CodingStructure.h 27.60 KiB
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/** \file CodingStructure.h
* \brief A class managing the coding information for a specific image part
*/
#ifndef __CODINGSTRUCTURE__
#define __CODINGSTRUCTURE__
#include "Unit.h"
#include "Buffer.h"
#include "CommonDef.h"
#include "UnitPartitioner.h"
#include "Slice.h"
#include <vector>
struct Picture;
enum PictureType
{
PIC_RECONSTRUCTION = 0,
#if JVET_Z0118_GDR
PIC_RECONSTRUCTION_0 = 0,
PIC_RECONSTRUCTION_1 = 1,
PIC_RECONSTRUCTION_SAVE = 2,
#endif
PIC_ORIGINAL,
PIC_TRUE_ORIGINAL,
PIC_FILTERED_ORIGINAL,
PIC_PREDICTION,
PIC_RESIDUAL,
PIC_ORG_RESI,
PIC_RECON_WRAP,
PIC_ORIGINAL_INPUT,
PIC_TRUE_ORIGINAL_INPUT,
PIC_FILTERED_ORIGINAL_INPUT,
NUM_PIC_TYPES};
extern XUCache g_globalUnitCache;
// ---------------------------------------------------------------------------
// coding structure
// ---------------------------------------------------------------------------
class CodingStructure
{
public:
UnitArea area;
Picture *picture;
CodingStructure *parent;
CodingStructure *bestCS;
Slice *slice;
UnitScale unitScale[MAX_NUM_COMPONENT];
#if JVET_AI0087_BTCUS_RESTRICTION
int btFirstPartDecs[4];
#endif
int baseQP;
int prevQP[MAX_NUM_CHANNEL_TYPE];
int currQP[MAX_NUM_CHANNEL_TYPE];
int chromaQpAdj;
const SPS *sps;
const PPS *pps;
PicHeader *picHeader;
#if JVET_AK0065_TALF
APS* talfApss[ALF_CTB_MAX_NUM_APS];
#endif
APS* alfApss[ALF_CTB_MAX_NUM_APS];
APS * lmcsAps;
APS * scalinglistAps;
const VPS *vps;
const PreCalcValues* pcv;
CodingStructure(CUCache&, PUCache&, TUCache&);
#if JVET_Z0118_GDR
bool isGdrEnabled() { return m_gdrEnabled; }
void create(const UnitArea &_unit, const bool isTopLayer, const bool isPLTused, const bool isGdrEnabled = false);
void create(const ChromaFormat &_chromaFormat, const Area& _area, const bool isTopLayer, const bool isPLTused, const bool isGdrEnabeld = false);
#else
void create(const UnitArea &_unit, const bool isTopLayer, const bool isPLTused);
void create(const ChromaFormat &_chromaFormat, const Area& _area, const bool isTopLayer, const bool isPLTused);
#endif
void destroy();
void releaseIntermediateData();
bool m_isTopLayer;
void destroyTemporaryCsData();
void createTemporaryCsData(const bool isPLTused);
#if JVET_Z0118_GDR
bool isCuCrossIRA(int begX) const;
bool isCuCrossVB(int endX) const;
bool containRefresh(int begX, int endX) const;
bool overlapRefresh(int begX, int endX) const;
bool withinRefresh(int begX, int endX) const;
Area findOverlappedArea(const Area &a1, const Area &a2) const;
#endif
#if JVET_Z0118_GDR
bool isInGdrIntervalOrRecoveryPoc() const;
bool isClean(const ChannelType effChType) const;
bool isClean(const Position &IntPos, RefPicList e, int refIdx) const; bool isClean(const Position &IntPos, const Picture* const ref_pic) const;
bool isClean(const Position &IntPos, const ChannelType effChType) const;
bool isClean(const int x, const int y, const ChannelType effChType) const;
bool isClean(const Area &area, const ChannelType effChType) const;
bool isClean(const CodingUnit &cu) const;
bool isClean(const PredictionUnit &pu) const;
bool isClean(const TransformUnit &tu) const;
#endif
#if JVET_Z0118_GDR
void updateReconMotIPM(const UnitArea &uarea) const;
void updateReconMotIPM(const CompArea &carea) const;
void updateReconMotIPM(const UnitArea &uarea, const CPelUnitBuf &pbuf) const;
void updateReconMotIPM(const CompArea &carea, const CPelBuf &pbuf) const;
#endif
#if JVET_Z0118_GDR
void rspSignalPicture(const UnitArea &uarea, std::vector<Pel>& pLUT, const bool usePred = true) const;
void rspSignalPicture(const CompArea &carea, std::vector<Pel>& pLUT, const bool usePred = true) const;
void reconstructPicture(const CompArea &carea, std::vector<Pel>& pLUT, CodingStructure *resiCS, bool lmcsEnable) const;
#endif
void rebindPicBufs();
#if JVET_AC0060_IBC_BVP_CLUSTER_RRIBC_BVD_SIGN_DERIV && !JVET_AD0208_IBC_ADAPT_FOR_CAM_CAPTURED_CONTENTS
void createTMBuf(const int cbWidth, const int cbHeight);
void destroyTMBuf();
#endif
void destroyCoeffs();
void allocateVectorsAtPicLevel();
// ---------------------------------------------------------------------------
// global accessors
// ---------------------------------------------------------------------------
bool isDecomp (const Position &pos, const ChannelType _chType) const;
bool isDecomp (const Position &pos, const ChannelType _chType);
void setDecomp(const CompArea &area, const bool _isCoded = true);
void setDecomp(const UnitArea &area, const bool _isCoded = true);
const CodingUnit *getCU(const Position &pos, const ChannelType _chType) const;
const PredictionUnit *getPU(const Position &pos, const ChannelType _chType) const;
const TransformUnit *getTU(const Position &pos, const ChannelType _chType, const int subTuIdx = -1) const;
#if JVET_AH0135_TEMPORAL_PARTITIONING
CodingUnit *getCUTempo(const Position& pos, const ChannelType effChType);
#endif
CodingUnit *getCU(const Position &pos, const ChannelType _chType);
#if !INTRA_RM_SMALL_BLOCK_SIZE_CONSTRAINTS
CodingUnit *getLumaCU( const Position &pos );
#endif
PredictionUnit *getPU(const Position &pos, const ChannelType _chType);
TransformUnit *getTU(const Position &pos, const ChannelType _chType, const int subTuIdx = -1);
const CodingUnit *getCU(const ChannelType &_chType) const { return getCU(area.blocks[_chType].pos(), _chType); }
const PredictionUnit *getPU(const ChannelType &_chType) const { return getPU(area.blocks[_chType].pos(), _chType); }
const TransformUnit *getTU(const ChannelType &_chType) const { return getTU(area.blocks[_chType].pos(), _chType); }
CodingUnit *getCU(const ChannelType &_chType ) { return getCU(area.blocks[_chType].pos(), _chType); }
PredictionUnit *getPU(const ChannelType &_chType ) { return getPU(area.blocks[_chType].pos(), _chType); }
TransformUnit *getTU(const ChannelType &_chType ) { return getTU(area.blocks[_chType].pos(), _chType); }
const CodingUnit *getCURestricted(const Position &pos, const Position curPos, const unsigned curSliceIdx, const unsigned curTileIdx, const ChannelType _chType) const;
const CodingUnit *getCURestricted(const Position &pos, const CodingUnit& curCu, const ChannelType _chType) const;
const PredictionUnit *getPURestricted(const Position &pos, const PredictionUnit& curPu, const ChannelType _chType) const;
const TransformUnit *getTURestricted(const Position &pos, const TransformUnit& curTu, const ChannelType _chType) const;
#if JVET_AI0136_ADAPTIVE_DUAL_TREE CodingUnit& addCU(const UnitArea &unit, const ChannelType _chType, const PartSplit& implicitSplit = CU_DONT_SPLIT);
#else
CodingUnit& addCU(const UnitArea &unit, const ChannelType _chType);
#endif
PredictionUnit& addPU(const UnitArea &unit, const ChannelType _chType);
TransformUnit& addTU(const UnitArea &unit, const ChannelType _chType);
void addEmptyTUs(Partitioner &partitioner);
CUTraverser traverseCUs(const UnitArea& _unit, const ChannelType _chType);
PUTraverser traversePUs(const UnitArea& _unit, const ChannelType _chType);
TUTraverser traverseTUs(const UnitArea& _unit, const ChannelType _chType);
cCUTraverser traverseCUs(const UnitArea& _unit, const ChannelType _chType) const;
cPUTraverser traversePUs(const UnitArea& _unit, const ChannelType _chType) const;
cTUTraverser traverseTUs(const UnitArea& _unit, const ChannelType _chType) const;
// ---------------------------------------------------------------------------
// encoding search utilities
// ---------------------------------------------------------------------------
static_vector<double, NUM_ENC_FEATURES> features;
#if JVET_Y0152_TT_ENC_SPEEDUP
double *splitRdCostBest; //[Partition::NUM_PART_SPLIT];
#endif
double cost;
bool useDbCost;
double costDbOffset;
double lumaCost;
uint64_t fracBits;
Distortion dist;
Distortion interHad;
#if !INTRA_RM_SMALL_BLOCK_SIZE_CONSTRAINTS
TreeType treeType; //because partitioner can not go deep to tu and cu coding (e.g., addCU()), need another variable for indicating treeType
ModeType modeType;
#endif
void initStructData (const int &QP = MAX_INT, const bool &skipMotBuf = false);
void initSubStructure( CodingStructure& cs, const ChannelType chType, const UnitArea &subArea, const bool &isTuEnc);
void copyStructure (const CodingStructure& cs, const ChannelType chType, const bool copyTUs = false, const bool copyRecoBuffer = false);
void useSubStructure (const CodingStructure& cs, const ChannelType chType, const UnitArea &subArea, const bool cpyPred, const bool cpyReco, const bool cpyOrgResi, const bool cpyResi, const bool updateCost);
void useSubStructure (const CodingStructure& cs, const ChannelType chType, const bool cpyPred, const bool cpyReco, const bool cpyOrgResi, const bool cpyResi, const bool updateCost) { useSubStructure(cs, chType, cs.area, cpyPred, cpyReco, cpyOrgResi, cpyResi, updateCost); }
void clearTUs();
void clearPUs();
void clearCUs();
#if !INTRA_RM_SMALL_BLOCK_SIZE_CONSTRAINTS
const int signalModeCons( const PartSplit split, Partitioner &partitioner, const ModeType modeTypeParent ) const;
void clearCuPuTuIdxMap ( const UnitArea &_area, uint32_t numCu, uint32_t numPu, uint32_t numTu, uint32_t* pOffset );
void getNumCuPuTuOffset ( uint32_t* pArray )
{
pArray[0] = m_numCUs; pArray[1] = m_numPUs; pArray[2] = m_numTUs;
pArray[3] = m_offsets[0]; pArray[4] = m_offsets[1]; pArray[5] = m_offsets[2];
}
#endif
#if MULTI_HYP_PRED
MEResultVec m_meResults;
#endif
private:
void createCoeffs(const bool isPLTused);
void createInternals(const UnitArea& _unit, const bool isTopLayer, const bool isPLTused);
public:
std::vector< CodingUnit*> cus;
std::vector<PredictionUnit*> pus;
std::vector< TransformUnit*> tus;
LutMotionCand motionLut;
#if JVET_AD0188_CCP_MERGE
LutCCP ccpLut;
template<class T> void addCCPToLut(static_vector<T, MAX_NUM_HCCP_CANDS> &lut, const T &model, int reusePos);
template<class T> void getOneModelFromCCPLut(const static_vector<T, MAX_NUM_HCCP_CANDS> &lut, T &model, int pos);
#endif
#if JVET_AG0058_EIP
LutEIP eipLut;
template<class T> void addEipToLut(static_vector<T, MAX_NUM_HEIP_CANDS> &lut, const T &model, int reusePos);
template<class T> void getOneModelFromEipLut(const static_vector<T, MAX_NUM_HEIP_CANDS> &lut, T &model, int pos);
#endif
void addMiToLut(static_vector<MotionInfo, MAX_NUM_HMVP_CANDS>& lut, const MotionInfo &mi);
#if JVET_Z0075_IBC_HMVP_ENLARGE
void addMiToLutIBC(static_vector<MotionInfo, MAX_NUM_HMVP_IBC_CANDS>& lut, const MotionInfo &mi);
#endif
#if JVET_Z0139_HIST_AFF
void addAffMiToLut(static_vector<AffineMotionInfo, MAX_NUM_AFF_HMVP_CANDS>* lutSet, const AffineMotionInfo addMi[2], int refIdx[2]);
void addAffInheritToLut(static_vector<AffineInheritInfo, MAX_NUM_AFF_INHERIT_HMVP_CANDS>& lut, const AffineInheritInfo& mi);
#endif
PLTBuf prevPLT;
void resetPrevPLT(PLTBuf& prevPLT);
void reorderPrevPLT(PLTBuf& prevPLT, uint8_t curPLTSize[MAX_NUM_CHANNEL_TYPE], Pel curPLT[MAX_NUM_COMPONENT][MAXPLTSIZE], bool reuseflag[MAX_NUM_CHANNEL_TYPE][MAXPLTPREDSIZE], uint32_t compBegin, uint32_t numComp, bool jointPLT);
void setPrevPLT(PLTBuf predictor);
void storePrevPLT(PLTBuf& predictor);
private:
// needed for TU encoding
bool m_isTuEnc;
unsigned *m_cuIdx [MAX_NUM_CHANNEL_TYPE];
unsigned *m_puIdx [MAX_NUM_CHANNEL_TYPE];
unsigned *m_tuIdx [MAX_NUM_CHANNEL_TYPE];
bool *m_isDecomp[MAX_NUM_CHANNEL_TYPE];
unsigned m_numCUs;
unsigned m_numPUs;
unsigned m_numTUs;
CUCache& m_cuCache;
PUCache& m_puCache;
TUCache& m_tuCache;
std::vector<SAOBlkParam> m_sao;
PelStorage m_pred;
PelStorage m_resi;
#if JVET_AC0060_IBC_BVP_CLUSTER_RRIBC_BVD_SIGN_DERIV
public:
#if !JVET_AD0208_IBC_ADAPT_FOR_CAM_CAPTURED_CONTENTS
Pel *m_pCurrTmTop;
Pel *m_pCurrTmLeft;
Pel *m_pRefTmTop;
Pel *m_pRefTmLeft;
#endif
PelBuf m_pcBufPredCurTop;
PelBuf m_pcBufPredCurLeft;
PelBuf m_pcBufPredRefTop;
PelBuf m_pcBufPredRefLeft;
#endif
#if JVET_AE0043_CCP_MERGE_TEMPORAL
public:
int *m_ccpmIdxBuf;
std::vector<CCPModelCandidate> m_ccpModelLUT;
#endif
#if JVET_AG0058_EIPpublic:
int *m_eipIdxBuf;
std::vector<EipModelCandidate> m_eipModelLUT;
#endif
#if JVET_Z0118_GDR
public:
PictureType m_pt;
private:
PelStorage m_reco0; // for GDR dirty
PelStorage m_reco1; // for GDR clean
#else
PelStorage m_reco;
#endif
PelStorage m_orgr;
TCoeff *m_coeffs [ MAX_NUM_COMPONENT ];
#if SIGN_PREDICTION
SIGN_PRED_TYPE *m_coeffSigns[MAX_NUM_COMPONENT];
#if JVET_Y0141_SIGN_PRED_IMPROVE
unsigned *m_coeffSignsIdx[MAX_NUM_COMPONENT];
#endif
#endif
#if REMOVE_PCM
Pel *m_pltIdx[MAX_NUM_CHANNEL_TYPE];
#else
Pel *m_pcmbuf [ MAX_NUM_COMPONENT ];
#endif
bool *m_runType[ MAX_NUM_CHANNEL_TYPE ];
int m_offsets[ MAX_NUM_COMPONENT ];
#if JVET_Z0118_GDR
MotionInfo *m_motionBuf0;
MotionInfo *m_motionBuf1;
#else
MotionInfo *m_motionBuf;
#endif
#if JVET_AH0135_TEMPORAL_PARTITIONING
SplitPred *currQtDepthBuf;
#endif
#if JVET_W0123_TIMD_FUSION
#if JVET_Z0118_GDR
uint8_t *m_ipmBuf0;
uint8_t *m_ipmBuf1;
#else
uint8_t *m_ipmBuf;
#endif
#endif
#if JVET_Z0118_GDR
bool m_gdrEnabled;
#endif
#if JVET_AI0183_MVP_EXTENSION
IntersectingMvData *m_intersectingMvBuf;
public:
IntersectingMvData* getIntersectingMvBuf() { return m_intersectingMvBuf; };
#else
public:
#endif
CodingStructure *bestParent;
double tmpColorSpaceCost;
bool firstColorSpaceSelected;
double tmpColorSpaceIntraCost[2];
bool firstColorSpaceTestOnly;
bool resetIBCBuffer;
#if JVET_Z0136_OOB
bool *mcMask[2];
bool *mcMaskChroma[2];
#endif MotionBuf getMotionBuf( const Area& _area );
MotionBuf getMotionBuf( const UnitArea& _area ) { return getMotionBuf( _area.Y() ); }
MotionBuf getMotionBuf() { return getMotionBuf( area.Y() ); }
const CMotionBuf getMotionBuf( const Area& _area ) const;
const CMotionBuf getMotionBuf( const UnitArea& _area ) const { return getMotionBuf( _area.Y() ); }
const CMotionBuf getMotionBuf() const { return getMotionBuf( area.Y() ); }
MotionInfo& getMotionInfo( const Position& pos );
const MotionInfo& getMotionInfo( const Position& pos ) const;
#if JVET_AH0135_TEMPORAL_PARTITIONING
void SetSplitPred();
QTDepthBuf getQtDepthBuf(const Area& _area);
QTDepthBuf getQTDepthBuf() { return getQtDepthBuf(area.Y()); }
SplitPred& getQtDepthInfo(const Position& pos);
#endif
#if JVET_AE0043_CCP_MERGE_TEMPORAL
CCPModelIdxBuf getCcpmIdxBuf( const Area& bufArea);
CCPModelIdxBuf getCcpmIdxBuf( const UnitArea& bufArea) { return getCcpmIdxBuf( bufArea.Cb() ); }
CCPModelIdxBuf getCcpmIdxBuf() { return getCcpmIdxBuf( area.Cb() ); }
const CCCPModelIdxBuf getCcpmIdxBuf( const Area& bufArea ) const;
const CCCPModelIdxBuf getCcpmIdxBuf( const UnitArea& bufArea ) const { return getCcpmIdxBuf( bufArea.Cb() ); }
const CCCPModelIdxBuf getCcpmIdxBuf() const { return getCcpmIdxBuf( area.Cb() ); }
int& getCcpmIdxInfo( const Position& pos );
const int& getCcpmIdxInfo( const Position& pos ) const;
#endif
#if JVET_AG0058_EIP
EipModelIdxBuf getEipIdxBuf( const Area& bufArea);
EipModelIdxBuf getEipIdxBuf( const UnitArea& bufArea) { return getEipIdxBuf( bufArea.Y() ); }
EipModelIdxBuf getEipIdxBuf() { return getEipIdxBuf( area.Y() ); }
const CEipModelIdxBuf getEipIdxBuf( const Area& bufArea ) const;
const CEipModelIdxBuf getEipIdxBuf( const UnitArea& bufArea ) const { return getEipIdxBuf( bufArea.Y() ); }
const CEipModelIdxBuf getEipIdxBuf() const { return getEipIdxBuf( area.Y() ); }
int& getEipIdxInfo( const Position& pos );
const int& getEipIdxInfo( const Position& pos ) const;
#endif
#if JVET_W0123_TIMD_FUSION && RPR_ENABLE
bool picContain( const Position _pos );
#endif
#if JVET_Z0118_GDR
MotionBuf getMotionBuf(const Area& _area, PictureType pt);
MotionBuf getMotionBuf(const UnitArea& _area, PictureType pt) { return getMotionBuf(_area.Y(), pt); }
MotionBuf getMotionBuf(PictureType pt) { return getMotionBuf(area.Y(), pt); }
const CMotionBuf getMotionBuf(const Area& _area, PictureType pt) const;
const CMotionBuf getMotionBuf(const UnitArea& _area, PictureType pt) const { return getMotionBuf(_area.Y(), pt); }
const CMotionBuf getMotionBuf(PictureType pt) const { return getMotionBuf(area.Y(), pt); }
MotionInfo& getMotionInfo(const Position& pos, PictureType pt);
const MotionInfo& getMotionInfo(const Position& pos, PictureType pt) const;
#endif
#if JVET_W0123_TIMD_FUSION
IpmBuf getIpmBuf( const Area& _area );
IpmBuf getIpmBuf( const UnitArea& _area ) { return getIpmBuf( _area.Y() ); }
IpmBuf getIpmBuf() { return getIpmBuf( area.Y() ); }
const CIpmBuf getIpmBuf( const Area& _area ) const;
const CIpmBuf getIpmBuf( const UnitArea& _area ) const { return getIpmBuf( _area.Y() ); }
const CIpmBuf getIpmBuf() const { return getIpmBuf( area.Y() ); }
uint8_t& getIpmInfo( const Position& pos ); const uint8_t& getIpmInfo( const Position& pos ) const;
#endif
#if JVET_W0123_TIMD_FUSION && JVET_Z0118_GDR
IpmBuf getIpmBuf(const Area& _area, PictureType pt);
IpmBuf getIpmBuf(const UnitArea& _area, PictureType pt) { return getIpmBuf(_area.Y(), pt); }
IpmBuf getIpmBuf(PictureType pt) { return getIpmBuf(area.Y(), pt); }
const CIpmBuf getIpmBuf(const Area& _area, PictureType pt) const;
const CIpmBuf getIpmBuf(const UnitArea& _area, PictureType pt) const { return getIpmBuf(_area.Y(), pt); }
const CIpmBuf getIpmBuf(PictureType pt) const { return getIpmBuf(area.Y(), pt); }
uint8_t& getIpmInfo(const Position& pos, PictureType pt);
const uint8_t& getIpmInfo(const Position& pos, PictureType pt) const;
#endif
#if JVET_AI0136_ADAPTIVE_DUAL_TREE
std::vector< CodingUnit*> *m_lumaCUs;
std::vector<PredictionUnit*> *m_lumaPUs;
std::vector< TransformUnit*> *m_lumaTUs;
UnitScale *m_lumaUnitScale;
UnitArea *m_lumaArea;
unsigned *m_lumaCuIdx;
unsigned *m_lumaPuIdx;
unsigned *m_lumaTuIdx;
CodingStructure *m_lumaParent;
CodingUnit *m_bestCU;
CodingUnit *m_lastCodedCU;
double m_savedCost;
uint64_t m_lumaFracBits;
Distortion m_lumaDist;
double m_lumaCost;
void copyLumaPointers( CodingStructure& cs );
void setLumaPointers ( CodingStructure& cs );
void popLastCU( const PartSplit& implicitSplit );
void deriveSeparateTreeFlagInference( int& separateTreeFlag, bool& inferredSeparateTreeFlag, int width, int height, bool canSplit );
void determineIfSeparateTreeFlagInferred( bool& inferredSeparateTreeFlag, int width, int height, bool canSplit );
/*const*/ CodingUnit *getLumaCU(const Position &pos, const ChannelType _chType) const;
const PredictionUnit *getLumaPU(const Position &pos, const ChannelType _chType) const;
const TransformUnit *getLumaTU(const Position &pos, const ChannelType _chType) const;
#endif
public:
// ---------------------------------------------------------------------------
// temporary (shadowed) data accessors
// ---------------------------------------------------------------------------
PelBuf getPredBuf(const CompArea &blk);
const CPelBuf getPredBuf(const CompArea &blk) const;
PelUnitBuf getPredBuf(const UnitArea &unit);
const CPelUnitBuf getPredBuf(const UnitArea &unit) const;
PelBuf getResiBuf(const CompArea &blk);
const CPelBuf getResiBuf(const CompArea &blk) const;
PelUnitBuf getResiBuf(const UnitArea &unit);
const CPelUnitBuf getResiBuf(const UnitArea &unit) const;
PelBuf getRecoBuf(const CompArea &blk);
const CPelBuf getRecoBuf(const CompArea &blk) const;
PelUnitBuf getRecoBuf(const UnitArea &unit);
const CPelUnitBuf getRecoBuf(const UnitArea &unit) const;
#if JVET_Z0118_GDR
PelUnitBuf& getRecoBufRef() { return (m_pt == PIC_RECONSTRUCTION_0) ? m_reco0 : m_reco1; }
#else
PelUnitBuf& getRecoBufRef() { return m_reco; }
#endif
PelBuf getOrgResiBuf(const CompArea &blk);
const CPelBuf getOrgResiBuf(const CompArea &blk) const; PelUnitBuf getOrgResiBuf(const UnitArea &unit);
const CPelUnitBuf getOrgResiBuf(const UnitArea &unit) const;
PelBuf getOrgBuf(const CompArea &blk);
const CPelBuf getOrgBuf(const CompArea &blk) const;
PelUnitBuf getOrgBuf(const UnitArea &unit);
const CPelUnitBuf getOrgBuf(const UnitArea &unit) const;
PelBuf getOrgBuf(const ComponentID &compID);
const CPelBuf getOrgBuf(const ComponentID &compID) const;
PelUnitBuf getOrgBuf();
const CPelUnitBuf getOrgBuf() const;
#if ALF_SAO_TRUE_ORG
PelUnitBuf getTrueOrgBuf();
const CPelUnitBuf getTrueOrgBuf() const;
#endif
// pred buffer
PelBuf getPredBuf(const ComponentID &compID) { return m_pred.get(compID); }
const CPelBuf getPredBuf(const ComponentID &compID) const { return m_pred.get(compID); }
PelUnitBuf getPredBuf() { return m_pred; }
const CPelUnitBuf getPredBuf() const { return m_pred; }
// resi buffer
PelBuf getResiBuf(const ComponentID compID) { return m_resi.get(compID); }
const CPelBuf getResiBuf(const ComponentID compID) const { return m_resi.get(compID); }
PelUnitBuf getResiBuf() { return m_resi; }
const CPelUnitBuf getResiBuf() const { return m_resi; }
// org-resi buffer
PelBuf getOrgResiBuf(const ComponentID &compID) { return m_orgr.get(compID); }
const CPelBuf getOrgResiBuf(const ComponentID &compID) const { return m_orgr.get(compID); }
PelUnitBuf getOrgResiBuf() { return m_orgr; }
const CPelUnitBuf getOrgResiBuf() const { return m_orgr; }
// reco buffer
#if JVET_Z0118_GDR
PelBuf getRecoBuf(const ComponentID compID) { return (m_pt == PIC_RECONSTRUCTION_0) ? m_reco0.get(compID) : m_reco1.get(compID); }
const CPelBuf getRecoBuf(const ComponentID compID) const { return (m_pt == PIC_RECONSTRUCTION_0) ? m_reco0.get(compID) : m_reco1.get(compID); }
PelUnitBuf getRecoBuf() { return (m_pt == PIC_RECONSTRUCTION_0) ? m_reco0 : m_reco1; }
const CPelUnitBuf getRecoBuf() const { return (m_pt == PIC_RECONSTRUCTION_0) ? m_reco0 : m_reco1; }
#else
PelBuf getRecoBuf(const ComponentID compID) { return m_reco.get(compID); }
const CPelBuf getRecoBuf(const ComponentID compID) const { return m_reco.get(compID); }
PelUnitBuf getRecoBuf() { return m_reco; }
const CPelUnitBuf getRecoBuf() const { return m_reco; }
#endif
#if JVET_Z0118_GDR // setReconBuf
void setReconBuf(const PictureType pt)
{
m_pt = pt;
}
PictureType checkReconBuf()
{
return m_pt;
}
#endif
private:
inline PelBuf getBuf(const CompArea &blk, const PictureType &type);
inline const CPelBuf getBuf(const CompArea &blk, const PictureType &type) const;
inline PelUnitBuf getBuf(const UnitArea &unit, const PictureType &type);
inline const CPelUnitBuf getBuf(const UnitArea &unit, const PictureType &type) const;
};
static inline uint32_t getNumberValidTBlocks(const PreCalcValues& pcv) { return (pcv.chrFormat==CHROMA_400) ? 1 : ( pcv.multiBlock422 ? MAX_NUM_TBLOCKS : MAX_NUM_COMPONENT ); }
#if JVET_AD0188_CCP_MERGE
template<class T>
void CodingStructure::addCCPToLut(static_vector<T, MAX_NUM_HCCP_CANDS> &lut, const T &model, int reusePos)
{
int currCnt = (int) lut.size();
int erasePos = 0;
if (reusePos == -1)
{
for (int j = 0; j < currCnt; j++)
{
if (lut[currCnt - j - 1] == model)
{
reusePos = j;
break;
}
}
}
if (reusePos != -1)
{
erasePos = currCnt - 1 - reusePos; // reverse the order
}
if (reusePos != -1 || currCnt == lut.capacity())
{
lut.erase(lut.begin() + erasePos);
}
lut.push_back(model);
}
template<class T>
void CodingStructure::getOneModelFromCCPLut(const static_vector<T, MAX_NUM_HCCP_CANDS> &lut, T &model, int pos)
{
size_t currCnt = lut.size();
CHECK(pos >= currCnt, "Invalid entry in CCP LUT");
model = lut[currCnt - pos - 1];
}
#endif
#if JVET_AG0058_EIP
template<class T>
void CodingStructure::addEipToLut(static_vector<T, MAX_NUM_HEIP_CANDS> &lut, const T &model, int reusePos)
{
int currCnt = (int) lut.size();
int erasePos = 0;
if (reusePos == -1)
{
for (int j = 0; j < currCnt; j++)
{
if (lut[currCnt - j - 1] == model)
{
reusePos = j;
break;
}
}
}
if (reusePos != -1)
{
erasePos = currCnt - 1 - reusePos; // reverse the order
}
if (reusePos != -1 || currCnt == lut.capacity())
{
lut.erase(lut.begin() + erasePos);
}
lut.push_back(model);
}
template<class T>
void CodingStructure::getOneModelFromEipLut(const static_vector<T, MAX_NUM_HEIP_CANDS> &lut, T &model, int pos)
{
size_t currCnt = lut.size();
CHECK(pos >= currCnt, "Invalid entry in EIP LUT");
model = lut[currCnt - pos - 1];
}
#endif
#endif