMb || IS_INTRA_MB(*mb->mbB)) 1906 { 1907 *pTmp = 0x04040404; 1908 nonZeroBs = HANTRO_TRUE; 1909 } 1910 else 1911 { 1912 *pTmp = EdgeBoundaryStrengthTop(mb, mb->mbB); 1913 if (*pTmp) 1914 nonZeroBs = HANTRO_TRUE; 1915 } 1916 } 1917 else 1918 { 1919 *pTmp = 0; 1920 } 1921 1922 /* left edges */ 1923 pTmp = (u32*)&bS[0][0]; 1924 if (flags & FILTER_LEFT_EDGE) 1925 { 1926 if (isIntraMb || IS_INTRA_MB(*mb->mbA)) 1927 { 1928 /*bS[0][0] = bS[0][1] = bS[0][2] = bS[0][3] = 4;*/ 1929 *pTmp = 0x04040404; 1930 nonZeroBs = HANTRO_TRUE; 1931 } 1932 else 1933 { 1934 *pTmp = EdgeBoundaryStrengthLeft(mb, mb->mbA); 1935 if (!nonZeroBs && *pTmp) 1936 nonZeroBs = HANTRO_TRUE; 1937 } 1938 } 1939 else 1940 { 1941 *pTmp = 0; 1942 } 1943 1944 /* inner edges */ 1945 if (isIntraMb) 1946 { 1947 pTmp++; 1948 *pTmp++ = 0x03030303; 1949 *pTmp++ = 0x03030303; 1950 *pTmp++ = 0x03030303; 1951 pTmp++; 1952 *pTmp++ = 0x03030303; 1953 *pTmp++ = 0x03030303; 1954 *pTmp = 0x03030303; 1955 1956 nonZeroBs = HANTRO_TRUE; 1957 } 1958 else 1959 { 1960 pTmp = (u32*)mb->totalCoeff; 1961 1962 /* 16x16 inter mb -> ref addresses or motion vectors cannot differ, 1963 * only check if either of the blocks contain coefficients */ 1964 if (h264bsdNumMbPart(mb->mbType) == 1) 1965 { 1966 tmp1 = *pTmp++; 1967 tmp2 = *pTmp++; 1968 bS[1][4] = (tmp1 & 0x00FF00FF) ? 2 : 0; /* [2] || [0] */ 1969 bS[1][5] = (tmp1 & 0xFF00FF00) ? 2 : 0; /* [3] || [1] */ 1970 bS[0][4] = (tmp1 & 0x0000FFFF) ? 2 : 0; /* [1] || [0] */ 1971 bS[0][5] = (tmp1 & 0xFFFF0000) ? 2 : 0; /* [3] || [2] */ 1972 1973 tmp1 = *pTmp++; 1974 bS[1][6] = (tmp2 & 0x00FF00FF) ? 2 : 0; /* [6] || [4] */ 1975 bS[1][7] = (tmp2 & 0xFF00FF00) ? 2 : 0; /* [7] || [5] */ 1976 bS[0][12] = (tmp2 & 0x0000FFFF) ? 2 : 0; /* [5] || [4] */ 1977 bS[0][13] = (tmp2 & 0xFFFF0000) ? 2 : 0; /* [7] || [6] */ 1978 tmp2 = *pTmp; 1979 bS[1][12] = (tmp1 & 0x00FF00FF) ? 2 : 0; /* [10] || [8] */ 1980 bS[1][13] = (tmp1 & 0xFF00FF00) ? 2 : 0; /* [11] || [9] */ 1981 bS[0][6] = (tmp1 & 0x0000FFFF) ? 2 : 0; /* [9] || [8] */ 1982 bS[0][7] = (tmp1 & 0xFFFF0000) ? 2 : 0; /* [11] || [10] */ 1983 1984 bS[1][14] = (tmp2 & 0x00FF00FF) ? 2 : 0; /* [14] || [12] */ 1985 bS[1][15] = (tmp2 & 0xFF00FF00) ? 2 : 0; /* [15] || [13] */ 1986 bS[0][14] = (tmp2 & 0x0000FFFF) ? 2 : 0; /* [13] || [12] */ 1987 bS[0][15] = (tmp2 & 0xFFFF0000) ? 2 : 0; /* [15] || [14] */ 1988 1989 { 1990 u32 tmp3, tmp4; 1991 1992 tmp1 = mb->totalCoeff[8]; 1993 tmp2 = mb->totalCoeff[2]; 1994 tmp3 = mb->totalCoeff[9]; 1995 tmp4 = mb->totalCoeff[3]; 1996 1997 bS[1][8] = tmp1 || tmp2 ? 2 : 0; 1998 tmp1 = mb->totalCoeff[12]; 1999 tmp2 = mb->totalCoeff[6]; 2000 bS[1][9] = tmp3 || tmp4 ? 2 : 0; 2001 tmp3 = mb->totalCoeff[13]; 2002 tmp4 = mb->totalCoeff[7]; 2003 bS[1][10] = tmp1 || tmp2 ? 2 : 0; 2004 tmp1 = mb->totalCoeff[4]; 2005 tmp2 = mb->totalCoeff[1]; 2006 bS[1][11] = tmp3 || tmp4 ? 2 : 0; 2007 tmp3 = mb->totalCoeff[6]; 2008 tmp4 = mb->totalCoeff[3]; 2009 bS[0][8] = tmp1 || tmp2 ? 2 : 0; 2010 tmp1 = mb->totalCoeff[12]; 2011 tmp2 = mb->totalCoeff[9]; 2012 bS[0][9] = tmp3 || tmp4 ? 2 : 0; 2013 tmp3 = mb->totalCoeff[14]; 2014 tmp4 = mb->totalCoeff[11]; 2015 bS[0][10] = tmp1 || tmp2 ? 2 : 0; 2016 bS[0][11] = tmp3 || tmp4 ? 2 : 0; 2017 } 2018 } 2019 2020 /* 16x8 inter mb -> ref addresses and motion vectors can be different 2021 * only for the middle horizontal edge, for the other top edges it is 2022 * enough to check whether the blocks contain coefficients or not. The 2023 * same applies to all internal left edges. */ 2024 else if (mb->mbType == P_L0_L0_16x8) 2025 { 2026 tmp1 = *pTmp++; 2027 tmp2 = *pTmp++; 2028 bS[1][4] = (tmp1 & 0x00FF00FF) ? 2 : 0; /* [2] || [0] */ 2029 bS[1][5] = (tmp1 & 0xFF00FF00) ? 2 : 0; /* [3] || [1] */ 2030 bS[0][4] = (tmp1 & 0x0000FFFF) ? 2 : 0; /* [1] || [0] */ 2031 bS[0][5] = (tmp1 & 0xFFFF0000) ? 2 : 0; /* [3] || [2] */ 2032 tmp1 = *pTmp++; 2033 bS[1][6] = (tmp2 & 0x00FF00FF) ? 2 : 0; /* [6] || [4] */ 2034 bS[1][7] = (tmp2 & 0xFF00FF00) ? 2 : 0; /* [7] || [5] */ 2035 bS[0][12] = (tmp2 & 0x0000FFFF) ? 2 : 0; /* [5] || [4] */ 2036 bS[0][13] = (tmp2 & 0xFFFF0000) ? 2 : 0; /* [7] || [6] */ 2037 tmp2 = *pTmp; 2038 bS[1][12] = (tmp1 & 0x00FF00FF) ? 2 : 0; /* [10] || [8] */ 2039 bS[1][13] = (tmp1 & 0xFF00FF00) ? 2 : 0; /* [11] || [9] */ 2040 bS[0][6] = (tmp1 & 0x0000FFFF) ? 2 : 0; /* [9] || [8] */ 2041 bS[0][7] = (tmp1 & 0xFFFF0000) ? 2 : 0; /* [11] || [10] */ 2042 2043 bS[1][14] = (tmp2 & 0x00FF00FF) ? 2 : 0; /* [14] || [12] */ 2044 bS[1][15] = (tmp2 & 0xFF00FF00) ? 2 : 0; /* [15] || [13] */ 2045 bS[0][14] = (tmp2 & 0x0000FFFF) ? 2 : 0; /* [13] || [12] */ 2046 bS[0][15] = (tmp2 & 0xFFFF0000) ? 2 : 0; /* [15] || [14] */ 2047 2048 bS[1][8] = (u8)InnerBoundaryStrength(mb, 8, 2); 2049 bS[1][9] = (u8)InnerBoundaryStrength(mb, 9, 3); 2050 bS[1][10] = (u8)InnerBoundaryStrength(mb, 12, 6); 2051 bS[1][11] = (u8)InnerBoundaryStrength(mb, 13, 7); 2052 2053 { 2054 u32 tmp3, tmp4; 2055 2056 tmp1 = mb->totalCoeff[4]; 2057 tmp2 = mb->totalCoeff[1]; 2058 tmp3 = mb->totalCoeff[6]; 2059 tmp4 = mb->totalCoeff[3]; 2060 bS[0][8] = tmp1 || tmp2 ? 2 : 0; 2061 tmp1 = mb->totalCoeff[12]; 2062 tmp2 = mb->totalCoeff[9]; 2063 bS[0][9] = tmp3 || tmp4 ? 2 : 0; 2064 tmp3 = mb->totalCoeff[14]; 2065 tmp4 = mb->totalCoeff[11]; 2066 bS[0][10] = tmp1 || tmp2 ? 2 : 0; 2067 bS[0][11] = tmp3 || tmp4 ? 2 : 0; 2068 } 2069 } 2070 /* 8x16 inter mb -> ref addresses and motion vectors can be different 2071 * only for the middle vertical edge, for the other left edges it is 2072 * enough to check whether the blocks contain coefficients or not. The 2073 * same applies to all internal top edges. */ 2074 else if (mb->mbType == P_L0_L0_8x16) 2075 { 2076 tmp1 = *pTmp++; 2077 tmp2 = *pTmp++; 2078 bS[1][4] = (tmp1 & 0x00FF00FF) ? 2 : 0; /* [2] || [0] */ 2079 bS[1][5] = (tmp1 & 0xFF00FF00) ? 2 : 0; /* [3] || [1] */ 2080 bS[0][4] = (tmp1 & 0x0000FFFF) ? 2 : 0; /* [1] || [0] */ 2081 bS[0][5] = (tmp1 & 0xFFFF0000) ? 2 : 0; /* [3] || [2] */ 2082 tmp1 = *pTmp++; 2083 bS[1][6] = (tmp2 & 0x00FF00FF) ? 2 : 0; /* [6] || [4] */ 2084 bS[1][7] = (tmp2 & 0xFF00FF00) ? 2 : 0; /* [7] || [5] */ 2085 bS[0][12] = (tmp2 & 0x0000FFFF) ? 2 : 0; /* [5] || [4] */ 2086 bS[0][13] = (tmp2 & 0xFFFF0000) ? 2 : 0; /* [7] || [6] */ 2087 tmp2 = *pTmp; 2088 bS[1][12] = (tmp1 & 0x00FF00FF) ? 2 : 0; /* [10] || [8] */ 2089 bS[1][13] = (tmp1 & 0xFF00FF00) ? 2 : 0; /* [11] || [9] */ 2090 bS[0][6] = (tmp1 & 0x0000FFFF) ? 2 : 0; /* [9] || [8] */ 2091 bS[0][7] = (tmp1 & 0xFFFF0000) ? 2 : 0; /* [11] || [10] */ 2092 2093 bS[1][14] = (tmp2 & 0x00FF00FF) ? 2 : 0; /* [14] || [12] */ 2094 bS[1][15] = (tmp2 & 0xFF00FF00) ? 2 : 0; /* [15] || [13] */ 2095 bS[0][14] = (tmp2 & 0x0000FFFF) ? 2 : 0; /* [13] || [12] */ 2096 bS[0][15] = (tmp2 & 0xFFFF0000) ? 2 : 0; /* [15] || [14] */ 2097 2098 bS[0][8] = (u8)InnerBoundaryStrength(mb, 4, 1); 2099 bS[0][9] = (u8)InnerBoundaryStrength(mb, 6, 3); 2100 bS[0][10] = (u8)InnerBoundaryStrength(mb, 12, 9); 2101 bS[0][11] = (u8)InnerBoundaryStrength(mb, 14, 11); 2102 2103 { 2104 u32 tmp3, tmp4; 2105 2106 tmp1 = mb->totalCoeff[8]; 2107 tmp2 = mb->totalCoeff[2]; 2108 tmp3 = mb->totalCoeff[9]; 2109 tmp4 = mb->totalCoeff[3]; 2110 bS[1][8] = tmp1 || tmp2 ? 2 : 0; 2111 tmp1 = mb->totalCoeff[12]; 2112 tmp2 = mb->totalCoeff[6]; 2113 bS[1][9] = tmp3 || tmp4 ? 2 : 0; 2114 tmp3 = mb->totalCoeff[13]; 2115 tmp4 = mb->totalCoeff[7]; 2116 bS[1][10] = tmp1 || tmp2 ? 2 : 0; 2117 bS[1][11] = tmp3 || tmp4 ? 2 : 0; 2118 } 2119 } 2120 else 2121 { 2122 tmp1 = *pTmp++; 2123 bS[1][4] = (tmp1 & 0x00FF00FF) ? 2 : (u8)InnerBoundaryStrength2(mb, 2, 0); 2124 bS[1][5] = (tmp1 & 0xFF00FF00) ? 2 : (u8)InnerBoundaryStrength2(mb, 3, 1); 2125 bS[0][4] = (tmp1 & 0x0000FFFF) ? 2 : (u8)InnerBoundaryStrength2(mb, 1, 0); 2126 bS[0][5] = (tmp1 & 0xFFFF0000) ? 2 : (u8)InnerBoundaryStrength2(mb, 3, 2); 2127 tmp1 = *pTmp++; 2128 bS[1][6] = (tmp1 & 0x00FF00FF) ? 2 : (u8)InnerBoundaryStrength2(mb, 6, 4); 2129 bS[1][7] = (tmp1 & 0xFF00FF00) ? 2 : (u8)InnerBoundaryStrength2(mb, 7, 5); 2130 bS[0][12] = (tmp1 & 0x0000FFFF) ? 2 : (u8)InnerBoundaryStrength2(mb, 5, 4); 2131 bS[0][13] = (tmp1 & 0xFFFF0000) ? 2 : (u8)InnerBoundaryStrength2(mb, 7, 6); 2132 tmp1 = *pTmp++; 2133 bS[1][12] = (tmp1 & 0x00FF00FF) ? 2 : (u8)InnerBoundaryStrength2(mb, 10, 8); 2134 bS[1][13] = (tmp1 & 0xFF00FF00) ? 2 : (u8)InnerBoundaryStrength2(mb, 11, 9); 2135 bS[0][6] = (tmp1 & 0x0000FFFF) ? 2 : (u8)InnerBoundaryStrength2(mb, 9, 8); 2136 bS[0][7] = (tmp1 & 0xFFFF0000) ? 2 : (u8)InnerBoundaryStrength2(mb, 11, 10); 2137 tmp1 = *pTmp; 2138 bS[1][14] = (tmp1 & 0x00FF00FF) ? 2 : (u8)InnerBoundaryStrength2(mb, 14, 12); 2139 bS[1][15] = (tmp1 & 0xFF00FF00) ? 2 : (u8)InnerBoundaryStrength2(mb, 15, 13); 2140 bS[0][14] = (tmp1 & 0x0000FFFF) ? 2 : (u8)InnerBoundaryStrength2(mb, 13, 12); 2141 bS[0][15] = (tmp1 & 0xFFFF0000) ? 2 : (u8)InnerBoundaryStrength2(mb, 15, 14); 2142 2143 bS[1][8] = (u8)InnerBoundaryStrength(mb, 8, 2); 2144 bS[1][9] = (u8)InnerBoundaryStrength(mb, 9, 3); 2145 bS[1][10] = (u8)InnerBoundaryStrength(mb, 12, 6); 2146 bS[1][11] = (u8)InnerBoundaryStrength(mb, 13, 7); 2147 2148 bS[0][8] = (u8)InnerBoundaryStrength(mb, 4, 1); 2149 bS[0][9] = (u8)InnerBoundaryStrength(mb, 6, 3); 2150 bS[0][10] = (u8)InnerBoundaryStrength(mb, 12, 9); 2151 bS[0][11] = (u8)InnerBoundaryStrength(mb, 14, 11); 2152 } 2153 pTmp = (u32*)&bS[0][0]; 2154 if (!nonZeroBs && (pTmp[1] || pTmp[2] || pTmp[3] || 2155 pTmp[5] || pTmp[6] || pTmp[7]) ) 2156 { 2157 nonZeroBs = HANTRO_TRUE; 2158 } 2159 } 2160 2161 return(nonZeroBs); 2162 2163 } 2164 2165 /*------------------------------------------------------------------------------ 2166 2167 Function: GetLumaEdgeThresholds 2168 2169 Functional description: 2170 Compute alpha, beta and tc0 thresholds for inner, left and top 2171 luma edges of a macroblock. 2172 2173 ------------------------------------------------------------------------------*/ 2174 void GetLumaEdgeThresholds( 2175 mbStorage_t *mb, 2176 u8 (*alpha)[2], 2177 u8 (*beta)[2], 2178 u8 (*threshold)[16], 2179 u8 (*bs)[16], 2180 u32 filteringFlags ) 2181 { 2182 2183 /* Variables */ 2184 2185 u32 indexA, indexB; 2186 u32 qpAv, qp, qpTmp; 2187 u32 i; 2188 2189 /* Code */ 2190 2191 ASSERT(threshold); 2192 ASSERT(bs); 2193 ASSERT(beta); 2194 ASSERT(alpha); 2195 ASSERT(mb); 2196 2197 qp = mb->qpY; 2198 2199 indexA = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetA); 2200 indexB = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetB); 2201 2202 /* Internal edge values */ 2203 alpha[0][1] = alphas[indexA]; 2204 alpha[1][1] = alphas[indexA]; 2205 alpha[1][0] = alphas[indexA]; 2206 alpha[0][0] = alphas[indexA]; 2207 beta[0][1] = betas[indexB]; 2208 beta[1][1] = betas[indexB]; 2209 beta[1][0] = betas[indexB]; 2210 beta[0][0] = betas[indexB]; 2211 2212 /* vertical scan order */ 2213 for (i = 0; i < 2; i++) 2214 { 2215 u32 t1, t2; 2216 2217 t1 = bs[i][0]; 2218 t2 = bs[i][1]; 2219 threshold[i][0] = (t1) ? tc0[indexA][t1] : 0; 2220 t1 = bs[i][2]; 2221 threshold[i][1] = (t2) ? tc0[indexA][t2] : 0; 2222 t2 = bs[i][3]; 2223 threshold[i][2] = (t1) ? tc0[indexA][t1] : 0; 2224 t1 = bs[i][4]; 2225 threshold[i][3] = (t2) ? tc0[indexA][t2] : 0; 2226 t2 = bs[i][5]; 2227 threshold[i][4] = (t1) ? tc0[indexA][t1] : 0; 2228 t1 = bs[i][6]; 2229 threshold[i][5] = (t2) ? tc0[indexA][t2] : 0; 2230 t2 = bs[i][7]; 2231 threshold[i][6] = (t1) ? tc0[indexA][t1] : 0; 2232 t1 = bs[i][8]; 2233 threshold[i][7] = (t2) ? tc0[indexA][t2] : 0; 2234 t2 = bs[i][9]; 2235 threshold[i][8] = (t1) ? tc0[indexA][t1] : 0; 2236 t1 = bs[i][10]; 2237 threshold[i][9] = (t2) ? tc0[indexA][t2] : 0; 2238 t2 = bs[i][11]; 2239 threshold[i][10] = (t1) ? tc0[indexA][t1] : 0; 2240 t1 = bs[i][12]; 2241 threshold[i][11] = (t2) ? tc0[indexA][t2] : 0; 2242 t2 = bs[i][13]; 2243 threshold[i][12] = (t1) ? tc0[indexA][t1] : 0; 2244 t1 = bs[i][14]; 2245 threshold[i][13] = (t2) ? tc0[indexA][t2] : 0; 2246 t2 = bs[i][15]; 2247 threshold[i][14] = (t1) ? tc0[indexA][t1] : 0; 2248 threshold[i][15] = (t2) ? tc0[indexA][t2] : 0; 2249 } 2250 2251 if (filteringFlags & FILTER_TOP_EDGE) 2252 { 2253 qpTmp = mb->mbB->qpY; 2254 if (qpTmp != qp) 2255 { 2256 u32 t1, t2, t3, t4; 2257 qpAv = (qp + qpTmp + 1) >> 1; 2258 2259 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 2260 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 2261 2262 alpha[1][0] = alphas[indexA]; 2263 beta[1][0] = betas[indexB]; 2264 t1 = bs[1][0]; 2265 t2 = bs[1][1]; 2266 t3 = bs[1][2]; 2267 t4 = bs[1][3]; 2268 threshold[1][0] = (t1 && (t1 < 4)) ? tc0[indexA][t1] : 0; 2269 threshold[1][1] = (t2 && (t2 < 4)) ? tc0[indexA][t2] : 0; 2270 threshold[1][2] = (t3 && (t3 < 4)) ? tc0[indexA][t3] : 0; 2271 threshold[1][3] = (t4 && (t4 < 4)) ? tc0[indexA][t4] : 0; 2272 } 2273 } 2274 if (filteringFlags & FILTER_LEFT_EDGE) 2275 { 2276 qpTmp = mb->mbA->qpY; 2277 if (qpTmp != qp) 2278 { 2279 qpAv = (qp + qpTmp + 1) >> 1; 2280 2281 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 2282 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 2283 2284 alpha[0][0] = alphas[indexA]; 2285 beta[0][0] = betas[indexB]; 2286 threshold[0][0] = (bs[0][0] && (bs[0][0] < 4)) ? tc0[indexA][bs[0][0]] : 0; 2287 threshold[0][1] = (bs[0][1] && (bs[0][1] < 4)) ? tc0[indexA][bs[0][1]] : 0; 2288 threshold[0][2] = (bs[0][2] && (bs[0][2] < 4)) ? tc0[indexA][bs[0][2]] : 0; 2289 threshold[0][3] = (bs[0][3] && (bs[0][3] < 4)) ? tc0[indexA][bs[0][3]] : 0; 2290 } 2291 } 2292 2293 } 2294 2295 /*------------------------------------------------------------------------------ 2296 2297 Function: GetChromaEdgeThresholds 2298 2299 Functional description: 2300 Compute alpha, beta and tc0 thresholds for inner, left and top 2301 chroma edges of a macroblock. 2302 2303 ------------------------------------------------------------------------------*/ 2304 void GetChromaEdgeThresholds( 2305 mbStorage_t *mb, 2306 u8 (*alpha)[2], 2307 u8 (*beta)[2], 2308 u8 (*threshold)[8], 2309 u8 (*bs)[16], 2310 u32 filteringFlags, 2311 i32 chromaQpIndexOffset) 2312 { 2313 2314 /* Variables */ 2315 2316 u32 indexA, indexB; 2317 u32 qpAv, qp, qpTmp; 2318 u32 i; 2319 2320 /* Code */ 2321 2322 ASSERT(threshold); 2323 ASSERT(bs); 2324 ASSERT(beta); 2325 ASSERT(alpha); 2326 ASSERT(mb); 2327 ASSERT(mb); 2328 2329 qp = mb->qpY; 2330 qp = h264bsdQpC[CLIP3(0, 51, (i32)qp + chromaQpIndexOffset)]; 2331 2332 indexA = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetA); 2333 indexB = (u32)CLIP3(0, 51, (i32)qp + mb->filterOffsetB); 2334 2335 alpha[0][1] = alphas[indexA]; 2336 alpha[1][1] = alphas[indexA]; 2337 alpha[1][0] = alphas[indexA]; 2338 alpha[0][0] = alphas[indexA]; 2339 beta[0][1] = betas[indexB]; 2340 beta[1][1] = betas[indexB]; 2341 beta[1][0] = betas[indexB]; 2342 beta[0][0] = betas[indexB]; 2343 2344 for (i = 0; i < 2; i++) 2345 { 2346 u32 t1, t2; 2347 2348 t1 = bs[i][0]; 2349 t2 = bs[i][1]; 2350 threshold[i][0] = (t1) ? tc0[indexA][t1] : 0; 2351 t1 = bs[i][2]; 2352 threshold[i][1] = (t2) ? tc0[indexA][t2] : 0; 2353 t2 = bs[i][3]; 2354 threshold[i][2] = (t1) ? tc0[indexA][t1] : 0; 2355 t1 = bs[i][8]; 2356 threshold[i][3] = (t2) ? tc0[indexA][t2] : 0; 2357 t2 = bs[i][9]; 2358 threshold[i][4] = (t1) ? tc0[indexA][t1] : 0; 2359 t1 = bs[i][10]; 2360 threshold[i][5] = (t2) ? tc0[indexA][t2] : 0; 2361 t2 = bs[i][11]; 2362 threshold[i][6] = (t1) ? tc0[indexA][t1] : 0; 2363 threshold[i][7] = (t2) ? tc0[indexA][t2] : 0; 2364 } 2365 2366 if (filteringFlags & FILTER_TOP_EDGE) 2367 { 2368 qpTmp = mb->mbB->qpY; 2369 if (qpTmp != mb->qpY) 2370 { 2371 u32 t1, t2, t3, t4; 2372 qpTmp = h264bsdQpC[CLIP3(0, 51, (i32)qpTmp + chromaQpIndexOffset)]; 2373 qpAv = (qp + qpTmp + 1) >> 1; 2374 2375 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 2376 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 2377 2378 alpha[1][0] = alphas[indexA]; 2379 beta[1][0] = betas[indexB]; 2380 2381 t1 = bs[1][0]; 2382 t2 = bs[1][1]; 2383 t3 = bs[1][2]; 2384 t4 = bs[1][3]; 2385 threshold[1][0] = (t1) ? tc0[indexA][t1] : 0; 2386 threshold[1][1] = (t2) ? tc0[indexA][t2] : 0; 2387 threshold[1][2] = (t3) ? tc0[indexA][t3] : 0; 2388 threshold[1][3] = (t4) ? tc0[indexA][t4] : 0; 2389 } 2390 } 2391 if (filteringFlags & FILTER_LEFT_EDGE) 2392 { 2393 qpTmp = mb->mbA->qpY; 2394 if (qpTmp != mb->qpY) 2395 { 2396 2397 qpTmp = h264bsdQpC[CLIP3(0, 51, (i32)qpTmp + chromaQpIndexOffset)]; 2398 qpAv = (qp + qpTmp + 1) >> 1; 2399 2400 indexA = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetA); 2401 indexB = (u32)CLIP3(0, 51, (i32)qpAv + mb->filterOffsetB); 2402 2403 alpha[0][0] = alphas[indexA]; 2404 beta[0][0] = betas[indexB]; 2405 threshold[0][0] = (bs[0][0]) ? tc0[indexA][bs[0][0]] : 0; 2406 threshold[0][1] = (bs[0][1]) ? tc0[indexA][bs[0][1]] : 0; 2407 threshold[0][2] = (bs[0][2]) ? tc0[indexA][bs[0][2]] : 0; 2408 threshold[0][3] = (bs[0][3]) ? tc0[indexA][bs[0][3]] : 0; 2409 } 2410 } 2411 2412 } 2413 2414 #endif /* H264DEC_OMXDL */ 2415 2416 /*lint +e701 +e702 */ 2417 2418
