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/** \file IntraSearch.h
\brief intra search class (header)
*/
#ifndef __INTRASEARCH__
#define __INTRASEARCH__
// Include files
#include "CABACWriter.h"
#include "EncCfg.h"
#include "CommonLib/IntraPrediction.h"
#include "CommonLib/CrossCompPrediction.h"
#include "CommonLib/TrQuant.h"
#include "CommonLib/Unit.h"
#include "CommonLib/RdCost.h"
#include "EncReshape.h"
//! \ingroup EncoderLib
//! \{
// ====================================================================================================================
// Class definition
// ====================================================================================================================
class EncModeCtrl;
enum PLTScanMode
{
PLT_SCAN_HORTRAV = 0,
PLT_SCAN_VERTRAV = 1,
NUM_PLT_SCAN = 2
};
class SortingElement
{
public:
inline bool operator<(const SortingElement &other) const
{
return cnt > other.cnt;
}
SortingElement() {
cnt[0] = cnt[1] = cnt[2] = cnt[3] = 0;
shift[0] = shift[1] = shift[2] = 0;
lastCnt[0] = lastCnt[1] = lastCnt[2] = 0;
data[0] = data[1] = data[2] = 0;
sumData[0] = sumData[1] = sumData[2] = 0;
}
uint32_t getCnt(int idx) const { return cnt[idx]; }
void setCnt(uint32_t val, int idx) { cnt[idx] = val; }
int getSumData (int id) const { return sumData[id]; }
void resetAll(ComponentID compBegin, uint32_t numComp)
{
shift[0] = shift[1] = shift[2] = 0;
lastCnt[0] = lastCnt[1] = lastCnt[2] = 0;
for (int ch = compBegin; ch < (compBegin + numComp); ch++)
{
data[ch] = 0;
sumData[ch] = 0;
}
}
void setAll(uint32_t* ui, ComponentID compBegin, uint32_t numComp)
{
for (int ch = compBegin; ch < (compBegin + numComp); ch++)
{
data[ch] = ui[ch];
}
}
bool almostEqualData(SortingElement element, int errorLimit, const BitDepths& bitDepths, ComponentID compBegin, uint32_t numComp, bool lossless)
{
bool almostEqual = true;
for (int comp = compBegin; comp < (compBegin + numComp); comp++)
{
if (lossless)
{
if ((std::abs(data[comp] - element.data[comp])) > errorLimit)
{
almostEqual = false;
break;
}
}
else
{
uint32_t absError = 0;
if (isChroma((ComponentID) comp))
{
absError += int(double(std::abs(data[comp] - element.data[comp])) * PLT_CHROMA_WEIGHTING) >> (bitDepths.recon[CHANNEL_TYPE_CHROMA] - PLT_ENCBITDEPTH);
}
else
{
absError += (std::abs(data[comp] - element.data[comp]))>> (bitDepths.recon[CHANNEL_TYPE_LUMA] - PLT_ENCBITDEPTH);
}
if (absError > errorLimit)
{
almostEqual = false;
break;
}
}
}
return almostEqual;
}
uint32_t getSAD(SortingElement element, const BitDepths &bitDepths, ComponentID compBegin, uint32_t numComp, bool lossless)
{
uint32_t sumAd = 0;
for (int comp = compBegin; comp < (compBegin + numComp); comp++)
{
ChannelType chType = (comp > 0) ? CHANNEL_TYPE_CHROMA : CHANNEL_TYPE_LUMA;
if (lossless)
{
sumAd += (std::abs(data[comp] - element.data[comp]));
}
else
{
sumAd += (std::abs(data[comp] - element.data[comp]) >> (bitDepths.recon[chType] - PLT_ENCBITDEPTH));
}
}
return sumAd;
}
void copyDataFrom(SortingElement element, ComponentID compBegin, uint32_t numComp)
{
for (int comp = compBegin; comp < (compBegin + numComp); comp++)
{
data[comp] = element.data[comp];
sumData[comp] = data[comp];
shift[comp] = 0;
lastCnt[comp] = 1;
}
}
void copyAllFrom(SortingElement element, ComponentID compBegin, uint32_t numComp)
{
copyDataFrom(element, compBegin, numComp);
for (int comp = compBegin; comp < (compBegin + numComp); comp++)
{
sumData[comp] = element.sumData[comp];
cnt[comp] = element.cnt[comp];
shift[comp] = element.shift[comp];
lastCnt[comp] = element.lastCnt[comp];
}
cnt[MAX_NUM_COMPONENT] = element.cnt[MAX_NUM_COMPONENT];
}
void addElement(const SortingElement& element, ComponentID compBegin, uint32_t numComp)
{
for (int i = compBegin; i<(compBegin + numComp); i++)
{
sumData[i] += element.data[i];
cnt[i]++;
if( cnt[i] > 1 && cnt[i] == 2 * lastCnt[i] )
{
uint32_t rnd = 1 << shift[i];
shift[i]++;
data[i] = (sumData[i] + rnd) >> shift[i];
lastCnt[i] = cnt[i];
}
}
}
private:
uint32_t cnt[MAX_NUM_COMPONENT+1];
int shift[3], lastCnt[3], data[3], sumData[3];
};
/// encoder search class
class IntraSearch : public IntraPrediction
{
private:
EncModeCtrl *m_modeCtrl;
Pel* m_pSharedPredTransformSkip[MAX_NUM_TBLOCKS];
XUCache m_unitCache;
CodingStructure ****m_pSplitCS;
CodingStructure ****m_pFullCS;
CodingStructure ***m_pTempCS;
CodingStructure ***m_pBestCS;
CodingStructure **m_pSaveCS;
bool m_saveCuCostInSCIPU;
uint8_t m_numCuInSCIPU;
Area m_cuAreaInSCIPU[NUM_INTER_CU_INFO_SAVE];
double m_cuCostInSCIPU[NUM_INTER_CU_INFO_SAVE];
struct ModeInfo
{
bool mipFlg; // CU::mipFlag
bool mipTrFlg; // PU::mipTransposedFlag
int mRefId; // PU::multiRefIdx
uint8_t ispMod; // CU::ispMode
uint32_t modeId; // PU::intraDir[CHANNEL_TYPE_LUMA]
ModeInfo() : mipFlg(false), mipTrFlg(false), mRefId(0), ispMod(NOT_INTRA_SUBPARTITIONS), modeId(0) {}
ModeInfo(const bool mipf, const bool miptf, const int mrid, const uint8_t ispm, const uint32_t mode) : mipFlg(mipf), mipTrFlg(miptf), mRefId(mrid), ispMod(ispm), modeId(mode) {}
bool operator==(const ModeInfo cmp) const { return (mipFlg == cmp.mipFlg && mipTrFlg == cmp.mipTrFlg && mRefId == cmp.mRefId && ispMod == cmp.ispMod && modeId == cmp.modeId); }
};
struct ModeInfoWithCost : public ModeInfo
{
double rdCost;
ModeInfoWithCost() : ModeInfo(), rdCost(MAX_DOUBLE) {}
ModeInfoWithCost(const bool mipf, const bool miptf, const int mrid, const uint8_t ispm, const uint32_t mode, double cost) : ModeInfo(mipf, miptf, mrid, ispm, mode), rdCost(cost) {}
bool operator==(const ModeInfoWithCost cmp) const { return (mipFlg == cmp.mipFlg && mipTrFlg == cmp.mipTrFlg && mRefId == cmp.mRefId && ispMod == cmp.ispMod && modeId == cmp.modeId && rdCost == cmp.rdCost); }
static bool compareModeInfoWithCost(ModeInfoWithCost a, ModeInfoWithCost b) { return a.rdCost < b.rdCost; }
};
struct ISPTestedModeInfo
{
int numCompSubParts;
double rdCost;
ISPTestedModeInfo() {}
void setMode(int numParts, double cost)
{
numCompSubParts = numParts;
rdCost = cost;
}
void clear()
{
numCompSubParts = -1;
rdCost = MAX_DOUBLE;
}
};
struct ISPTestedModesInfo
{
ISPTestedModeInfo intraMode[NUM_LUMA_MODE][2];
bool modeHasBeenTested[NUM_LUMA_MODE][2];
int numTotalParts[2];
static_vector<int, FAST_UDI_MAX_RDMODE_NUM> testedModes[2];
int bestModeSoFar;
ISPType bestSplitSoFar;
int bestMode[2];
double bestCost[2];
int numTestedModes[2];
int candIndexInList[2];
bool splitIsFinished[2];
int numOrigModesToTest;
// set a tested mode results
void setModeResults(ISPType splitType, int iModeIdx, int numCompletedParts, double rdCost, double currentBestCost)
{
const unsigned st = splitType - 1;
CHECKD(st > 1, "The split type is invalid!");
const int maxNumParts = numTotalParts[st];
intraMode[iModeIdx][st].setMode(numCompletedParts, numCompletedParts == maxNumParts ? rdCost : MAX_DOUBLE);
testedModes[st].push_back(iModeIdx);
numTestedModes[st]++;
modeHasBeenTested[iModeIdx][st] = true;
if (numCompletedParts == maxNumParts && rdCost < bestCost[st]) // best mode update
{
bestMode[st] = iModeIdx;
bestCost[st] = rdCost;
}
if (numCompletedParts == maxNumParts && rdCost < currentBestCost) // best mode update
{
bestModeSoFar = iModeIdx;
bestSplitSoFar = splitType;
}
}
int getNumCompletedSubParts(ISPType splitType, int iModeIdx)
{
const unsigned st = splitType - 1;
CHECK(st < 0 || st > 1, "The split type is invalid!");
CHECK(iModeIdx < 0 || iModeIdx >(NUM_LUMA_MODE - 1), "The modeIdx is invalid");
return modeHasBeenTested[iModeIdx][st] ? intraMode[iModeIdx][st].numCompSubParts : -1;
}
double getRDCost(ISPType splitType, int iModeIdx)
{
const unsigned st = splitType - 1;
CHECKD(st > 1, "The split type is invalid!");
return modeHasBeenTested[iModeIdx][st] ? intraMode[iModeIdx][st].rdCost : MAX_DOUBLE;
}
// get a tested intra mode index
int getTestedIntraMode(ISPType splitType, int pos)
{
const unsigned st = splitType - 1;
CHECKD(st > 1, "The split type is invalid!");
return pos < testedModes[st].size() ? testedModes[st].at(pos) : -1;
}
// set everything to default values
void clear()
{
for (int splitIdx = 0; splitIdx < NUM_INTRA_SUBPARTITIONS_MODES - 1; splitIdx++)
{
numTestedModes [splitIdx] = 0;
candIndexInList[splitIdx] = 0;
numTotalParts [splitIdx] = 0;
splitIsFinished[splitIdx] = false;
testedModes [splitIdx].clear();
bestCost [splitIdx] = MAX_DOUBLE;
bestMode [splitIdx] = -1;
}
bestModeSoFar = -1;
bestSplitSoFar = NOT_INTRA_SUBPARTITIONS;
numOrigModesToTest = -1;
memset(modeHasBeenTested, 0, sizeof(modeHasBeenTested));
}
void clearISPModeInfo(int idx)
{
intraMode[idx][0].clear();
intraMode[idx][1].clear();
}
void init(const int numTotalPartsHor, const int numTotalPartsVer)
{
clear();
const int horSplit = HOR_INTRA_SUBPARTITIONS - 1, verSplit = VER_INTRA_SUBPARTITIONS - 1;
numTotalParts [horSplit] = numTotalPartsHor;
numTotalParts [verSplit] = numTotalPartsVer;
splitIsFinished[horSplit] = (numTotalParts[horSplit] == 0);
splitIsFinished[verSplit] = (numTotalParts[verSplit] == 0);
}
};
static_vector<ModeInfo, FAST_UDI_MAX_RDMODE_NUM> m_ispCandListHor, m_ispCandListVer;
static_vector<ModeInfoWithCost, FAST_UDI_MAX_RDMODE_NUM> m_regIntraRDListWithCosts;
ISPTestedModesInfo m_ispTestedModes[NUM_LFNST_NUM_PER_SET];
int m_curIspLfnstIdx;
//cost variables for the EMT algorithm and new modes list
double m_bestModeCostStore[ NUM_LFNST_NUM_PER_SET ]; // RD cost of the best mode for each PU using DCT2
bool m_bestModeCostValid[ NUM_LFNST_NUM_PER_SET ];
double m_modeCostStore[ NUM_LFNST_NUM_PER_SET ][ NUM_LUMA_MODE ]; // RD cost of each mode for each PU using DCT2
ModeInfo m_savedRdModeList[ NUM_LFNST_NUM_PER_SET ][ NUM_LUMA_MODE ];
int32_t m_savedNumRdModes[ NUM_LFNST_NUM_PER_SET ];
ModeInfo m_savedRdModeFirstColorSpace[4 * NUM_LFNST_NUM_PER_SET * 2][FAST_UDI_MAX_RDMODE_NUM];
char m_savedBDPCMModeFirstColorSpace[4 * NUM_LFNST_NUM_PER_SET * 2][FAST_UDI_MAX_RDMODE_NUM];
double m_savedRdCostFirstColorSpace[4 * NUM_LFNST_NUM_PER_SET * 2][FAST_UDI_MAX_RDMODE_NUM];
int m_numSavedRdModeFirstColorSpace[4 * NUM_LFNST_NUM_PER_SET * 2];
int m_savedRdModeIdx;
static_vector<ModeInfo, FAST_UDI_MAX_RDMODE_NUM> m_uiSavedRdModeListLFNST;
static_vector<ModeInfo, FAST_UDI_MAX_RDMODE_NUM> m_uiSavedHadModeListLFNST;
uint32_t m_uiSavedNumRdModesLFNST;
static_vector<double, FAST_UDI_MAX_RDMODE_NUM> m_dSavedModeCostLFNST;
static_vector<double, FAST_UDI_MAX_RDMODE_NUM> m_dSavedHadListLFNST;
PelStorage m_tmpStorageLCU;
PelStorage m_colorTransResiBuf;
protected:
// interface to option
EncCfg* m_pcEncCfg;
// interface to classes
TrQuant* m_pcTrQuant;
RdCost* m_pcRdCost;
EncReshape* m_pcReshape;
// RD computation
CABACWriter* m_CABACEstimator;
CtxCache* m_CtxCache;
bool m_isInitialized;
uint32_t m_symbolSize;
uint16_t** m_truncBinBits;
uint16_t* m_escapeNumBins;
bool m_bestEscape;
double* m_indexError[MAXPLTSIZE + 1];
uint8_t* m_minErrorIndexMap; // store the best index in terms of distortion for each pixel
uint8_t m_indexMapRDOQ [2][NUM_TRELLIS_STATE][2 * MAX_CU_BLKSIZE_PLT];
bool m_runMapRDOQ [2][NUM_TRELLIS_STATE][2 * MAX_CU_BLKSIZE_PLT];
uint8_t* m_statePtRDOQ [NUM_TRELLIS_STATE];
bool m_prevRunTypeRDOQ[2][NUM_TRELLIS_STATE];
int m_prevRunPosRDOQ [2][NUM_TRELLIS_STATE];
double m_stateCostRDOQ [2][NUM_TRELLIS_STATE];
public:
IntraSearch();
~IntraSearch();
void init ( EncCfg* pcEncCfg,
TrQuant* pcTrQuant,
RdCost* pcRdCost,
CABACWriter* CABACEstimator,
CtxCache* ctxCache,
const uint32_t maxCUWidth,
const uint32_t maxCUHeight,
const uint32_t maxTotalCUDepth
, EncReshape* m_pcReshape
, const unsigned bitDepthY
);
void destroy ();
CodingStructure****getSplitCSBuf() { return m_pSplitCS; }
CodingStructure****getFullCSBuf () { return m_pFullCS; }
CodingStructure **getSaveCSBuf () { return m_pSaveCS; }
void setModeCtrl ( EncModeCtrl *modeCtrl ) { m_modeCtrl = modeCtrl; }
bool getSaveCuCostInSCIPU () { return m_saveCuCostInSCIPU; }
void setSaveCuCostInSCIPU ( bool b ) { m_saveCuCostInSCIPU = b; }
void setNumCuInSCIPU ( uint8_t i ) { m_numCuInSCIPU = i; }
void saveCuAreaCostInSCIPU ( Area area, double cost );
void initCuAreaCostInSCIPU ();
double findInterCUCost ( CodingUnit &cu );
public:
bool estIntraPredLumaQT(CodingUnit &cu, Partitioner& pm, const double bestCostSoFar = MAX_DOUBLE, bool mtsCheckRangeFlag = false, int mtsFirstCheckId = 0, int mtsLastCheckId = 0, bool moreProbMTSIdxFirst = false, CodingStructure* bestCS = NULL);
void estIntraPredChromaQT ( CodingUnit &cu, Partitioner& pm, const double maxCostAllowed = MAX_DOUBLE );
void PLTSearch ( CodingStructure &cs, Partitioner& partitioner, ComponentID compBegin, uint32_t numComp);
uint64_t xFracModeBitsIntra (PredictionUnit &pu, const uint32_t &uiMode, const ChannelType &compID);
void invalidateBestModeCost () { for( int i = 0; i < NUM_LFNST_NUM_PER_SET; i++ ) m_bestModeCostValid[ i ] = false; };
void sortRdModeListFirstColorSpace(ModeInfo mode, double cost, char bdpcmMode, ModeInfo* rdModeList, double* rdCostList, char* bdpcmModeList, int& candNum);
void invalidateBestRdModeFirstColorSpace();
void setSavedRdModeIdx(int idx) { m_savedRdModeIdx = idx; }
protected:
// -------------------------------------------------------------------------------------------------------------------
// T & Q & Q-1 & T-1
// -------------------------------------------------------------------------------------------------------------------
// -------------------------------------------------------------------------------------------------------------------
// Intra search
// -------------------------------------------------------------------------------------------------------------------
void xEncIntraHeader ( CodingStructure &cs, Partitioner& pm, const bool &luma, const bool &chroma, const int subTuIdx = -1 );
void xEncSubdivCbfQT ( CodingStructure &cs, Partitioner& pm, const bool &luma, const bool &chroma, const int subTuIdx = -1, const PartSplit ispType = TU_NO_ISP );
uint64_t xGetIntraFracBitsQT ( CodingStructure &cs, Partitioner& pm, const bool &luma, const bool &chroma, const int subTuIdx = -1, const PartSplit ispType = TU_NO_ISP, CUCtx * cuCtx = nullptr );
uint64_t xGetIntraFracBitsQTSingleChromaComponent( CodingStructure &cs, Partitioner& pm, const ComponentID compID );
uint64_t xGetIntraFracBitsQTChroma(TransformUnit& tu, const ComponentID &compID);
void xEncCoeffQT ( CodingStructure &cs, Partitioner& pm, const ComponentID compID, const int subTuIdx = -1, const PartSplit ispType = TU_NO_ISP, CUCtx * cuCtx = nullptr );
void xIntraCodingTUBlock (TransformUnit &tu, const ComponentID &compID, Distortion& ruiDist, const int &default0Save1Load2 = 0, uint32_t* numSig = nullptr, std::vector<TrMode>* trModes=nullptr, const bool loadTr=false );
void xIntraCodingACTTUBlock(TransformUnit &tu, const ComponentID &compID, Distortion& ruiDist, std::vector<TrMode>* trModes = nullptr, const bool loadTr = false);
ChromaCbfs xRecurIntraChromaCodingQT( CodingStructure &cs, Partitioner& pm, const double bestCostSoFar = MAX_DOUBLE, const PartSplit ispType = TU_NO_ISP );
bool xRecurIntraCodingLumaQT ( CodingStructure &cs, Partitioner& pm, const double bestCostSoFar = MAX_DOUBLE, const int subTuIdx = -1, const PartSplit ispType = TU_NO_ISP, const bool ispIsCurrentWinner = false, bool mtsCheckRangeFlag = false, int mtsFirstCheckId = 0, int mtsLastCheckId = 0, bool moreProbMTSIdxFirst = false );
bool xRecurIntraCodingACTQT(CodingStructure &cs, Partitioner& pm, bool mtsCheckRangeFlag = false, int mtsFirstCheckId = 0, int mtsLastCheckId = 0, bool moreProbMTSIdxFirst = false);
bool xIntraCodingLumaISP ( CodingStructure& cs, Partitioner& pm, const double bestCostSoFar = MAX_DOUBLE );
template<typename T, size_t N>
void reduceHadCandList(static_vector<T, N>& candModeList, static_vector<double, N>& candCostList, int& numModesForFullRD, const double thresholdHadCost, const double* mipHadCost, const PredictionUnit &pu, const bool fastMip);
void derivePLTLossy ( CodingStructure& cs, Partitioner& partitioner, ComponentID compBegin, uint32_t numComp);
void calcPixelPred ( CodingStructure& cs, Partitioner& partitioner, uint32_t yPos, uint32_t xPos, ComponentID compBegin, uint32_t numComp);
void preCalcPLTIndexRD (CodingStructure& cs, Partitioner& partitioner, ComponentID compBegin, uint32_t numComp);
void calcPixelPredRD (CodingStructure& cs, Partitioner& partitioner, Pel* orgBuf, Pel* pixelValue, Pel* recoValue, ComponentID compBegin, uint32_t numComp);
void deriveIndexMap (CodingStructure& cs, Partitioner& partitioner, ComponentID compBegin, uint32_t numComp, PLTScanMode pltScanMode, double& dCost, bool* idxExist);
bool deriveSubblockIndexMap(CodingStructure& cs, Partitioner& partitioner, ComponentID compBegin, PLTScanMode pltScanMode, int minSubPos, int maxSubPos, const BinFracBits& fracBitsPltRunType, const BinFracBits* fracBitsPltIndexINDEX, const BinFracBits* fracBitsPltIndexCOPY, const double minCost, bool useRotate);
double rateDistOptPLT (bool RunType, uint8_t RunIndex, bool prevRunType, uint8_t prevRunIndex, uint8_t aboveRunIndex, bool& prevCodedRunType, int& prevCodedRunPos, int scanPos, uint32_t width, int dist, int indexMaxValue, const BinFracBits* IndexfracBits, const BinFracBits& TypefracBits);
void initTBCTable (int bitDepth);
uint32_t getTruncBinBits (uint32_t symbol, uint32_t maxSymbol);
uint32_t getEpExGolombNumBins (uint32_t symbol, uint32_t count);
void xGetNextISPMode ( ModeInfo& modeInfo, const ModeInfo* lastMode, const Size cuSize );
bool xSortISPCandList ( double bestCostSoFar, double bestNonISPCost, ModeInfo bestNonISPMode );
void xSortISPCandListLFNST ( );
void xFindAlreadyTestedNearbyIntraModes ( int currentLfnstIdx, int currentIntraMode, int* refLfnstIdx, int* leftIntraMode, int* rightIntraMode, ISPType ispOption, int windowSize );
bool updateISPStatusFromRelCU ( double bestNonISPCostCurrCu, ModeInfo bestNonISPModeCurrCu, int& bestISPModeInRelCU );
void xFinishISPModes ( );
};// END CLASS DEFINITION EncSearch
//! \}
#endif // __ENCSEARCH__