EncModeCtrl.h 39.34 KiB
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/** \file EncModeCtrl.h
\brief Encoder controller for trying out specific modes
*/
#ifndef __ENCMODECTRL__
#define __ENCMODECTRL__
// Include files
#include "EncCfg.h"
#include "CommonLib/CommonDef.h"
#include "CommonLib/CodingStructure.h"
#include "InterSearch.h"
#include <typeinfo>
#include <vector>
//////////////////////////////////////////////////////////////////////////
// Encoder modes to try out
//////////////////////////////////////////////////////////////////////////
enum EncTestModeType
{
ETM_HASH_INTER,
ETM_MERGE_SKIP,
ETM_INTER_ME,
#if !MERGE_ENC_OPT
ETM_AFFINE,
#endif
#if AFFINE_MMVD && !MERGE_ENC_OPT
ETM_AF_MMVD,
#endif
#if TM_MRG && !MERGE_ENC_OPT
ETM_MERGE_TM,
#endif
ETM_MERGE_GEO, ETM_INTRA,
ETM_PALETTE,
ETM_SPLIT_QT,
ETM_SPLIT_BT_H,
ETM_SPLIT_BT_V,
ETM_SPLIT_TT_H,
ETM_SPLIT_TT_V,
ETM_POST_DONT_SPLIT, // dummy mode to collect the data from the unsplit coding
#if REUSE_CU_RESULTS
ETM_RECO_CACHED,
#endif
ETM_TRIGGER_IMV_LIST,
ETM_IBC, // ibc mode
ETM_IBC_MERGE, // ibc merge mode
#if MULTI_HYP_PRED
ETM_INTER_MULTIHYP,
#endif
ETM_INVALID
};
enum EncTestModeOpts
{
ETO_STANDARD = 0, // empty (standard option)
ETO_FORCE_MERGE = 1<<0, // bit 0 (indicates forced merge)
ETO_IMV_SHIFT = 1, // bits 1-3 (imv parameter starts at bit 1)
ETO_IMV = 7<<ETO_IMV_SHIFT, // bits 1-3 (imv parameter uses 3 bits)
#if INTER_LIC
ETO_LIC = 1 << 4, // bit 4 (local illumination compensation)
#endif
ETO_DUMMY = 1<<5, // bit 5 (dummy)
ETO_INVALID = 0xffffffff // bits 0-31 (invalid option)
};
static void getAreaIdx(const Area& area, const PreCalcValues &pcv, unsigned &idx1, unsigned &idx2, unsigned &idx3, unsigned &idx4)
{
idx1 = (area.x & pcv.maxCUWidthMask) >> MIN_CU_LOG2;
idx2 = (area.y & pcv.maxCUHeightMask) >> MIN_CU_LOG2;
idx3 = gp_sizeIdxInfo->idxFrom( area.width );
idx4 = gp_sizeIdxInfo->idxFrom( area.height );
}
struct EncTestMode
{
EncTestMode()
: type( ETM_INVALID ), opts( ETO_INVALID ), qp( -1 ) {}
EncTestMode( EncTestModeType _type )
: type( _type ), opts( ETO_STANDARD ), qp( -1 ) {}
EncTestMode( EncTestModeType _type, int _qp )
: type( _type ), opts( ETO_STANDARD ), qp( _qp ) {}
EncTestMode( EncTestModeType _type, EncTestModeOpts _opts, int _qp )
: type( _type ), opts( _opts ), qp( _qp ) {}
EncTestModeType type;
EncTestModeOpts opts;
int qp;
double maxCostAllowed;
};
inline bool isModeSplit( const EncTestMode& encTestmode )
{
switch( encTestmode.type )
{
case ETM_SPLIT_QT :
case ETM_SPLIT_BT_H :
case ETM_SPLIT_BT_V :
case ETM_SPLIT_TT_H :
case ETM_SPLIT_TT_V :
return true;
default: return false;
}
}
inline bool isModeNoSplit( const EncTestMode& encTestmode )
{
return !isModeSplit( encTestmode ) && encTestmode.type != ETM_POST_DONT_SPLIT;
}
inline bool isModeInter( const EncTestMode& encTestmode ) // perhaps remove
{
return ( encTestmode.type == ETM_INTER_ME
|| encTestmode.type == ETM_MERGE_SKIP
#if !MERGE_ENC_OPT
|| encTestmode.type == ETM_AFFINE
#endif
#if AFFINE_MMVD && !MERGE_ENC_OPT
|| encTestmode.type == ETM_AF_MMVD
#endif
#if TM_MRG && !MERGE_ENC_OPT
|| encTestmode.type == ETM_MERGE_TM
#endif
|| encTestmode.type == ETM_MERGE_GEO
|| encTestmode.type == ETM_HASH_INTER
#if MULTI_HYP_PRED
|| encTestmode.type == ETM_INTER_MULTIHYP
#endif
);
}
inline PartSplit getPartSplit( const EncTestMode& encTestmode )
{
switch( encTestmode.type )
{
case ETM_SPLIT_QT : return CU_QUAD_SPLIT;
case ETM_SPLIT_BT_H : return CU_HORZ_SPLIT;
case ETM_SPLIT_BT_V : return CU_VERT_SPLIT;
case ETM_SPLIT_TT_H : return CU_TRIH_SPLIT;
case ETM_SPLIT_TT_V : return CU_TRIV_SPLIT;
default: return CU_DONT_SPLIT;
}
}
inline EncTestMode getCSEncMode( const CodingStructure& cs )
{
return EncTestMode( EncTestModeType( (unsigned)cs.features[ENC_FT_ENC_MODE_TYPE] ),
EncTestModeOpts( (unsigned)cs.features[ENC_FT_ENC_MODE_OPTS] ),
false);
}
//////////////////////////////////////////////////////////////////////////
// EncModeCtrl controls if specific modes should be tested
//////////////////////////////////////////////////////////////////////////
struct ComprCUCtx
{
ComprCUCtx() : testModes(), extraFeatures()
{
}
ComprCUCtx( const CodingStructure& cs, const uint32_t _minDepth, const uint32_t _maxDepth, const uint32_t numExtraFeatures )
: minDepth ( _minDepth )
, maxDepth ( _maxDepth )
, testModes ( )
, lastTestMode ( )
, earlySkip ( false )
, isHashPerfectMatch
( false ) , bestCS ( nullptr )
, bestCU ( nullptr )
, bestTU ( nullptr )
, extraFeatures ( )
, extraFeaturesd( )
, bestInterCost ( MAX_DOUBLE )
, bestMtsSize2Nx2N1stPass
( MAX_DOUBLE )
, skipSecondMTSPass
( false )
, interHad (std::numeric_limits<Distortion>::max())
#if ENABLE_SPLIT_PARALLELISM
, isLevelSplitParallel
( false )
#endif
, bestCostWithoutSplitFlags( MAX_DOUBLE )
, bestCostMtsFirstPassNoIsp( MAX_DOUBLE )
, bestCostIsp ( MAX_DOUBLE )
, ispWasTested ( false )
, bestPredModeDCT2
( UINT8_MAX )
, relatedCuIsValid
( false )
, ispPredModeVal( 0 )
, bestDCT2NonISPCost
( MAX_DOUBLE )
, bestNonDCT2Cost
( MAX_DOUBLE )
, bestISPIntraMode
( UINT8_MAX )
#if JVET_V0130_INTRA_TMP
, tmpFlag (false)
#endif
, mipFlag ( false )
, ispMode ( NOT_INTRA_SUBPARTITIONS )
, ispLfnstIdx ( 0 )
, stopNonDCT2Transforms
( false )
{
getAreaIdx( cs.area.Y(), *cs.pcv, cuX, cuY, cuW, cuH );
partIdx = ( ( cuX << 8 ) | cuY );
extraFeatures.reserve( numExtraFeatures );
extraFeatures.resize ( numExtraFeatures, 0 );
extraFeaturesd.reserve( numExtraFeatures );
extraFeaturesd.resize ( numExtraFeatures, 0.0 );
#if INTRA_TRANS_ENC_OPT
bestLfnstCost[0] = bestLfnstCost[1] = MAX_DOUBLE;
#endif
}
unsigned minDepth;
unsigned maxDepth;
unsigned cuX, cuY, cuW, cuH, partIdx;
std::vector<EncTestMode> testModes;
EncTestMode lastTestMode;
bool earlySkip;
bool isHashPerfectMatch;
CodingStructure *bestCS;
CodingUnit *bestCU;
TransformUnit *bestTU;
static_vector<int64_t, 30> extraFeatures;
static_vector<double, 30> extraFeaturesd;
double bestInterCost;
double bestMtsSize2Nx2N1stPass;
bool skipSecondMTSPass;
Distortion interHad;
#if ENABLE_SPLIT_PARALLELISM
bool isLevelSplitParallel;#endif
double bestCostWithoutSplitFlags;
double bestCostMtsFirstPassNoIsp;
double bestCostIsp;
#if INTRA_TRANS_ENC_OPT
double bestLfnstCost[2];
#endif
bool ispWasTested;
uint16_t bestPredModeDCT2;
bool relatedCuIsValid;
uint16_t ispPredModeVal;
double bestDCT2NonISPCost;
double bestNonDCT2Cost;
uint8_t bestISPIntraMode;
#if JVET_V0130_INTRA_TMP
bool tmpFlag;
#endif
bool mipFlag;
uint8_t ispMode;
uint8_t ispLfnstIdx;
bool stopNonDCT2Transforms;
template<typename T> T get( int ft ) const { return typeid(T) == typeid(double) ? (T&)extraFeaturesd[ft] : T(extraFeatures[ft]); }
template<typename T> void set( int ft, T val ) { extraFeatures [ft] = int64_t( val ); }
void set( int ft, double val ) { extraFeaturesd[ft] = val; }
#if INTRA_TRANS_ENC_OPT
bool isLfnstTested() const { return (bestLfnstCost[0] != MAX_DOUBLE && bestLfnstCost[1] != MAX_DOUBLE); }
#endif
};
//////////////////////////////////////////////////////////////////////////
// EncModeCtrl - abstract class specifying the general flow of mode control
//////////////////////////////////////////////////////////////////////////
class EncModeCtrl
{
protected:
const EncCfg *m_pcEncCfg;
const class RateCtrl *m_pcRateCtrl;
class RdCost *m_pcRdCost;
const Slice *m_slice;
#if SHARP_LUMA_DELTA_QP
int m_lumaLevelToDeltaQPLUT[LUMA_LEVEL_TO_DQP_LUT_MAXSIZE];
int m_lumaQPOffset;
#endif
#if JVET_Y0240_BIM
std::map<int, int*> *m_bimQPMap;
#endif
bool m_fastDeltaQP;
static_vector<ComprCUCtx, ( MAX_CU_DEPTH << 2 )> m_ComprCUCtxList;
#if ENABLE_SPLIT_PARALLELISM
int m_runNextInParallel;
#endif
InterSearch* m_pcInterSearch;
bool m_doPlt;
#if JVET_AE0057_MTT_ET
double m_noSplitIntraRdCost;
#endif
public:
virtual ~EncModeCtrl () {}
virtual void create ( const EncCfg& cfg ) = 0;
virtual void destroy () = 0;
virtual void initCTUEncoding ( const Slice &slice ) = 0;
virtual void initCULevel ( Partitioner &partitioner, const CodingStructure& cs ) = 0;
virtual void finishCULevel ( Partitioner &partitioner ) = 0;
protected:
virtual bool tryMode ( const EncTestMode& encTestmode, const CodingStructure &cs, Partitioner& partitioner ) = 0;
public:
virtual bool useModeResult ( const EncTestMode& encTestmode, CodingStructure*& tempCS, Partitioner& partitioner ) = 0;
virtual bool checkSkipOtherLfnst ( const EncTestMode& encTestmode, CodingStructure*& tempCS, Partitioner& partitioner ) = 0;
#if ENABLE_SPLIT_PARALLELISM
virtual void copyState ( const EncModeCtrl& other, const UnitArea& area );
virtual int getNumParallelJobs ( const CodingStructure &cs, Partitioner& partitioner ) const { return 1; }
virtual bool isParallelSplit ( const CodingStructure &cs, Partitioner& partitioner ) const { return false; }
virtual bool parallelJobSelector ( const EncTestMode& encTestmode, const CodingStructure &cs, Partitioner& partitioner ) const { return true; }
void setParallelSplit ( bool val ) { m_runNextInParallel = val; }
#endif
void init ( EncCfg *pCfg, RateCtrl *pRateCtrl, RdCost *pRdCost );
bool tryModeMaster ( const EncTestMode& encTestmode, const CodingStructure &cs, Partitioner& partitioner );
bool nextMode ( const CodingStructure &cs, Partitioner &partitioner );
EncTestMode currTestMode () const;
EncTestMode lastTestMode () const;
void setEarlySkipDetected ();
void setIsHashPerfectMatch( bool b ) { m_ComprCUCtxList.back().isHashPerfectMatch = b; }
bool getIsHashPerfectMatch() { return m_ComprCUCtxList.back().isHashPerfectMatch; }
virtual void setBest ( CodingStructure& cs );
bool anyMode () const;
#if JVET_AE0057_MTT_ET
void setNoSplitIntraCost (double cost) { m_noSplitIntraRdCost = cost; }
#endif
const ComprCUCtx& getComprCUCtx () { CHECK( m_ComprCUCtxList.empty(), "Accessing empty list!"); return m_ComprCUCtxList.back(); }
#if SHARP_LUMA_DELTA_QP
void initLumaDeltaQpLUT();
int calculateLumaDQP ( const CPelBuf& rcOrg );
#endif
void setFastDeltaQp ( bool b ) { m_fastDeltaQP = b; }
bool getFastDeltaQp () const { return m_fastDeltaQP; }
double getBestInterCost () const { return m_ComprCUCtxList.back().bestInterCost; }
Distortion getInterHad () const { return m_ComprCUCtxList.back().interHad; }
void enforceInterHad ( Distortion had ) { m_ComprCUCtxList.back().interHad = had; }
double getMtsSize2Nx2NFirstPassCost () const { return m_ComprCUCtxList.back().bestMtsSize2Nx2N1stPass; }
bool getSkipSecondMTSPass () const { return m_ComprCUCtxList.back().skipSecondMTSPass; }
void setSkipSecondMTSPass ( bool b ) { m_ComprCUCtxList.back().skipSecondMTSPass = b; }
double getBestCostWithoutSplitFlags () const { return m_ComprCUCtxList.back().bestCostWithoutSplitFlags; }
void setBestCostWithoutSplitFlags ( double cost ) { m_ComprCUCtxList.back().bestCostWithoutSplitFlags = cost; }
double getMtsFirstPassNoIspCost () const { return m_ComprCUCtxList.back().bestCostMtsFirstPassNoIsp; }
void setMtsFirstPassNoIspCost ( double cost ) { m_ComprCUCtxList.back().bestCostMtsFirstPassNoIsp = cost; }
double getIspCost () const { return m_ComprCUCtxList.back().bestCostIsp; }
void setIspCost ( double val ) { m_ComprCUCtxList.back().bestCostIsp = val; }
#if INTRA_TRANS_ENC_OPT
void resetLfnstCost () { m_ComprCUCtxList.back().bestLfnstCost[0] = m_ComprCUCtxList.back().bestLfnstCost[1] = MAX_DOUBLE; }
#endif
bool getISPWasTested () const { return m_ComprCUCtxList.back().ispWasTested; }
void setISPWasTested ( bool val ) { m_ComprCUCtxList.back().ispWasTested = val; }
void setBestPredModeDCT2 ( uint16_t val ) { m_ComprCUCtxList.back().bestPredModeDCT2 = val; }
uint16_t getBestPredModeDCT2 () const { return m_ComprCUCtxList.back().bestPredModeDCT2; }
bool getRelatedCuIsValid () const { return m_ComprCUCtxList.back().relatedCuIsValid; }
void setRelatedCuIsValid ( bool val ) { m_ComprCUCtxList.back().relatedCuIsValid = val; }
uint16_t getIspPredModeValRelCU () const { return m_ComprCUCtxList.back().ispPredModeVal; }
void setIspPredModeValRelCU ( uint16_t val ) { m_ComprCUCtxList.back().ispPredModeVal = val; }
double getBestDCT2NonISPCostRelCU () const { return m_ComprCUCtxList.back().bestDCT2NonISPCost; }
void setBestDCT2NonISPCostRelCU ( double val ) { m_ComprCUCtxList.back().bestDCT2NonISPCost = val; }
double getBestNonDCT2Cost () const { return m_ComprCUCtxList.back().bestNonDCT2Cost; }
void setBestNonDCT2Cost ( double val ) { m_ComprCUCtxList.back().bestNonDCT2Cost = val; }
uint8_t getBestISPIntraModeRelCU () const { return m_ComprCUCtxList.back().bestISPIntraMode; }
void setBestISPIntraModeRelCU ( uint8_t val ) { m_ComprCUCtxList.back().bestISPIntraMode = val; }
#if JVET_V0130_INTRA_TMP
void setTPMFlagISPPass (bool val) { m_ComprCUCtxList.back().tmpFlag = val; }#endif
void setMIPFlagISPPass ( bool val ) { m_ComprCUCtxList.back().mipFlag = val; }
void setISPMode ( uint8_t val ) { m_ComprCUCtxList.back().ispMode = val; }
void setISPLfnstIdx ( uint8_t val ) { m_ComprCUCtxList.back().ispLfnstIdx = val; }
bool getStopNonDCT2Transforms () const { return m_ComprCUCtxList.back().stopNonDCT2Transforms; }
void setStopNonDCT2Transforms ( bool val ) { m_ComprCUCtxList.back().stopNonDCT2Transforms = val; }
void setInterSearch (InterSearch* pcInterSearch) { m_pcInterSearch = pcInterSearch; }
void setPltEnc ( bool b ) { m_doPlt = b; }
bool getPltEnc() const { return m_doPlt; }
#if JVET_Y0240_BIM
void setBIMQPMap ( std::map<int, int*> *qpMap ) { m_bimQPMap = qpMap; }
int getBIMOffset ( int poc, int ctuId )
{
auto it = m_bimQPMap->find(poc);
return (it == m_bimQPMap->end()) ? 0 : (*m_bimQPMap)[poc][ctuId];
}
#endif
#if JVET_Z0118_GDR
void forceIntraMode()
{
// remove all inter or split to force make intra
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (isModeInter(etm.type))
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceIntraNoSplit()
{
// remove all inter or split to force make intra
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (isModeInter(etm.type) || isModeSplit(etm.type))
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
// Note: ForceInterMode
void forceInterMode()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_INTRA)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void removeHashInter()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_HASH_INTER)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void removeMergeSkip()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_MERGE_SKIP)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void removeInterME()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_INTER_ME)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
#if !MERGE_ENC_OPT
void removeAffine()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_AFFINE)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
#endif
void removeMergeGeo()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_MERGE_GEO)
{ m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void removeIntra()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_INTRA)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void removeBadMode()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_INTER_ME && ((etm.opts & ETO_IMV) >> ETO_IMV_SHIFT) > 2)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
break;
}
}
}
bool anyPredModeLeft()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_HASH_INTER ||
etm.type == ETM_MERGE_SKIP ||
etm.type == ETM_INTER_ME ||
#if !MERGE_ENC_OPT
etm.type == ETM_AFFINE ||
#endif
etm.type == ETM_MERGE_GEO ||
etm.type == ETM_INTRA ||
etm.type == ETM_PALETTE ||
etm.type == ETM_IBC ||
etm.type == ETM_IBC_MERGE) {
return true;
}
}
return false;
}
bool anyIntraIBCMode()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_INTRA || etm.type == ETM_IBC)
{
return true;
}
}
return false;
}
void forceRemovePredMode()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (
etm.type == ETM_HASH_INTER
|| etm.type == ETM_MERGE_SKIP
|| etm.type == ETM_INTER_ME
#if !MERGE_ENC_OPT
|| etm.type == ETM_AFFINE
#endif
#if AFFINE_MMVD && !MERGE_ENC_OPT
|| etm.type == ETM_AF_MMVD
#endif
#if TM_MRG && !MERGE_ENC_OPT
|| etm.type == ETM_MERGE_TM
#endif
|| etm.type == ETM_MERGE_GEO
|| etm.type == ETM_INTRA
|| etm.type == ETM_PALETTE
|| etm.type == ETM_IBC
|| etm.type == ETM_IBC_MERGE
#if MULTI_HYP_PRED
|| etm.type == ETM_INTER_MULTIHYP
#endif
)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveDontSplit()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_POST_DONT_SPLIT)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceVerSplitOnly()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_BT_H || etm.type == ETM_SPLIT_TT_H)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveTTH()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_TT_H)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveTTV()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_TT_V)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveBTH()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_BT_H)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveBTV()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_BT_V)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
} }
}
void forceRemoveQT()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_QT)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveHT()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_BT_H || etm.type == ETM_SPLIT_TT_H)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveQTHT()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_QT || etm.type == ETM_SPLIT_BT_H || etm.type == ETM_SPLIT_TT_H)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceRemoveAllSplit()
{
int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type == ETM_SPLIT_QT || etm.type == ETM_SPLIT_BT_H || etm.type == ETM_SPLIT_BT_V || etm.type == ETM_SPLIT_TT_H || etm.type == ETM_SPLIT_TT_V)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
void forceQTonlyMode()
{
// remove all split except QT int n = (int)m_ComprCUCtxList.back().testModes.size();
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
if (etm.type != ETM_SPLIT_QT)
{
m_ComprCUCtxList.back().testModes.erase(m_ComprCUCtxList.back().testModes.begin() + j);
j--;
n--;
}
}
}
const char* printType(EncTestModeType type)
{
char *ret;
switch (type)
{
case ETM_HASH_INTER: ret = strdup("Hash"); break;
case ETM_MERGE_SKIP: ret = strdup("Mkip"); break;
case ETM_INTER_ME: ret = strdup("InterMe"); break;
#if !MERGE_ENC_OPT
case ETM_AFFINE: ret = strdup("Affi"); break;
#endif
#if AFFINE_MMVD && !MERGE_ENC_OPT
case ETM_AF_MMVD: ret = strdup("AfMMVD"); break;
#endif
#if TM_MRG && !MERGE_ENC_OPT
case ETM_MERGE_TM: ret = strdup("MergeTM"); break;
#endif
case ETM_MERGE_GEO: ret = strdup("MergeGeo"); break;
case ETM_INTRA: ret = strdup("Intra"); break;
case ETM_PALETTE: ret = strdup("Palet"); break;
case ETM_SPLIT_QT: ret = strdup("QT"); break;
case ETM_SPLIT_BT_H: ret = strdup("BTH"); break;
case ETM_SPLIT_BT_V: ret = strdup("BTV"); break;
case ETM_SPLIT_TT_H: ret = strdup("TTH"); break;
case ETM_SPLIT_TT_V: ret = strdup("TTV"); break;
case ETM_POST_DONT_SPLIT: ret = strdup("|"); break;
#if REUSE_CU_RESULTS
case ETM_RECO_CACHED: ret = strdup("CACHE"); break;
#endif
case ETM_TRIGGER_IMV_LIST: ret = strdup("TrigIMVList"); break;
case ETM_IBC: ret = strdup("IBC"); break;
case ETM_IBC_MERGE: ret = strdup("IBCMerge"); break;
#if MULTI_HYP_PRED
case ETM_INTER_MULTIHYP: ret = strdup("MulHyp"); break;
#endif
default:
ret = strdup("INVALID");
}
return ret;
}
void printMode()
{
// remove all inter or split to force make intra
int n = (int)m_ComprCUCtxList.back().testModes.size();
printf("-:[");
for (int j = 0; j < n; j++)
{
const EncTestMode etm = m_ComprCUCtxList.back().testModes[j];
printf(" %s", printType(etm.type));
}
printf("]\n");
}#endif
protected:
void xExtractFeatures ( const EncTestMode encTestmode, CodingStructure& cs );
void xGetMinMaxQP ( int& iMinQP, int& iMaxQP, const CodingStructure& cs, const Partitioner &pm, const int baseQP, const SPS& sps, const PPS& pps, const PartSplit splitMode );
int xComputeDQP ( const CodingStructure &cs, const Partitioner &pm );
};
//////////////////////////////////////////////////////////////////////////
// some utility interfaces that expose some functionality that can be used without concerning about which particular controller is used
//////////////////////////////////////////////////////////////////////////
struct SaveLoadStructSbt
{
uint8_t numPuInfoStored;
uint32_t puSse[SBT_NUM_SL];
uint8_t puSbt[SBT_NUM_SL];
uint8_t puTrs[SBT_NUM_SL];
};
class SaveLoadEncInfoSbt
{
protected:
#if ENABLE_SPLIT_PARALLELISM
public:
#endif
void init( const Slice &slice );
#if ENABLE_SPLIT_PARALLELISM
protected:
#endif
void create();
void destroy();
private:
SaveLoadStructSbt ****m_saveLoadSbt;
Slice const *m_sliceSbt;
public:
virtual ~SaveLoadEncInfoSbt() { }
void resetSaveloadSbt( int maxSbtSize );
uint16_t findBestSbt( const UnitArea& area, const uint32_t curPuSse );
bool saveBestSbt( const UnitArea& area, const uint32_t curPuSse, const uint8_t curPuSbt, const uint8_t curPuTrs );
#if ENABLE_SPLIT_PARALLELISM
void copyState(const SaveLoadEncInfoSbt& other);
#endif
};
static const int MAX_STORED_CU_INFO_REFS = 4;
struct CodedCUInfo
{
bool isInter;
bool isIntra;
bool isSkip;
bool isMMVDSkip;
bool isIBC;
#if JVET_W0097_GPM_MMVD_TM
bool skipGPM;
char isGPMTested;
int geoDirCandList[GEO_MAX_TRY_WEIGHTED_SATD];
int numGeoDirCand;
int geoMrgIdx0List[GEO_MAX_TRY_WEIGHTED_SATD];
int geoMrgIdx1List[GEO_MAX_TRY_WEIGHTED_SATD];
#endif
#if JVET_AD0213_LIC_IMP
bool skipLIC;
#endif
#if JVET_AA0070_RRIBC
bool isRribcCoded;
bool isRribcTested;#endif
bool validMv[NUM_REF_PIC_LIST_01][MAX_STORED_CU_INFO_REFS];
Mv saveMv [NUM_REF_PIC_LIST_01][MAX_STORED_CU_INFO_REFS];
#if MULTI_HYP_PRED
uint8_t numAddHyp;
#endif
uint8_t bcwIdx;
char selectColorSpaceOption; // 0 - test both two color spaces; 1 - only test the first color spaces; 2 - only test the second color spaces
uint16_t ispPredModeVal;
double bestDCT2NonISPCost;
double bestCost;
double bestNonDCT2Cost;
bool relatedCuIsValid;
uint8_t bestISPIntraMode;
#if INTRA_TRANS_ENC_OPT
double bestCostForLfnst;
bool relatedCuLfnstIsValid;
bool skipLfnstTest;
#endif
#if ENABLE_SPLIT_PARALLELISM
uint64_t temporalId;
#endif
#if JVET_AB0092_GLM_WITH_LUMA
bool skipGLM;
#endif
};
class CacheBlkInfoCtrl
{
private:
unsigned m_numWidths, m_numHeights;
Slice const *m_slice_chblk;
// x in CTU, y in CTU, width, height
CodedCUInfo ***m_codedCUInfo[MAX_CU_SIZE >> MIN_CU_LOG2][MAX_CU_SIZE >> MIN_CU_LOG2];
protected:
void create ();
void destroy ();
#if ENABLE_SPLIT_PARALLELISM
public:
#endif
void init ( const Slice &slice );
#if ENABLE_SPLIT_PARALLELISM
private:
uint64_t
m_currTemporalId;
public:
void tick () { m_currTemporalId++; CHECK( m_currTemporalId <= 0, "Problem with integer overflow!" ); }
// mark the state of the blk as changed within the current temporal id
void copyState( const CacheBlkInfoCtrl &other, const UnitArea& area );
protected:
void touch ( const UnitArea& area );
#endif
#if JVET_W0097_GPM_MMVD_TM || INTRA_TRANS_ENC_OPT
public:
#endif
CodedCUInfo& getBlkInfo( const UnitArea& area );
public:
virtual ~CacheBlkInfoCtrl() {}
bool isSkip ( const UnitArea& area );
bool isMMVDSkip(const UnitArea& area);
bool getMv ( const UnitArea& area, const RefPicList refPicList, const int iRefIdx, Mv& rMv ) const;
void setMv ( const UnitArea& area, const RefPicList refPicList, const int iRefIdx, const Mv& rMv );
bool getInter( const UnitArea& area );
void setBcwIdx( const UnitArea& area, uint8_t gBiIdx );
uint8_t getBcwIdx( const UnitArea& area );
char getSelectColorSpaceOption(const UnitArea& area);
};
#if REUSE_CU_RESULTS
struct BestEncodingInfo
{
CodingUnit cu;
PredictionUnit pu;
#if CONVERT_NUM_TU_SPLITS_TO_CFG
std::vector<TransformUnit> tus;
size_t numTus;
#elif REUSE_CU_RESULTS_WITH_MULTIPLE_TUS
TransformUnit tus[MAX_NUM_TUS];
size_t numTus;
#else
TransformUnit tu;
#endif
EncTestMode testMode;
int poc;
#if ENABLE_SPLIT_PARALLELISM
int64_t temporalId;
#endif
};
class BestEncInfoCache
{
private:
unsigned m_numWidths, m_numHeights;
const Slice *m_slice_bencinf;
BestEncodingInfo ***m_bestEncInfo[MAX_CU_SIZE >> MIN_CU_LOG2][MAX_CU_SIZE >> MIN_CU_LOG2];
TCoeff *m_pCoeff;
#if SIGN_PREDICTION
TCoeff *m_pCoeffSign;
#if JVET_Y0141_SIGN_PRED_IMPROVE
unsigned *m_pCoeffSignScanIdx;
#endif
#endif
Pel *m_pPcmBuf;
bool *m_runType;
CodingStructure m_dummyCS;
XUCache m_dummyCache;
#if ENABLE_SPLIT_PARALLELISM
int64_t m_currTemporalId;
#endif
#if CONVERT_NUM_TU_SPLITS_TO_CFG
int m_maxNumTUs;
#endif
protected:
#if CONVERT_NUM_TU_SPLITS_TO_CFG
void create ( const ChromaFormat chFmt, const int maxNumTUs );
#else
void create ( const ChromaFormat chFmt );
#endif
void destroy ();
bool setFromCs( const CodingStructure& cs, const Partitioner& partitioner );
bool isValid ( const CodingStructure &cs, const Partitioner &partitioner, int qp );
#if ENABLE_SPLIT_PARALLELISM
void touch ( const UnitArea& area );
#endifpublic:
BestEncInfoCache() : m_slice_bencinf( nullptr ), m_dummyCS( m_dummyCache.cuCache, m_dummyCache.puCache, m_dummyCache.tuCache ) {}
virtual ~BestEncInfoCache() {}
#if ENABLE_SPLIT_PARALLELISM
void copyState( const BestEncInfoCache &other, const UnitArea &area );
void tick () { m_currTemporalId++; CHECK( m_currTemporalId <= 0, "Problem with integer overflow!" ); }
#endif
void init ( const Slice &slice );
bool setCsFrom( CodingStructure& cs, EncTestMode& testMode, const Partitioner& partitioner ) const;
};
#endif
//////////////////////////////////////////////////////////////////////////
// EncModeCtrlMTnoRQT - allows and controls modes introduced by QTBT (inkl. multi-type-tree)
// - only 2Nx2N, no RQT, additional binary/triary CU splits
//////////////////////////////////////////////////////////////////////////
#if JVET_W0097_GPM_MMVD_TM
enum ExtraFeatures
{
DID_HORZ_SPLIT = 0,
DID_VERT_SPLIT,
DID_QUAD_SPLIT,
BEST_HORZ_SPLIT_COST,
BEST_VERT_SPLIT_COST,
BEST_TRIH_SPLIT_COST,
BEST_TRIV_SPLIT_COST,
DO_TRIH_SPLIT,
DO_TRIV_SPLIT,
BEST_NON_SPLIT_COST,
BEST_NO_IMV_COST,
BEST_IMV_COST,
BEST_GPM_COST,
#if JVET_AD0213_LIC_IMP
BEST_LIC_COST,
#endif
QT_BEFORE_BT,
IS_BEST_NOSPLIT_SKIP,
MAX_QT_SUB_DEPTH,
#if REUSE_CU_RESULTS
IS_REUSING_CU,
#endif
#if JVET_AD0208_IBC_ADAPT_FOR_CAM_CAPTURED_CONTENTS
BEST_INTRA_NZ_CNT,
#endif
NUM_EXTRA_FEATURES
};
#endif
class EncModeCtrlMTnoRQT : public EncModeCtrl, public CacheBlkInfoCtrl
#if REUSE_CU_RESULTS
, public BestEncInfoCache
#endif
, public SaveLoadEncInfoSbt
{
#if !JVET_W0097_GPM_MMVD_TM
enum ExtraFeatures
{
DID_HORZ_SPLIT = 0,
DID_VERT_SPLIT,
DID_QUAD_SPLIT,
BEST_HORZ_SPLIT_COST,
BEST_VERT_SPLIT_COST,
BEST_TRIH_SPLIT_COST,
BEST_TRIV_SPLIT_COST,
DO_TRIH_SPLIT,
DO_TRIV_SPLIT,
BEST_NON_SPLIT_COST,
BEST_NO_IMV_COST,
BEST_IMV_COST,#if JVET_AD0213_LIC_IMP
BEST_LIC_COST,
#endif
QT_BEFORE_BT,
IS_BEST_NOSPLIT_SKIP,
MAX_QT_SUB_DEPTH,
#if REUSE_CU_RESULTS
IS_REUSING_CU,
#endif
NUM_EXTRA_FEATURES
};
#endif
unsigned m_skipThreshold;
#if JVET_Z0118_GDR
EncCfg m_encCfg;
#endif
public:
virtual void create ( const EncCfg& cfg );
virtual void destroy ();
virtual void initCTUEncoding ( const Slice &slice );
virtual void initCULevel ( Partitioner &partitioner, const CodingStructure& cs );
virtual void finishCULevel ( Partitioner &partitioner );
virtual bool tryMode ( const EncTestMode& encTestmode, const CodingStructure &cs, Partitioner& partitioner );
virtual bool useModeResult ( const EncTestMode& encTestmode, CodingStructure*& tempCS, Partitioner& partitioner );
#if ENABLE_SPLIT_PARALLELISM
virtual void copyState ( const EncModeCtrl& other, const UnitArea& area );
virtual int getNumParallelJobs ( const CodingStructure &cs, Partitioner& partitioner ) const;
virtual bool isParallelSplit ( const CodingStructure &cs, Partitioner& partitioner ) const;
virtual bool parallelJobSelector( const EncTestMode& encTestmode, const CodingStructure &cs, Partitioner& partitioner ) const;
#endif
virtual bool checkSkipOtherLfnst( const EncTestMode& encTestmode, CodingStructure*& tempCS, Partitioner& partitioner );
#if JVET_Y0152_TT_ENC_SPEEDUP
bool xSkipTreeCandidate(const PartSplit split, const double* splitRdCostBest, const SliceType& sliceType) const;
#endif
};
//! \}
#endif // __ENCMODECTRL__