Select Git revision
EncModeCtrl.h
Slice.h 156.21 KiB
/* The copyright in this software is being made available under the BSD
* License, included below. This software may be subject to other third party
* and contributor rights, including patent rights, and no such rights are
* granted under this license.
*
* Copyright (c) 2010-2018, ITU/ISO/IEC
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions are met:
*
* * Redistributions of source code must retain the above copyright notice,
* this list of conditions and the following disclaimer.
* * Redistributions in binary form must reproduce the above copyright notice,
* this list of conditions and the following disclaimer in the documentation
* and/or other materials provided with the distribution.
* * Neither the name of the ITU/ISO/IEC nor the names of its contributors may
* be used to endorse or promote products derived from this software without
* specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS"
* AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
* IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
* ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS
* BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
* CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
* SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
* INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
* CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
* ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF
* THE POSSIBILITY OF SUCH DAMAGE.
*/
/** \file Slice.h
\brief slice header and SPS class (header)
*/
#ifndef __SLICE__
#define __SLICE__
#include <cstring>
#include <list>
#include <map>
#include <vector>
#include "CommonDef.h"
#include "Rom.h"
#include "ChromaFormat.h"
#include "Common.h"
//! \ingroup CommonLib
//! \{
#if JVET_L0266_HMVP
#include "CommonLib/MotionInfo.h"
struct MotionInfo;
#endif
struct Picture;
class Pic;
class TrQuant;
// ====================================================================================================================
// Constants
// ====================================================================================================================
class PreCalcValues;
static const uint32_t REF_PIC_LIST_NUM_IDX=32;
typedef std::list<Picture*> PicList;
// ====================================================================================================================
// Class definition// ====================================================================================================================
/// Reference Picture Set class
class ReferencePictureSet
{
private:
int m_numberOfPictures;
int m_numberOfNegativePictures;
int m_numberOfPositivePictures;
int m_numberOfLongtermPictures;
int m_deltaPOC[MAX_NUM_REF_PICS];
int m_POC[MAX_NUM_REF_PICS];
bool m_used[MAX_NUM_REF_PICS];
bool m_interRPSPrediction;
int m_deltaRIdxMinus1;
int m_deltaRPS;
int m_numRefIdc;
int m_refIdc[MAX_NUM_REF_PICS+1];
bool m_bCheckLTMSB[MAX_NUM_REF_PICS];
int m_pocLSBLT[MAX_NUM_REF_PICS];
int m_deltaPOCMSBCycleLT[MAX_NUM_REF_PICS];
bool m_deltaPocMSBPresentFlag[MAX_NUM_REF_PICS];
public:
ReferencePictureSet();
virtual ~ReferencePictureSet();
int getPocLSBLT(int i) const { return m_pocLSBLT[i]; }
void setPocLSBLT(int i, int x) { m_pocLSBLT[i] = x; }
int getDeltaPocMSBCycleLT(int i) const { return m_deltaPOCMSBCycleLT[i]; }
void setDeltaPocMSBCycleLT(int i, int x) { m_deltaPOCMSBCycleLT[i] = x; }
bool getDeltaPocMSBPresentFlag(int i) const { return m_deltaPocMSBPresentFlag[i]; }
void setDeltaPocMSBPresentFlag(int i, bool x) { m_deltaPocMSBPresentFlag[i] = x; }
void setUsed(int bufferNum, bool used);
void setDeltaPOC(int bufferNum, int deltaPOC);
void setPOC(int bufferNum, int deltaPOC);
void setNumberOfPictures(int numberOfPictures);
void setCheckLTMSBPresent(int bufferNum, bool b );
bool getCheckLTMSBPresent(int bufferNum) const;
int getUsed(int bufferNum) const;
int getDeltaPOC(int bufferNum) const;
int getPOC(int bufferNum) const;
int getNumberOfPictures() const;
void setNumberOfNegativePictures(int number) { m_numberOfNegativePictures = number; }
int getNumberOfNegativePictures() const { return m_numberOfNegativePictures; }
void setNumberOfPositivePictures(int number) { m_numberOfPositivePictures = number; }
int getNumberOfPositivePictures() const { return m_numberOfPositivePictures; }
void setNumberOfLongtermPictures(int number) { m_numberOfLongtermPictures = number; }
int getNumberOfLongtermPictures() const { return m_numberOfLongtermPictures; }
void setInterRPSPrediction(bool flag) { m_interRPSPrediction = flag; }
bool getInterRPSPrediction() const { return m_interRPSPrediction; }
void setDeltaRIdxMinus1(int x) { m_deltaRIdxMinus1 = x; }
int getDeltaRIdxMinus1() const { return m_deltaRIdxMinus1; }
void setDeltaRPS(int x) { m_deltaRPS = x; }
int getDeltaRPS() const { return m_deltaRPS; }
void setNumRefIdc(int x) { m_numRefIdc = x; }
int getNumRefIdc() const { return m_numRefIdc; }
void setRefIdc(int bufferNum, int refIdc);
int getRefIdc(int bufferNum) const ;
void sortDeltaPOC();
void printDeltaPOC() const;
};
/// Reference Picture Set set class
class RPSList
{private:
std::vector<ReferencePictureSet> m_referencePictureSets;
public:
RPSList() { }
virtual ~RPSList() { }
void create (int numberOfEntries) { m_referencePictureSets.resize(numberOfEntries); }
void destroy () { }
ReferencePictureSet* getReferencePictureSet(int referencePictureSetNum) { return &m_referencePictureSets[referencePictureSetNum]; }
const ReferencePictureSet* getReferencePictureSet(int referencePictureSetNum) const { return &m_referencePictureSets[referencePictureSetNum]; }
int getNumberOfReferencePictureSets() const { return int(m_referencePictureSets.size()); }
};
#if HEVC_USE_SCALING_LISTS
/// SCALING_LIST class
class ScalingList
{
public:
ScalingList();
virtual ~ScalingList() { }
int* getScalingListAddress(uint32_t sizeId, uint32_t listId) { return &(m_scalingListCoef[sizeId][listId][0]); } //!< get matrix coefficient
const int* getScalingListAddress(uint32_t sizeId, uint32_t listId) const { return &(m_scalingListCoef[sizeId][listId][0]); } //!< get matrix coefficient
void checkPredMode(uint32_t sizeId, uint32_t listId);
void setRefMatrixId(uint32_t sizeId, uint32_t listId, uint32_t u) { m_refMatrixId[sizeId][listId] = u; } //!< set reference matrix ID
uint32_t getRefMatrixId(uint32_t sizeId, uint32_t listId) const { return m_refMatrixId[sizeId][listId]; } //!< get reference matrix ID
const int* getScalingListDefaultAddress(uint32_t sizeId, uint32_t listId); //!< get default matrix coefficient
void processDefaultMatrix(uint32_t sizeId, uint32_t listId);
void setScalingListDC(uint32_t sizeId, uint32_t listId, uint32_t u) { m_scalingListDC[sizeId][listId] = u; } //!< set DC value
int getScalingListDC(uint32_t sizeId, uint32_t listId) const { return m_scalingListDC[sizeId][listId]; } //!< get DC value
void setScalingListPredModeFlag(uint32_t sizeId, uint32_t listId, bool bIsDPCM) { m_scalingListPredModeFlagIsDPCM[sizeId][listId] = bIsDPCM; }
bool getScalingListPredModeFlag(uint32_t sizeId, uint32_t listId) const { return m_scalingListPredModeFlagIsDPCM[sizeId][listId]; }
void checkDcOfMatrix();
void processRefMatrix(uint32_t sizeId, uint32_t listId , uint32_t refListId );
bool xParseScalingList(const std::string &fileName);
void setDefaultScalingList();
bool checkDefaultScalingList();
private:
void outputScalingLists(std::ostream &os) const;
bool m_scalingListPredModeFlagIsDPCM [SCALING_LIST_SIZE_NUM][SCALING_LIST_NUM]; //!< reference list index
int m_scalingListDC [SCALING_LIST_SIZE_NUM][SCALING_LIST_NUM]; //!< the DC value of the matrix coefficient for 16x16
uint32_t m_refMatrixId [SCALING_LIST_SIZE_NUM][SCALING_LIST_NUM]; //!< RefMatrixID
std::vector<int> m_scalingListCoef [SCALING_LIST_SIZE_NUM][SCALING_LIST_NUM]; //!< quantization matrix
};
#endif
class ProfileTierLevel
{
int m_profileSpace;
Level::Tier m_tierFlag;
Profile::Name m_profileIdc;
bool m_profileCompatibilityFlag[32];
Level::Name m_levelIdc;
bool m_progressiveSourceFlag;
bool m_interlacedSourceFlag;
bool m_nonPackedConstraintFlag;
bool m_frameOnlyConstraintFlag;
uint32_t m_bitDepthConstraintValue;
ChromaFormat m_chromaFormatConstraintValue;
bool m_intraConstraintFlag; bool m_onePictureOnlyConstraintFlag;
bool m_lowerBitRateConstraintFlag;
public:
ProfileTierLevel();
int getProfileSpace() const { return m_profileSpace; }
void setProfileSpace(int x) { m_profileSpace = x; }
Level::Tier getTierFlag() const { return m_tierFlag; }
void setTierFlag(Level::Tier x) { m_tierFlag = x; }
Profile::Name getProfileIdc() const { return m_profileIdc; }
void setProfileIdc(Profile::Name x) { m_profileIdc = x; }
bool getProfileCompatibilityFlag(int i) const { return m_profileCompatibilityFlag[i]; }
void setProfileCompatibilityFlag(int i, bool x) { m_profileCompatibilityFlag[i] = x; }
Level::Name getLevelIdc() const { return m_levelIdc; }
void setLevelIdc(Level::Name x) { m_levelIdc = x; }
bool getProgressiveSourceFlag() const { return m_progressiveSourceFlag; }
void setProgressiveSourceFlag(bool b) { m_progressiveSourceFlag = b; }
bool getInterlacedSourceFlag() const { return m_interlacedSourceFlag; }
void setInterlacedSourceFlag(bool b) { m_interlacedSourceFlag = b; }
bool getNonPackedConstraintFlag() const { return m_nonPackedConstraintFlag; }
void setNonPackedConstraintFlag(bool b) { m_nonPackedConstraintFlag = b; }
bool getFrameOnlyConstraintFlag() const { return m_frameOnlyConstraintFlag; }
void setFrameOnlyConstraintFlag(bool b) { m_frameOnlyConstraintFlag = b; }
uint32_t getBitDepthConstraint() const { return m_bitDepthConstraintValue; }
void setBitDepthConstraint(uint32_t bitDepth) { m_bitDepthConstraintValue=bitDepth; }
ChromaFormat getChromaFormatConstraint() const { return m_chromaFormatConstraintValue; }
void setChromaFormatConstraint(ChromaFormat fmt) { m_chromaFormatConstraintValue=fmt; }
bool getIntraConstraintFlag() const { return m_intraConstraintFlag; }
void setIntraConstraintFlag(bool b) { m_intraConstraintFlag = b; }
bool getOnePictureOnlyConstraintFlag() const { return m_onePictureOnlyConstraintFlag;}
void setOnePictureOnlyConstraintFlag(bool b) { m_onePictureOnlyConstraintFlag = b; }
bool getLowerBitRateConstraintFlag() const { return m_lowerBitRateConstraintFlag; }
void setLowerBitRateConstraintFlag(bool b) { m_lowerBitRateConstraintFlag = b; }
};
class PTL
{
ProfileTierLevel m_generalPTL;
ProfileTierLevel m_subLayerPTL [MAX_TLAYER-1]; // max. value of max_sub_layers_minus1 is MAX_TLAYER-1 (= 6)
bool m_subLayerProfilePresentFlag [MAX_TLAYER-1];
bool m_subLayerLevelPresentFlag [MAX_TLAYER-1];
public:
PTL();
bool getSubLayerProfilePresentFlag(int i) const { return m_subLayerProfilePresentFlag[i]; }
void setSubLayerProfilePresentFlag(int i, bool x) { m_subLayerProfilePresentFlag[i] = x; }
bool getSubLayerLevelPresentFlag(int i) const { return m_subLayerLevelPresentFlag[i]; }
void setSubLayerLevelPresentFlag(int i, bool x) { m_subLayerLevelPresentFlag[i] = x; }
ProfileTierLevel* getGeneralPTL() { return &m_generalPTL; }
const ProfileTierLevel* getGeneralPTL() const { return &m_generalPTL; }
ProfileTierLevel* getSubLayerPTL(int i) { return &m_subLayerPTL[i]; }
const ProfileTierLevel* getSubLayerPTL(int i) const { return &m_subLayerPTL[i]; }
};
struct HrdSubLayerInfo
{
bool fixedPicRateFlag;
bool fixedPicRateWithinCvsFlag;
uint32_t picDurationInTcMinus1;
bool lowDelayHrdFlag;
uint32_t cpbCntMinus1;
uint32_t bitRateValueMinus1[MAX_CPB_CNT][2];
uint32_t cpbSizeValue [MAX_CPB_CNT][2];
uint32_t ducpbSizeValue [MAX_CPB_CNT][2];
bool cbrFlag [MAX_CPB_CNT][2];
uint32_t duBitRateValue [MAX_CPB_CNT][2];
};
class HRD
{
private:
bool m_nalHrdParametersPresentFlag;
bool m_vclHrdParametersPresentFlag;
bool m_subPicCpbParamsPresentFlag;
uint32_t m_tickDivisorMinus2;
uint32_t m_duCpbRemovalDelayLengthMinus1;
bool m_subPicCpbParamsInPicTimingSEIFlag;
uint32_t m_dpbOutputDelayDuLengthMinus1;
uint32_t m_bitRateScale;
uint32_t m_cpbSizeScale;
uint32_t m_ducpbSizeScale;
uint32_t m_initialCpbRemovalDelayLengthMinus1;
uint32_t m_cpbRemovalDelayLengthMinus1;
uint32_t m_dpbOutputDelayLengthMinus1;
HrdSubLayerInfo m_HRD[MAX_TLAYER];
public:
HRD()
:m_nalHrdParametersPresentFlag (0)
,m_vclHrdParametersPresentFlag (0)
,m_subPicCpbParamsPresentFlag (false)
,m_tickDivisorMinus2 (0)
,m_duCpbRemovalDelayLengthMinus1 (0)
,m_subPicCpbParamsInPicTimingSEIFlag (false)
,m_dpbOutputDelayDuLengthMinus1 (0)
,m_bitRateScale (0)
,m_cpbSizeScale (0)
,m_initialCpbRemovalDelayLengthMinus1(23)
,m_cpbRemovalDelayLengthMinus1 (23)
,m_dpbOutputDelayLengthMinus1 (23)
{}
virtual ~HRD() {}
void setNalHrdParametersPresentFlag( bool flag ) { m_nalHrdParametersPresentFlag = flag; }
bool getNalHrdParametersPresentFlag( ) const { return m_nalHrdParametersPresentFlag; }
void setVclHrdParametersPresentFlag( bool flag ) { m_vclHrdParametersPresentFlag = flag; }
bool getVclHrdParametersPresentFlag( ) const { return m_vclHrdParametersPresentFlag; }
void setSubPicCpbParamsPresentFlag( bool flag ) { m_subPicCpbParamsPresentFlag = flag; }
bool getSubPicCpbParamsPresentFlag( ) const { return m_subPicCpbParamsPresentFlag; }
void setTickDivisorMinus2( uint32_t value ) { m_tickDivisorMinus2 = value; }
uint32_t getTickDivisorMinus2( ) const { return m_tickDivisorMinus2; }
void setDuCpbRemovalDelayLengthMinus1( uint32_t value ) { m_duCpbRemovalDelayLengthMinus1 = value; }
uint32_t getDuCpbRemovalDelayLengthMinus1( ) const { return m_duCpbRemovalDelayLengthMinus1; }
void setSubPicCpbParamsInPicTimingSEIFlag( bool flag) { m_subPicCpbParamsInPicTimingSEIFlag = flag; }
bool getSubPicCpbParamsInPicTimingSEIFlag( ) const { return m_subPicCpbParamsInPicTimingSEIFlag; }
void setDpbOutputDelayDuLengthMinus1(uint32_t value ) { m_dpbOutputDelayDuLengthMinus1 = value; } uint32_t getDpbOutputDelayDuLengthMinus1( ) const { return m_dpbOutputDelayDuLengthMinus1; }
void setBitRateScale( uint32_t value ) { m_bitRateScale = value; }
uint32_t getBitRateScale( ) const { return m_bitRateScale; }
void setCpbSizeScale( uint32_t value ) { m_cpbSizeScale = value; }
uint32_t getCpbSizeScale( ) const { return m_cpbSizeScale; }
void setDuCpbSizeScale( uint32_t value ) { m_ducpbSizeScale = value; }
uint32_t getDuCpbSizeScale( ) const { return m_ducpbSizeScale; }
void setInitialCpbRemovalDelayLengthMinus1( uint32_t value ) { m_initialCpbRemovalDelayLengthMinus1 = value; }
uint32_t getInitialCpbRemovalDelayLengthMinus1( ) const { return m_initialCpbRemovalDelayLengthMinus1; }
void setCpbRemovalDelayLengthMinus1( uint32_t value ) { m_cpbRemovalDelayLengthMinus1 = value; }
uint32_t getCpbRemovalDelayLengthMinus1( ) const { return m_cpbRemovalDelayLengthMinus1; }
void setDpbOutputDelayLengthMinus1( uint32_t value ) { m_dpbOutputDelayLengthMinus1 = value; }
uint32_t getDpbOutputDelayLengthMinus1( ) const { return m_dpbOutputDelayLengthMinus1; }
void setFixedPicRateFlag( int layer, bool flag ) { m_HRD[layer].fixedPicRateFlag = flag; }
bool getFixedPicRateFlag( int layer ) const { return m_HRD[layer].fixedPicRateFlag; }
void setFixedPicRateWithinCvsFlag( int layer, bool flag ) { m_HRD[layer].fixedPicRateWithinCvsFlag = flag; }
bool getFixedPicRateWithinCvsFlag( int layer ) const { return m_HRD[layer].fixedPicRateWithinCvsFlag; }
void setPicDurationInTcMinus1( int layer, uint32_t value ) { m_HRD[layer].picDurationInTcMinus1 = value; }
uint32_t getPicDurationInTcMinus1( int layer ) const { return m_HRD[layer].picDurationInTcMinus1; }
void setLowDelayHrdFlag( int layer, bool flag ) { m_HRD[layer].lowDelayHrdFlag = flag; }
bool getLowDelayHrdFlag( int layer ) const { return m_HRD[layer].lowDelayHrdFlag; }
void setCpbCntMinus1( int layer, uint32_t value ) { m_HRD[layer].cpbCntMinus1 = value; }
uint32_t getCpbCntMinus1( int layer ) const { return m_HRD[layer].cpbCntMinus1; }
void setBitRateValueMinus1( int layer, int cpbcnt, int nalOrVcl, uint32_t value ) { m_HRD[layer].bitRateValueMinus1[cpbcnt][nalOrVcl] = value; }
uint32_t getBitRateValueMinus1( int layer, int cpbcnt, int nalOrVcl ) const { return m_HRD[layer].bitRateValueMinus1[cpbcnt][nalOrVcl]; }
void setCpbSizeValueMinus1( int layer, int cpbcnt, int nalOrVcl, uint32_t value ) { m_HRD[layer].cpbSizeValue[cpbcnt][nalOrVcl] = value; }
uint32_t getCpbSizeValueMinus1( int layer, int cpbcnt, int nalOrVcl ) const { return m_HRD[layer].cpbSizeValue[cpbcnt][nalOrVcl]; }
void setDuCpbSizeValueMinus1( int layer, int cpbcnt, int nalOrVcl, uint32_t value ) { m_HRD[layer].ducpbSizeValue[cpbcnt][nalOrVcl] = value; }
uint32_t getDuCpbSizeValueMinus1( int layer, int cpbcnt, int nalOrVcl ) const { return m_HRD[layer].ducpbSizeValue[cpbcnt][nalOrVcl]; }
void setDuBitRateValueMinus1( int layer, int cpbcnt, int nalOrVcl, uint32_t value ) { m_HRD[layer].duBitRateValue[cpbcnt][nalOrVcl] = value; }
uint32_t getDuBitRateValueMinus1(int layer, int cpbcnt, int nalOrVcl ) const { return m_HRD[layer].duBitRateValue[cpbcnt][nalOrVcl]; }
void setCbrFlag( int layer, int cpbcnt, int nalOrVcl, bool value ) { m_HRD[layer].cbrFlag[cpbcnt][nalOrVcl] = value; }
bool getCbrFlag( int layer, int cpbcnt, int nalOrVcl ) const { return m_HRD[layer].cbrFlag[cpbcnt][nalOrVcl]; }
bool getCpbDpbDelaysPresentFlag( ) const { return getNalHrdParametersPresentFlag() || getVclHrdParametersPresentFlag(); }
};
class TimingInfo
{
bool m_timingInfoPresentFlag;
uint32_t m_numUnitsInTick;
uint32_t m_timeScale;
bool m_pocProportionalToTimingFlag;
int m_numTicksPocDiffOneMinus1;
public:
TimingInfo()
: m_timingInfoPresentFlag (false)
, m_numUnitsInTick (1001)
, m_timeScale (60000)
, m_pocProportionalToTimingFlag(false)
, m_numTicksPocDiffOneMinus1 (0)
{}
void setTimingInfoPresentFlag( bool flag ) { m_timingInfoPresentFlag = flag; }
bool getTimingInfoPresentFlag( ) const { return m_timingInfoPresentFlag; }
void setNumUnitsInTick( uint32_t value ) { m_numUnitsInTick = value; }
uint32_t getNumUnitsInTick( ) const { return m_numUnitsInTick; }
void setTimeScale( uint32_t value ) { m_timeScale = value; }
uint32_t getTimeScale( ) const { return m_timeScale; }
void setPocProportionalToTimingFlag(bool x) { m_pocProportionalToTimingFlag = x; }
bool getPocProportionalToTimingFlag( ) const { return m_pocProportionalToTimingFlag; }
void setNumTicksPocDiffOneMinus1(int x) { m_numTicksPocDiffOneMinus1 = x; }
int getNumTicksPocDiffOneMinus1( ) const { return m_numTicksPocDiffOneMinus1; }
};
struct ChromaQpAdj
{
union
{
struct {
int CbOffset;
int CrOffset;
} comp;
int offset[2]; /* two chroma components */
} u;
};
#if HEVC_VPS
class VPS
{
private:
int m_VPSId;
uint32_t m_uiMaxTLayers;
uint32_t m_uiMaxLayers;
bool m_bTemporalIdNestingFlag;
uint32_t m_numReorderPics[MAX_TLAYER];
uint32_t m_uiMaxDecPicBuffering[MAX_TLAYER];
uint32_t m_uiMaxLatencyIncrease[MAX_TLAYER]; // Really max latency increase plus 1 (value 0 expresses no limit)
uint32_t m_numHrdParameters;
uint32_t m_maxNuhReservedZeroLayerId;
std::vector<HRD> m_hrdParameters;
std::vector<uint32_t> m_hrdOpSetIdx;
std::vector<bool> m_cprmsPresentFlag;
uint32_t m_numOpSets;
bool m_layerIdIncludedFlag[MAX_VPS_OP_SETS_PLUS1][MAX_VPS_NUH_RESERVED_ZERO_LAYER_ID_PLUS1];
PTL m_pcPTL;
TimingInfo m_timingInfo;
public:
VPS();
virtual ~VPS();
void createHrdParamBuffer()
{
m_hrdParameters .resize(getNumHrdParameters());
m_hrdOpSetIdx .resize(getNumHrdParameters());
m_cprmsPresentFlag.resize(getNumHrdParameters());
}
HRD* getHrdParameters( uint32_t i ) { return &m_hrdParameters[ i ]; }
const HRD* getHrdParameters( uint32_t i ) const { return &m_hrdParameters[ i ]; }
uint32_t getHrdOpSetIdx( uint32_t i ) const { return m_hrdOpSetIdx[ i ]; }
void setHrdOpSetIdx( uint32_t val, uint32_t i ) { m_hrdOpSetIdx[ i ] = val; }
bool getCprmsPresentFlag( uint32_t i ) const { return m_cprmsPresentFlag[ i ]; }
void setCprmsPresentFlag( bool val, uint32_t i ) { m_cprmsPresentFlag[ i ] = val; }
int getVPSId() const { return m_VPSId; }
void setVPSId(int i) { m_VPSId = i; }
uint32_t getMaxTLayers() const { return m_uiMaxTLayers; } void setMaxTLayers(uint32_t t) { m_uiMaxTLayers = t; }
uint32_t getMaxLayers() const { return m_uiMaxLayers; }
void setMaxLayers(uint32_t l) { m_uiMaxLayers = l; }
bool getTemporalNestingFlag() const { return m_bTemporalIdNestingFlag; }
void setTemporalNestingFlag(bool t) { m_bTemporalIdNestingFlag = t; }
void setNumReorderPics(uint32_t v, uint32_t tLayer) { m_numReorderPics[tLayer] = v; }
uint32_t getNumReorderPics(uint32_t tLayer) const { return m_numReorderPics[tLayer]; }
void setMaxDecPicBuffering(uint32_t v, uint32_t tLayer) { CHECK(tLayer >= MAX_TLAYER, "Invalid T-layer"); m_uiMaxDecPicBuffering[tLayer] = v; }
uint32_t getMaxDecPicBuffering(uint32_t tLayer) const { return m_uiMaxDecPicBuffering[tLayer]; }
void setMaxLatencyIncrease(uint32_t v, uint32_t tLayer) { m_uiMaxLatencyIncrease[tLayer] = v; }
uint32_t getMaxLatencyIncrease(uint32_t tLayer) const { return m_uiMaxLatencyIncrease[tLayer]; }
uint32_t getNumHrdParameters() const { return m_numHrdParameters; }
void setNumHrdParameters(uint32_t v) { m_numHrdParameters = v; }
uint32_t getMaxNuhReservedZeroLayerId() const { return m_maxNuhReservedZeroLayerId; }
void setMaxNuhReservedZeroLayerId(uint32_t v) { m_maxNuhReservedZeroLayerId = v; }
uint32_t getMaxOpSets() const { return m_numOpSets; }
void setMaxOpSets(uint32_t v) { m_numOpSets = v; }
bool getLayerIdIncludedFlag(uint32_t opsIdx, uint32_t id) const { return m_layerIdIncludedFlag[opsIdx][id]; }
void setLayerIdIncludedFlag(bool v, uint32_t opsIdx, uint32_t id) { m_layerIdIncludedFlag[opsIdx][id] = v; }
PTL* getPTL() { return &m_pcPTL; }
const PTL* getPTL() const { return &m_pcPTL; }
TimingInfo* getTimingInfo() { return &m_timingInfo; }
const TimingInfo* getTimingInfo() const { return &m_timingInfo; }
};
#endif
class Window
{
private:
bool m_enabledFlag;
int m_winLeftOffset;
int m_winRightOffset;
int m_winTopOffset;
int m_winBottomOffset;
public:
Window()
: m_enabledFlag (false)
, m_winLeftOffset (0)
, m_winRightOffset (0)
, m_winTopOffset (0)
, m_winBottomOffset(0)
{ }
bool getWindowEnabledFlag() const { return m_enabledFlag; }
int getWindowLeftOffset() const { return m_enabledFlag ? m_winLeftOffset : 0; }
void setWindowLeftOffset(int val) { m_winLeftOffset = val; m_enabledFlag = true; }
int getWindowRightOffset() const { return m_enabledFlag ? m_winRightOffset : 0; }
void setWindowRightOffset(int val) { m_winRightOffset = val; m_enabledFlag = true; }
int getWindowTopOffset() const { return m_enabledFlag ? m_winTopOffset : 0; }
void setWindowTopOffset(int val) { m_winTopOffset = val; m_enabledFlag = true; }
int getWindowBottomOffset() const { return m_enabledFlag ? m_winBottomOffset: 0; }
void setWindowBottomOffset(int val) { m_winBottomOffset = val; m_enabledFlag = true; }
void setWindow(int offsetLeft, int offsetLRight, int offsetLTop, int offsetLBottom)
{
m_enabledFlag = true;
m_winLeftOffset = offsetLeft;
m_winRightOffset = offsetLRight;
m_winTopOffset = offsetLTop;
m_winBottomOffset = offsetLBottom;
}};
class VUI
{
private:
bool m_aspectRatioInfoPresentFlag;
int m_aspectRatioIdc;
int m_sarWidth;
int m_sarHeight;
bool m_overscanInfoPresentFlag;
bool m_overscanAppropriateFlag;
bool m_videoSignalTypePresentFlag;
int m_videoFormat;
bool m_videoFullRangeFlag;
bool m_colourDescriptionPresentFlag;
int m_colourPrimaries;
int m_transferCharacteristics;
int m_matrixCoefficients;
bool m_chromaLocInfoPresentFlag;
int m_chromaSampleLocTypeTopField;
int m_chromaSampleLocTypeBottomField;
bool m_neutralChromaIndicationFlag;
bool m_fieldSeqFlag;
Window m_defaultDisplayWindow;
bool m_frameFieldInfoPresentFlag;
bool m_hrdParametersPresentFlag;
bool m_bitstreamRestrictionFlag;
#if HEVC_TILES_WPP
bool m_tilesFixedStructureFlag;
#endif
bool m_motionVectorsOverPicBoundariesFlag;
bool m_restrictedRefPicListsFlag;
int m_minSpatialSegmentationIdc;
int m_maxBytesPerPicDenom;
int m_maxBitsPerMinCuDenom;
int m_log2MaxMvLengthHorizontal;
int m_log2MaxMvLengthVertical;
HRD m_hrdParameters;
TimingInfo m_timingInfo;
public:
VUI()
: m_aspectRatioInfoPresentFlag (false) //TODO: This initialiser list contains magic numbers
, m_aspectRatioIdc (0)
, m_sarWidth (0)
, m_sarHeight (0)
, m_overscanInfoPresentFlag (false)
, m_overscanAppropriateFlag (false)
, m_videoSignalTypePresentFlag (false)
, m_videoFormat (5)
, m_videoFullRangeFlag (false)
, m_colourDescriptionPresentFlag (false)
, m_colourPrimaries (2)
, m_transferCharacteristics (2)
, m_matrixCoefficients (2)
, m_chromaLocInfoPresentFlag (false)
, m_chromaSampleLocTypeTopField (0)
, m_chromaSampleLocTypeBottomField (0)
, m_neutralChromaIndicationFlag (false)
, m_fieldSeqFlag (false)
, m_frameFieldInfoPresentFlag (false)
, m_hrdParametersPresentFlag (false)
, m_bitstreamRestrictionFlag (false)
#if HEVC_TILES_WPP
, m_tilesFixedStructureFlag (false)
#endif
, m_motionVectorsOverPicBoundariesFlag(true)
, m_restrictedRefPicListsFlag (1)
, m_minSpatialSegmentationIdc (0) , m_maxBytesPerPicDenom (2)
, m_maxBitsPerMinCuDenom (1)
, m_log2MaxMvLengthHorizontal (15)
, m_log2MaxMvLengthVertical (15)
{}
virtual ~VUI() {}
bool getAspectRatioInfoPresentFlag() const { return m_aspectRatioInfoPresentFlag; }
void setAspectRatioInfoPresentFlag(bool i) { m_aspectRatioInfoPresentFlag = i; }
int getAspectRatioIdc() const { return m_aspectRatioIdc; }
void setAspectRatioIdc(int i) { m_aspectRatioIdc = i; }
int getSarWidth() const { return m_sarWidth; }
void setSarWidth(int i) { m_sarWidth = i; }
int getSarHeight() const { return m_sarHeight; }
void setSarHeight(int i) { m_sarHeight = i; }
bool getOverscanInfoPresentFlag() const { return m_overscanInfoPresentFlag; }
void setOverscanInfoPresentFlag(bool i) { m_overscanInfoPresentFlag = i; }
bool getOverscanAppropriateFlag() const { return m_overscanAppropriateFlag; }
void setOverscanAppropriateFlag(bool i) { m_overscanAppropriateFlag = i; }
bool getVideoSignalTypePresentFlag() const { return m_videoSignalTypePresentFlag; }
void setVideoSignalTypePresentFlag(bool i) { m_videoSignalTypePresentFlag = i; }
int getVideoFormat() const { return m_videoFormat; }
void setVideoFormat(int i) { m_videoFormat = i; }
bool getVideoFullRangeFlag() const { return m_videoFullRangeFlag; }
void setVideoFullRangeFlag(bool i) { m_videoFullRangeFlag = i; }
bool getColourDescriptionPresentFlag() const { return m_colourDescriptionPresentFlag; }
void setColourDescriptionPresentFlag(bool i) { m_colourDescriptionPresentFlag = i; }
int getColourPrimaries() const { return m_colourPrimaries; }
void setColourPrimaries(int i) { m_colourPrimaries = i; }
int getTransferCharacteristics() const { return m_transferCharacteristics; }
void setTransferCharacteristics(int i) { m_transferCharacteristics = i; }
int getMatrixCoefficients() const { return m_matrixCoefficients; }
void setMatrixCoefficients(int i) { m_matrixCoefficients = i; }
bool getChromaLocInfoPresentFlag() const { return m_chromaLocInfoPresentFlag; }
void setChromaLocInfoPresentFlag(bool i) { m_chromaLocInfoPresentFlag = i; }
int getChromaSampleLocTypeTopField() const { return m_chromaSampleLocTypeTopField; }
void setChromaSampleLocTypeTopField(int i) { m_chromaSampleLocTypeTopField = i; }
int getChromaSampleLocTypeBottomField() const { return m_chromaSampleLocTypeBottomField; }
void setChromaSampleLocTypeBottomField(int i) { m_chromaSampleLocTypeBottomField = i; }
bool getNeutralChromaIndicationFlag() const { return m_neutralChromaIndicationFlag; }
void setNeutralChromaIndicationFlag(bool i) { m_neutralChromaIndicationFlag = i; }
bool getFieldSeqFlag() const { return m_fieldSeqFlag; }
void setFieldSeqFlag(bool i) { m_fieldSeqFlag = i; }
bool getFrameFieldInfoPresentFlag() const { return m_frameFieldInfoPresentFlag; }
void setFrameFieldInfoPresentFlag(bool i) { m_frameFieldInfoPresentFlag = i; }
Window& getDefaultDisplayWindow() { return m_defaultDisplayWindow; }
const Window& getDefaultDisplayWindow() const { return m_defaultDisplayWindow; }
void setDefaultDisplayWindow(Window& defaultDisplayWindow ) { m_defaultDisplayWindow = defaultDisplayWindow; }
bool getHrdParametersPresentFlag() const { return m_hrdParametersPresentFlag; } void setHrdParametersPresentFlag(bool i) { m_hrdParametersPresentFlag = i; }
bool getBitstreamRestrictionFlag() const { return m_bitstreamRestrictionFlag; }
void setBitstreamRestrictionFlag(bool i) { m_bitstreamRestrictionFlag = i; }
#if HEVC_TILES_WPP
bool getTilesFixedStructureFlag() const { return m_tilesFixedStructureFlag; }
void setTilesFixedStructureFlag(bool i) { m_tilesFixedStructureFlag = i; }
#endif
bool getMotionVectorsOverPicBoundariesFlag() const { return m_motionVectorsOverPicBoundariesFlag; }
void setMotionVectorsOverPicBoundariesFlag(bool i) { m_motionVectorsOverPicBoundariesFlag = i; }
bool getRestrictedRefPicListsFlag() const { return m_restrictedRefPicListsFlag; }
void setRestrictedRefPicListsFlag(bool b) { m_restrictedRefPicListsFlag = b; }
int getMinSpatialSegmentationIdc() const { return m_minSpatialSegmentationIdc; }
void setMinSpatialSegmentationIdc(int i) { m_minSpatialSegmentationIdc = i; }
int getMaxBytesPerPicDenom() const { return m_maxBytesPerPicDenom; }
void setMaxBytesPerPicDenom(int i) { m_maxBytesPerPicDenom = i; }
int getMaxBitsPerMinCuDenom() const { return m_maxBitsPerMinCuDenom; }
void setMaxBitsPerMinCuDenom(int i) { m_maxBitsPerMinCuDenom = i; }
int getLog2MaxMvLengthHorizontal() const { return m_log2MaxMvLengthHorizontal; }
void setLog2MaxMvLengthHorizontal(int i) { m_log2MaxMvLengthHorizontal = i; }
int getLog2MaxMvLengthVertical() const { return m_log2MaxMvLengthVertical; }
void setLog2MaxMvLengthVertical(int i) { m_log2MaxMvLengthVertical = i; }
HRD* getHrdParameters() { return &m_hrdParameters; }
const HRD* getHrdParameters() const { return &m_hrdParameters; }
TimingInfo* getTimingInfo() { return &m_timingInfo; }
const TimingInfo* getTimingInfo() const { return &m_timingInfo; }
};
/// SPS RExt class
class SPSRExt // Names aligned to text specification
{
private:
bool m_transformSkipRotationEnabledFlag;
bool m_transformSkipContextEnabledFlag;
bool m_rdpcmEnabledFlag[NUMBER_OF_RDPCM_SIGNALLING_MODES];
bool m_extendedPrecisionProcessingFlag;
bool m_intraSmoothingDisabledFlag;
bool m_highPrecisionOffsetsEnabledFlag;
bool m_persistentRiceAdaptationEnabledFlag;
bool m_cabacBypassAlignmentEnabledFlag;
public:
SPSRExt();
bool settingsDifferFromDefaults() const
{
return getTransformSkipRotationEnabledFlag()
|| getTransformSkipContextEnabledFlag()
|| getRdpcmEnabledFlag(RDPCM_SIGNAL_IMPLICIT)
|| getRdpcmEnabledFlag(RDPCM_SIGNAL_EXPLICIT)
|| getExtendedPrecisionProcessingFlag()
|| getIntraSmoothingDisabledFlag()
|| getHighPrecisionOffsetsEnabledFlag()
|| getPersistentRiceAdaptationEnabledFlag()
|| getCabacBypassAlignmentEnabledFlag();
}
bool getTransformSkipRotationEnabledFlag() const { return m_transformSkipRotationEnabledFlag; }
void setTransformSkipRotationEnabledFlag(const bool value) { m_transformSkipRotationEnabledFlag = value; }
bool getTransformSkipContextEnabledFlag() const { return m_transformSkipContextEnabledFlag; }
void setTransformSkipContextEnabledFlag(const bool value) { m_transformSkipContextEnabledFlag = value; }
bool getRdpcmEnabledFlag(const RDPCMSignallingMode signallingMode) const { return m_rdpcmEnabledFlag[signallingMode]; }
void setRdpcmEnabledFlag(const RDPCMSignallingMode signallingMode, const bool value) { m_rdpcmEnabledFlag[signallingMode] = value; }
bool getExtendedPrecisionProcessingFlag() const { return m_extendedPrecisionProcessingFlag; }
void setExtendedPrecisionProcessingFlag(bool value) { m_extendedPrecisionProcessingFlag = value; }
bool getIntraSmoothingDisabledFlag() const { return m_intraSmoothingDisabledFlag; }
void setIntraSmoothingDisabledFlag(bool bValue) { m_intraSmoothingDisabledFlag=bValue; }
bool getHighPrecisionOffsetsEnabledFlag() const { return m_highPrecisionOffsetsEnabledFlag; }
void setHighPrecisionOffsetsEnabledFlag(bool value) { m_highPrecisionOffsetsEnabledFlag = value; }
bool getPersistentRiceAdaptationEnabledFlag() const { return m_persistentRiceAdaptationEnabledFlag; }
void setPersistentRiceAdaptationEnabledFlag(const bool value) { m_persistentRiceAdaptationEnabledFlag = value; }
bool getCabacBypassAlignmentEnabledFlag() const { return m_cabacBypassAlignmentEnabledFlag; }
void setCabacBypassAlignmentEnabledFlag(const bool value) { m_cabacBypassAlignmentEnabledFlag = value; }
};
class SPS;
class SPSNext
{
private:
SPS& m_SPS;
bool m_NextEnabled;
//===== tool enabling flags (4 bytes - NOTE: last flag must be used for new extensions) =====
bool m_LargeCTU; // 5
bool m_SubPuMvp;
bool m_IMV; // 9
#if JVET_L0256_BIO
bool m_BIO;
#endif
bool m_DisableMotionCompression; // 13
bool m_LMChroma; // 17
bool m_IntraEMT; // 18
bool m_InterEMT; // 19
bool m_Affine;
bool m_AffineType;
#if JVET_L0646_GBI
bool m_GBi; //
#endif
bool m_MTTEnabled; //
#if JVET_L0100_MULTI_HYPOTHESIS_INTRA
bool m_MHIntra;
#endif
#if JVET_L0124_L0208_TRIANGLE
bool m_Triangle;
#endif
#if ENABLE_WPP_PARALLELISM
bool m_NextDQP;
#endif
#if LUMA_ADAPTIVE_DEBLOCKING_FILTER_QP_OFFSET
bool m_LadfEnabled;
int m_LadfNumIntervals;
int m_LadfQpOffset[MAX_LADF_INTERVALS];
int m_LadfIntervalLowerBound[MAX_LADF_INTERVALS];
#endif
public:
const static int NumReservedFlags = 32 - 27; /* current number of tool enabling flags */
private:
//===== additional parameters =====
// qtbt#if !JVET_L0217_L0678_SPS_CLEANUP
unsigned m_CTUSize;
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
unsigned m_partitionOverrideEnalbed; // enable partition constraints override function
#endif
unsigned m_minQT[3]; // 0: I slice luma; 1: P/B slice; 2: I slice chroma
unsigned m_maxBTDepth[3];
unsigned m_maxBTSize[3];
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
unsigned m_maxTTSize[3];
#endif
unsigned m_dualITree;
#endif
// sub-pu merging
#if !JVET_L0198_L0468_L0104_ATMVP_8x8SUB_BLOCK
unsigned m_subPuLog2Size;
#endif
int m_subPuMrgMode;
//imv
ImvMode m_ImvMode;
// multi type tree (QTBT + triple split)
unsigned m_MTTMode;
bool m_compositeRefEnabled; //composite longterm reference
#if JVET_L0293_CPR
unsigned m_CPRMode;
#endif
// ADD_NEW_TOOL : (sps extension) add tool enabling flags and associated parameters here
public:
SPSNext( SPS& sps );
const SPS& getSPS () const { return m_SPS; }
SPS& getSPS () { return m_SPS; }
bool nextToolsEnabled () const { return m_NextEnabled; }
void setNextToolsEnabled ( bool next ) { m_NextEnabled = next; }
//===== tool enabling flags and extension bit =====
void setUseLargeCTU ( bool b ) { m_LargeCTU = b; }
bool getUseLargeCTU () const { return m_LargeCTU; }
bool getUseSubPuMvp() const { return m_SubPuMvp; }
void setSubPuMvpMode(int n) { m_subPuMrgMode = n; m_SubPuMvp = n != 0; }
bool getUseATMVP() const { return (m_subPuMrgMode & 1) == 1; }
void setUseIMV ( bool b ) { m_IMV = b; }
bool getUseIMV () const { return m_IMV; }
void setUseAffine ( bool b ) { m_Affine = b; }
bool getUseAffine () const { return m_Affine; }
void setUseAffineType ( bool b ) { m_AffineType = b; }
bool getUseAffineType () const { return m_AffineType; }
#if JVET_L0256_BIO
void setUseBIO(bool b) { m_BIO = b; }
bool getUseBIO() const { return m_BIO; }
#endif
void setDisableMotCompress ( bool b ) { m_DisableMotionCompression = b; }
bool getDisableMotCompress () const { return m_DisableMotionCompression; }
bool getMTTEnabled () const { return m_MTTEnabled; }
#if ENABLE_WPP_PARALLELISM
void setUseNextDQP ( bool b ) { m_NextDQP = b; }
bool getUseNextDQP () const { return m_NextDQP; }
#endif
void setUseLMChroma ( bool b ) { m_LMChroma = b; }
bool getUseLMChroma () const { return m_LMChroma; }
void setUseIntraEMT ( bool b ) { m_IntraEMT = b; }
bool getUseIntraEMT () const { return m_IntraEMT; }
void setUseInterEMT ( bool b ) { m_InterEMT = b; }
bool getUseInterEMT () const { return m_InterEMT; }
#if JVET_L0646_GBI
void setUseGBi ( bool b ) { m_GBi = b; } bool getUseGBi () const { return m_GBi; }
#endif
#if LUMA_ADAPTIVE_DEBLOCKING_FILTER_QP_OFFSET
void setLadfEnabled ( bool b ) { m_LadfEnabled = b; }
bool getLadfEnabled () const { return m_LadfEnabled; }
void setLadfNumIntervals ( int i ) { m_LadfNumIntervals = i; }
int getLadfNumIntervals () const { return m_LadfNumIntervals; }
void setLadfQpOffset ( int value, int idx ) { m_LadfQpOffset[ idx ] = value; }
int getLadfQpOffset ( int idx ) const { return m_LadfQpOffset[ idx ]; }
void setLadfIntervalLowerBound( int value, int idx ) { m_LadfIntervalLowerBound[ idx ] = value; }
int getLadfIntervalLowerBound( int idx ) const { return m_LadfIntervalLowerBound[ idx ]; }
#endif
//===== additional parameters =====
// qtbt
#if !JVET_L0217_L0678_SPS_CLEANUP
void setCTUSize ( unsigned ctuSize ) { m_CTUSize = ctuSize; }
unsigned getCTUSize () const { return m_CTUSize; }
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
void setSplitConsOverrideEnabledFlag(bool b) { m_partitionOverrideEnalbed = b; }
bool getSplitConsOverrideEnabledFlag() const { return m_partitionOverrideEnalbed; }
#endif
void setMinQTSizes ( unsigned* minQT ) { m_minQT[0] = minQT[0]; m_minQT[1] = minQT[1]; m_minQT[2] = minQT[2]; }
unsigned getMinQTSize ( SliceType slicetype,
ChannelType chType = CHANNEL_TYPE_LUMA )
const { return slicetype == I_SLICE ? ( chType == CHANNEL_TYPE_LUMA ? m_minQT[0] : m_minQT[2] ) : m_minQT[1]; }
void setMaxBTDepth ( unsigned maxBTDepth,
unsigned maxBTDepthI,
unsigned maxBTDepthIChroma ) { m_maxBTDepth[1] = maxBTDepth; m_maxBTDepth[0] = maxBTDepthI; m_maxBTDepth[2] = maxBTDepthIChroma; }
unsigned getMaxBTDepth () const { return m_maxBTDepth[1]; }
unsigned getMaxBTDepthI () const { return m_maxBTDepth[0]; }
unsigned getMaxBTDepthIChroma () const { return m_maxBTDepth[2]; }
void setMaxBTSize ( unsigned maxBTSize,
unsigned maxBTSizeI,
unsigned maxBTSizeC ) { m_maxBTSize[1] = maxBTSize; m_maxBTSize[0] = maxBTSizeI; m_maxBTSize[2] = maxBTSizeC; }
unsigned getMaxBTSize () const { return m_maxBTSize[1]; }
unsigned getMaxBTSizeI () const { return m_maxBTSize[0]; }
unsigned getMaxBTSizeIChroma () const { return m_maxBTSize[2]; }
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
void setMaxTTSize (unsigned maxTTSize,
unsigned maxTTSizeI,
unsigned maxTTSizeC) { m_maxTTSize[1] = maxTTSize; m_maxTTSize[0] = maxTTSizeI; m_maxTTSize[2] = maxTTSizeC; }
unsigned getMaxTTSize() const { return m_maxTTSize[1]; }
unsigned getMaxTTSizeI() const { return m_maxTTSize[0]; }
unsigned getMaxTTSizeIChroma() const { return m_maxTTSize[2]; }
#endif
void setUseDualITree ( bool b ) { m_dualITree = b; }
bool getUseDualITree () const { return m_dualITree; }
#endif
// sub pu tmvp
#if !JVET_L0198_L0468_L0104_ATMVP_8x8SUB_BLOCK
void setSubPuMvpLog2Size ( unsigned log2Size ) { m_subPuLog2Size = log2Size; }
unsigned getSubPuMvpLog2Size () const { return m_subPuLog2Size; }
#endif
void setImvMode(ImvMode m) { m_ImvMode = m; m_IMV = m != 0; }
ImvMode getImvMode () const { return m_ImvMode; }
// multi type tree
unsigned getMTTMode () const { return m_MTTMode; }
void setMTTMode ( unsigned mode ) { m_MTTMode = mode; m_MTTEnabled = ( m_MTTMode != 0 ); }
void setUseCompositeRef(bool b) { m_compositeRefEnabled = b; }
bool getUseCompositeRef() const { return m_compositeRefEnabled; }
#if JVET_L0100_MULTI_HYPOTHESIS_INTRA
void setUseMHIntra ( bool b ) { m_MHIntra = b; }
bool getUseMHIntra () const { return m_MHIntra; }
#endif#if JVET_L0124_L0208_TRIANGLE
void setUseTriangle ( bool b ) { m_Triangle = b; }
bool getUseTriangle () const { return m_Triangle; }
#endif
#if JVET_L0293_CPR
void setCPRMode (unsigned CPRMode) { m_CPRMode = CPRMode; }
unsigned getCPRMode () const { return m_CPRMode; }
#endif
// ADD_NEW_TOOL : (sps extension) add access functions for tool enabling flags and associated parameters here
};
/// SPS class
class SPS
{
private:
int m_SPSId;
#if JVET_L0696_CONSTRAINT_SYNTAX
bool m_bIntraOnlyConstraintFlag;
uint32_t m_maxBitDepthConstraintIdc;
uint32_t m_maxChromaFormatConstraintIdc;
bool m_bFrameConstraintFlag;
bool m_bNoQtbttDualTreeIntraConstraintFlag;
bool m_bNoCclmConstraintFlag;
bool m_bNoSaoConstraintFlag;
bool m_bNoAlfConstraintFlag;
bool m_bNoPcmConstraintFlag;
bool m_bNoTemporalMvpConstraintFlag;
bool m_bNoSbtmvpConstraintFlag;
bool m_bNoAmvrConstraintFlag;
bool m_bNoAffineMotionConstraintFlag;
bool m_bNoMtsConstraintFlag;
bool m_bNoLadfConstraintFlag;
bool m_bNoDepQuantConstraintFlag;
bool m_bNoSignDataHidingConstraintFlag;
#endif
#if HEVC_VPS
int m_VPSId;
#endif
ChromaFormat m_chromaFormatIdc;
uint32_t m_uiMaxTLayers; // maximum number of temporal layers
// Structure
uint32_t m_picWidthInLumaSamples;
uint32_t m_picHeightInLumaSamples;
int m_log2MinCodingBlockSize;
int m_log2DiffMaxMinCodingBlockSize;
#if JVET_L0217_L0678_SPS_CLEANUP
unsigned m_CTUSize;
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
unsigned m_partitionOverrideEnalbed; // enable partition constraints override function
#endif
unsigned m_minQT[3]; // 0: I slice luma; 1: P/B slice; 2: I slice chroma
unsigned m_maxBTDepth[3];
unsigned m_maxBTSize[3];
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
unsigned m_maxTTSize[3];
#endif
unsigned m_dualITree;
#endif
uint32_t m_uiMaxCUWidth;
uint32_t m_uiMaxCUHeight;
uint32_t m_uiMaxCodingDepth; ///< Total CU depth, relative to the smallest possible transform block size.
Window m_conformanceWindow;
RPSList m_RPSList;
bool m_bLongTermRefsPresent;
bool m_SPSTemporalMVPEnabledFlag;
int m_numReorderPics[MAX_TLAYER];
// Tool list
uint32_t m_uiQuadtreeTULog2MaxSize;
uint32_t m_uiQuadtreeTULog2MinSize;
uint32_t m_uiQuadtreeTUMaxDepthInter;
uint32_t m_uiQuadtreeTUMaxDepthIntra;
bool m_usePCM;
uint32_t m_pcmLog2MaxSize;
uint32_t m_uiPCMLog2MinSize;
bool m_useAMP;
// Parameter
BitDepths m_bitDepths;
int m_qpBDOffset[MAX_NUM_CHANNEL_TYPE];
int m_pcmBitDepths[MAX_NUM_CHANNEL_TYPE];
bool m_bPCMFilterDisableFlag;
uint32_t m_uiBitsForPOC;
uint32_t m_numLongTermRefPicSPS;
uint32_t m_ltRefPicPocLsbSps[MAX_NUM_LONG_TERM_REF_PICS];
bool m_usedByCurrPicLtSPSFlag[MAX_NUM_LONG_TERM_REF_PICS];
// Max physical transform size
uint32_t m_uiMaxTrSize;
bool m_bUseSAO;
bool m_bTemporalIdNestingFlag; // temporal_id_nesting_flag
#if HEVC_USE_SCALING_LISTS
bool m_scalingListEnabledFlag;
bool m_scalingListPresentFlag;
ScalingList m_scalingList;
#endif
uint32_t m_uiMaxDecPicBuffering[MAX_TLAYER];
uint32_t m_uiMaxLatencyIncreasePlus1[MAX_TLAYER];
#if HEVC_USE_INTRA_SMOOTHING_T32 || HEVC_USE_INTRA_SMOOTHING_T64
bool m_useStrongIntraSmoothing;
#endif
bool m_vuiParametersPresentFlag;
VUI m_vuiParameters;
SPSRExt m_spsRangeExtension;
SPSNext m_spsNextExtension;
static const int m_winUnitX[NUM_CHROMA_FORMAT];
static const int m_winUnitY[NUM_CHROMA_FORMAT];
PTL m_pcPTL;
bool m_useALF;
bool m_useWrapAround;
unsigned m_wrapAroundOffset;
public:
SPS();
virtual ~SPS();
#if HEVC_VPS
int getVPSId() const { return m_VPSId; }
void setVPSId(int i) { m_VPSId = i; }
#endif
#if JVET_L0696_CONSTRAINT_SYNTAX
bool getIntraOnlyConstraintFlag() const { return m_bIntraOnlyConstraintFlag; } void setIntraOnlyConstraintFlag(bool bVal) { m_bIntraOnlyConstraintFlag = bVal; }
uint32_t getMaxBitDepthConstraintIdc() const { return m_maxBitDepthConstraintIdc; }
void setMaxBitDepthConstraintIdc(uint32_t u) { m_maxBitDepthConstraintIdc = u; }
uint32_t getMaxChromaFormatConstraintIdc() const { return m_maxChromaFormatConstraintIdc; }
void setMaxChromaFormatConstraintIdc(uint32_t u) { m_maxChromaFormatConstraintIdc = u; }
bool getFrameConstraintFlag() const { return m_bFrameConstraintFlag; }
void setFrameConstraintFlag(bool bVal) { m_bFrameConstraintFlag = bVal; }
bool getNoQtbttDualTreeIntraConstraintFlag() const { return m_bNoQtbttDualTreeIntraConstraintFlag; }
void setNoQtbttDualTreeIntraConstraintFlag(bool bVal) { m_bNoQtbttDualTreeIntraConstraintFlag = bVal; }
bool getNoCclmConstraintFlag() const { return m_bNoCclmConstraintFlag; }
void setNoCclmConstraintFlag(bool bVal) { m_bNoCclmConstraintFlag = bVal; }
bool getNoSaoConstraintFlag() const { return m_bNoSaoConstraintFlag; }
void setNoSaoConstraintFlag(bool bVal) { m_bNoSaoConstraintFlag = bVal; }
bool getNoAlfConstraintFlag() const { return m_bNoAlfConstraintFlag; }
void setNoAlfConstraintFlag(bool bVal) { m_bNoAlfConstraintFlag = bVal; }
bool getNoPcmConstraintFlag() const { return m_bNoPcmConstraintFlag; }
void setNoPcmConstraintFlag(bool bVal) { m_bNoPcmConstraintFlag = bVal; }
bool getNoTemporalMvpConstraintFlag() const { return m_bNoTemporalMvpConstraintFlag; }
void setNoTemporalMvpConstraintFlag(bool bVal) { m_bNoTemporalMvpConstraintFlag = bVal; }
bool getNoSbtmvpConstraintFlag() const { return m_bNoSbtmvpConstraintFlag; }
void setNoSbtmvpConstraintFlag(bool bVal) { m_bNoSbtmvpConstraintFlag = bVal; }
bool getNoAmvrConstraintFlag() const { return m_bNoAmvrConstraintFlag; }
void setNoAmvrConstraintFlag(bool bVal) { m_bNoAmvrConstraintFlag = bVal; }
bool getNoAffineMotionConstraintFlag() const { return m_bNoAffineMotionConstraintFlag; }
void setNoAffineMotionConstraintFlag(bool bVal) { m_bNoAffineMotionConstraintFlag = bVal; }
bool getNoMtsConstraintFlag() const { return m_bNoMtsConstraintFlag; }
void setNoMtsConstraintFlag(bool bVal) { m_bNoMtsConstraintFlag = bVal; }
bool getNoLadfConstraintFlag() const { return m_bNoLadfConstraintFlag; }
void setNoLadfConstraintFlag(bool bVal) { m_bNoLadfConstraintFlag = bVal; }
bool getNoDepQuantConstraintFlag() const { return m_bNoDepQuantConstraintFlag; }
void setNoDepQuantConstraintFlag(bool bVal) { m_bNoDepQuantConstraintFlag = bVal; }
bool getNoSignDataHidingConstraintFlag() const { return m_bNoSignDataHidingConstraintFlag; }
void setNoSignDataHidingConstraintFlag(bool bVal) { m_bNoSignDataHidingConstraintFlag = bVal; }
#endif
int getSPSId() const { return m_SPSId; }
void setSPSId(int i) { m_SPSId = i; }
ChromaFormat getChromaFormatIdc () const { return m_chromaFormatIdc; }
void setChromaFormatIdc (ChromaFormat i) { m_chromaFormatIdc = i; }
static int getWinUnitX (int chromaFormatIdc) { CHECK(chromaFormatIdc < 0 || chromaFormatIdc >= NUM_CHROMA_FORMAT, "Invalid chroma format parameter"); return m_winUnitX[chromaFormatIdc]; }
static int getWinUnitY (int chromaFormatIdc) { CHECK(chromaFormatIdc < 0 || chromaFormatIdc >= NUM_CHROMA_FORMAT, "Invalid chroma format parameter"); return m_winUnitY[chromaFormatIdc]; }
// structure
void setPicWidthInLumaSamples( uint32_t u ) { m_picWidthInLumaSamples = u; }
uint32_t getPicWidthInLumaSamples() const { return m_picWidthInLumaSamples; }
void setPicHeightInLumaSamples( uint32_t u ) { m_picHeightInLumaSamples = u; }
uint32_t getPicHeightInLumaSamples() const { return m_picHeightInLumaSamples; }
Window& getConformanceWindow() { return m_conformanceWindow; }
const Window& getConformanceWindow() const { return m_conformanceWindow; }
void setConformanceWindow(Window& conformanceWindow ) { m_conformanceWindow = conformanceWindow; }
uint32_t getNumLongTermRefPicSPS() const { return m_numLongTermRefPicSPS; }
void setNumLongTermRefPicSPS(uint32_t val) { m_numLongTermRefPicSPS = val; }
uint32_t getLtRefPicPocLsbSps(uint32_t index) const { CHECK( index >= MAX_NUM_LONG_TERM_REF_PICS, "Index exceeds boundary" ); return m_ltRefPicPocLsbSps[index]; }
void setLtRefPicPocLsbSps(uint32_t index, uint32_t val) { CHECK( index >= MAX_NUM_LONG_TERM_REF_PICS, "Index exceeds boundary" ); m_ltRefPicPocLsbSps[index] = val; }
bool getUsedByCurrPicLtSPSFlag(int i) const { CHECK( i >= MAX_NUM_LONG_TERM_REF_PICS, "Index exceeds boundary" ); return m_usedByCurrPicLtSPSFlag[i]; }
void setUsedByCurrPicLtSPSFlag(int i, bool x) { CHECK( i >= MAX_NUM_LONG_TERM_REF_PICS, "Index exceeds boundary" ); m_usedByCurrPicLtSPSFlag[i] = x; }
int getLog2MinCodingBlockSize() const { return m_log2MinCodingBlockSize; }
void setLog2MinCodingBlockSize(int val) { m_log2MinCodingBlockSize = val; }
int getLog2DiffMaxMinCodingBlockSize() const { return m_log2DiffMaxMinCodingBlockSize; }
void setLog2DiffMaxMinCodingBlockSize(int val) { m_log2DiffMaxMinCodingBlockSize = val; }
#if JVET_L0217_L0678_SPS_CLEANUP
void setCTUSize(unsigned ctuSize) { m_CTUSize = ctuSize; }
unsigned getCTUSize() const { return m_CTUSize; }
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
void setSplitConsOverrideEnabledFlag(bool b) { m_partitionOverrideEnalbed = b; } bool getSplitConsOverrideEnabledFlag() const { return m_partitionOverrideEnalbed; }
#endif
void setMinQTSizes(unsigned* minQT) { m_minQT[0] = minQT[0]; m_minQT[1] = minQT[1]; m_minQT[2] = minQT[2]; }
unsigned getMinQTSize(SliceType slicetype,
ChannelType chType = CHANNEL_TYPE_LUMA)
const { return slicetype == I_SLICE ? (chType == CHANNEL_TYPE_LUMA ? m_minQT[0] : m_minQT[2]) : m_minQT[1]; }
void setMaxBTDepth(unsigned maxBTDepth,
unsigned maxBTDepthI,
unsigned maxBTDepthIChroma)
{ m_maxBTDepth[1] = maxBTDepth; m_maxBTDepth[0] = maxBTDepthI; m_maxBTDepth[2] = maxBTDepthIChroma; }
unsigned getMaxBTDepth() const { return m_maxBTDepth[1]; }
unsigned getMaxBTDepthI() const { return m_maxBTDepth[0]; }
unsigned getMaxBTDepthIChroma() const { return m_maxBTDepth[2]; }
void setMaxBTSize(unsigned maxBTSize,
unsigned maxBTSizeI,
unsigned maxBTSizeC)
{ m_maxBTSize[1] = maxBTSize; m_maxBTSize[0] = maxBTSizeI; m_maxBTSize[2] = maxBTSizeC; }
unsigned getMaxBTSize() const { return m_maxBTSize[1]; }
unsigned getMaxBTSizeI() const { return m_maxBTSize[0]; }
unsigned getMaxBTSizeIChroma() const { return m_maxBTSize[2]; }
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
void setMaxTTSize(unsigned maxTTSize,
unsigned maxTTSizeI,
unsigned maxTTSizeC)
{ m_maxTTSize[1] = maxTTSize; m_maxTTSize[0] = maxTTSizeI; m_maxTTSize[2] = maxTTSizeC; }
unsigned getMaxTTSize() const { return m_maxTTSize[1]; }
unsigned getMaxTTSizeI() const { return m_maxTTSize[0]; }
unsigned getMaxTTSizeIChroma() const { return m_maxTTSize[2]; }
#endif
void setUseDualITree(bool b) { m_dualITree = b; }
bool getUseDualITree() const { return m_dualITree; }
#endif
void setMaxCUWidth( uint32_t u ) { m_uiMaxCUWidth = u; }
uint32_t getMaxCUWidth() const { return m_uiMaxCUWidth; }
void setMaxCUHeight( uint32_t u ) { m_uiMaxCUHeight = u; }
uint32_t getMaxCUHeight() const { return m_uiMaxCUHeight; }
void setMaxCodingDepth( uint32_t u ) { m_uiMaxCodingDepth = u; }
uint32_t getMaxCodingDepth() const { return m_uiMaxCodingDepth; }
void setUsePCM( bool b ) { m_usePCM = b; }
bool getUsePCM() const { return m_usePCM; }
void setPCMLog2MaxSize( uint32_t u ) { m_pcmLog2MaxSize = u; }
uint32_t getPCMLog2MaxSize() const { return m_pcmLog2MaxSize; }
void setPCMLog2MinSize( uint32_t u ) { m_uiPCMLog2MinSize = u; }
uint32_t getPCMLog2MinSize() const { return m_uiPCMLog2MinSize; }
void setBitsForPOC( uint32_t u ) { m_uiBitsForPOC = u; }
uint32_t getBitsForPOC() const { return m_uiBitsForPOC; }
bool getUseAMP() const { return m_useAMP; }
void setUseAMP( bool b ) { m_useAMP = b; }
void setQuadtreeTULog2MaxSize( uint32_t u ) { m_uiQuadtreeTULog2MaxSize = u; }
uint32_t getQuadtreeTULog2MaxSize() const { return m_uiQuadtreeTULog2MaxSize; }
void setQuadtreeTULog2MinSize( uint32_t u ) { m_uiQuadtreeTULog2MinSize = u; }
uint32_t getQuadtreeTULog2MinSize() const { return m_uiQuadtreeTULog2MinSize; }
void setQuadtreeTUMaxDepthInter( uint32_t u ) { m_uiQuadtreeTUMaxDepthInter = u; }
void setQuadtreeTUMaxDepthIntra( uint32_t u ) { m_uiQuadtreeTUMaxDepthIntra = u; }
uint32_t getQuadtreeTUMaxDepthInter() const { return m_uiQuadtreeTUMaxDepthInter; }
uint32_t getQuadtreeTUMaxDepthIntra() const { return m_uiQuadtreeTUMaxDepthIntra; }
void setNumReorderPics(int i, uint32_t tlayer) { m_numReorderPics[tlayer] = i; }
int getNumReorderPics(uint32_t tlayer) const { return m_numReorderPics[tlayer]; }
void createRPSList( int numRPS );
const RPSList* getRPSList() const { return &m_RPSList; }
RPSList* getRPSList() { return &m_RPSList; }
bool getLongTermRefsPresent() const { return m_bLongTermRefsPresent; }
void setLongTermRefsPresent(bool b) { m_bLongTermRefsPresent=b; }
bool getSPSTemporalMVPEnabledFlag() const { return m_SPSTemporalMVPEnabledFlag; }
void setSPSTemporalMVPEnabledFlag(bool b) { m_SPSTemporalMVPEnabledFlag=b; }
// physical transform
void setMaxTrSize( uint32_t u ) { m_uiMaxTrSize = u; }
uint32_t getMaxTrSize() const { return m_uiMaxTrSize; }
// Bit-depth
int getBitDepth(ChannelType type) const { return m_bitDepths.recon[type]; }
void setBitDepth(ChannelType type, int u ) { m_bitDepths.recon[type] = u; }
const BitDepths& getBitDepths() const { return m_bitDepths; }
int getMaxLog2TrDynamicRange(ChannelType channelType) const { return getSpsRangeExtension().getExtendedPrecisionProcessingFlag() ? std::max<int>(15, int(m_bitDepths.recon[channelType] + 6)) : 15; }
int getDifferentialLumaChromaBitDepth() const { return int(m_bitDepths.recon[CHANNEL_TYPE_LUMA]) - int(m_bitDepths.recon[CHANNEL_TYPE_CHROMA]); }
int getQpBDOffset(ChannelType type) const { return m_qpBDOffset[type]; }
void setQpBDOffset(ChannelType type, int i) { m_qpBDOffset[type] = i; }
void setUseSAO(bool bVal) { m_bUseSAO = bVal; }
bool getUseSAO() const { return m_bUseSAO; }
uint32_t getMaxTLayers() const { return m_uiMaxTLayers; }
void setMaxTLayers( uint32_t uiMaxTLayers ) { CHECK( uiMaxTLayers > MAX_TLAYER, "Invalid number T-layers" ); m_uiMaxTLayers = uiMaxTLayers; }
bool getTemporalIdNestingFlag() const { return m_bTemporalIdNestingFlag; }
void setTemporalIdNestingFlag( bool bValue ) { m_bTemporalIdNestingFlag = bValue; }
uint32_t getPCMBitDepth(ChannelType type) const { return m_pcmBitDepths[type]; }
void setPCMBitDepth(ChannelType type, uint32_t u) { m_pcmBitDepths[type] = u; }
void setPCMFilterDisableFlag( bool bValue ) { m_bPCMFilterDisableFlag = bValue; }
bool getPCMFilterDisableFlag() const { return m_bPCMFilterDisableFlag; }
#if HEVC_USE_SCALING_LISTS
bool getScalingListFlag() const { return m_scalingListEnabledFlag; }
void setScalingListFlag( bool b ) { m_scalingListEnabledFlag = b; }
bool getScalingListPresentFlag() const { return m_scalingListPresentFlag; }
void setScalingListPresentFlag( bool b ) { m_scalingListPresentFlag = b; }
ScalingList& getScalingList() { return m_scalingList; }
const ScalingList& getScalingList() const { return m_scalingList; }
#endif
uint32_t getMaxDecPicBuffering(uint32_t tlayer) const { return m_uiMaxDecPicBuffering[tlayer]; }
void setMaxDecPicBuffering( uint32_t ui, uint32_t tlayer ) { CHECK(tlayer >= MAX_TLAYER, "Invalid T-layer"); m_uiMaxDecPicBuffering[tlayer] = ui; }
uint32_t getMaxLatencyIncreasePlus1(uint32_t tlayer) const { return m_uiMaxLatencyIncreasePlus1[tlayer]; }
void setMaxLatencyIncreasePlus1( uint32_t ui , uint32_t tlayer) { m_uiMaxLatencyIncreasePlus1[tlayer] = ui; }
#if HEVC_USE_INTRA_SMOOTHING_T32 || HEVC_USE_INTRA_SMOOTHING_T64
void setUseStrongIntraSmoothing(bool bVal) { m_useStrongIntraSmoothing = bVal; }
bool getUseStrongIntraSmoothing() const { return m_useStrongIntraSmoothing; }
#endif
bool getVuiParametersPresentFlag() const { return m_vuiParametersPresentFlag; }
void setVuiParametersPresentFlag(bool b) { m_vuiParametersPresentFlag = b; }
VUI* getVuiParameters() { return &m_vuiParameters; }
const VUI* getVuiParameters() const { return &m_vuiParameters; }
const PTL* getPTL() const { return &m_pcPTL; }
PTL* getPTL() { return &m_pcPTL; }
const SPSRExt& getSpsRangeExtension() const { return m_spsRangeExtension; }
SPSRExt& getSpsRangeExtension() { return m_spsRangeExtension; }
const SPSNext& getSpsNext() const { return m_spsNextExtension; }
SPSNext& getSpsNext() { return m_spsNextExtension; }
bool getUseALF() const { return m_useALF; }
void setUseALF( bool b ) { m_useALF = b; }
void setUseWrapAround(bool b) { m_useWrapAround = b; }
bool getUseWrapAround() const { return m_useWrapAround; }
void setWrapAroundOffset(unsigned offset) { m_wrapAroundOffset = offset; }
unsigned getWrapAroundOffset() const { return m_wrapAroundOffset; }
};
/// Reference Picture Lists class
class RefPicListModification
{
private: bool m_refPicListModificationFlagL0;
bool m_refPicListModificationFlagL1;
uint32_t m_RefPicSetIdxL0[REF_PIC_LIST_NUM_IDX];
uint32_t m_RefPicSetIdxL1[REF_PIC_LIST_NUM_IDX];
public:
RefPicListModification();
virtual ~RefPicListModification();
bool getRefPicListModificationFlagL0() const { return m_refPicListModificationFlagL0; }
void setRefPicListModificationFlagL0(bool flag) { m_refPicListModificationFlagL0 = flag; }
bool getRefPicListModificationFlagL1() const { return m_refPicListModificationFlagL1; }
void setRefPicListModificationFlagL1(bool flag) { m_refPicListModificationFlagL1 = flag; }
uint32_t getRefPicSetIdxL0(uint32_t idx) const { CHECK(idx>=REF_PIC_LIST_NUM_IDX, "Invalid ref-pic-list index"); return m_RefPicSetIdxL0[idx]; }
void setRefPicSetIdxL0(uint32_t idx, uint32_t refPicSetIdx) { CHECK(idx>=REF_PIC_LIST_NUM_IDX, "Invalid ref-pic-list index"); m_RefPicSetIdxL0[idx] = refPicSetIdx; }
uint32_t getRefPicSetIdxL1(uint32_t idx) const { CHECK(idx>=REF_PIC_LIST_NUM_IDX, "Invalid ref-pic-list index"); return m_RefPicSetIdxL1[idx]; }
void setRefPicSetIdxL1(uint32_t idx, uint32_t refPicSetIdx) { CHECK(idx>=REF_PIC_LIST_NUM_IDX, "Invalid ref-pic-list index"); m_RefPicSetIdxL1[idx] = refPicSetIdx; }
};
/// PPS RExt class
class PPSRExt // Names aligned to text specification
{
private:
int m_log2MaxTransformSkipBlockSize;
bool m_crossComponentPredictionEnabledFlag;
// Chroma QP Adjustments
int m_diffCuChromaQpOffsetDepth;
int m_chromaQpOffsetListLen; // size (excludes the null entry used in the following array).
ChromaQpAdj m_ChromaQpAdjTableIncludingNullEntry[1+MAX_QP_OFFSET_LIST_SIZE]; //!< Array includes entry [0] for the null offset used when cu_chroma_qp_offset_flag=0, and entries [cu_chroma_qp_offset_idx+1...] otherwise
uint32_t m_log2SaoOffsetScale[MAX_NUM_CHANNEL_TYPE];
public:
PPSRExt();
bool settingsDifferFromDefaults(const bool bTransformSkipEnabledFlag) const
{
return (bTransformSkipEnabledFlag && (getLog2MaxTransformSkipBlockSize() !=2))
|| (getCrossComponentPredictionEnabledFlag() )
|| (getChromaQpOffsetListEnabledFlag() )
|| (getLog2SaoOffsetScale(CHANNEL_TYPE_LUMA) !=0 )
|| (getLog2SaoOffsetScale(CHANNEL_TYPE_CHROMA) !=0 );
}
uint32_t getLog2MaxTransformSkipBlockSize() const { return m_log2MaxTransformSkipBlockSize; }
void setLog2MaxTransformSkipBlockSize( uint32_t u ) { m_log2MaxTransformSkipBlockSize = u; }
bool getCrossComponentPredictionEnabledFlag() const { return m_crossComponentPredictionEnabledFlag; }
void setCrossComponentPredictionEnabledFlag(bool value) { m_crossComponentPredictionEnabledFlag = value; }
void clearChromaQpOffsetList() { m_chromaQpOffsetListLen = 0; }
uint32_t getDiffCuChromaQpOffsetDepth () const { return m_diffCuChromaQpOffsetDepth; }
void setDiffCuChromaQpOffsetDepth ( uint32_t u ) { m_diffCuChromaQpOffsetDepth = u; }
bool getChromaQpOffsetListEnabledFlag() const { return getChromaQpOffsetListLen()>0; }
int getChromaQpOffsetListLen() const { return m_chromaQpOffsetListLen; }
const ChromaQpAdj& getChromaQpOffsetListEntry( int cuChromaQpOffsetIdxPlus1 ) const
{
CHECK(cuChromaQpOffsetIdxPlus1 >= m_chromaQpOffsetListLen+1, "Invalid chroma QP offset");
return m_ChromaQpAdjTableIncludingNullEntry[cuChromaQpOffsetIdxPlus1]; // Array includes entry [0] for the null offset used when cu_chroma_qp_offset_flag=0, and entries [cu_chroma_qp_offset_idx+1...] otherwise
}
void setChromaQpOffsetListEntry( int cuChromaQpOffsetIdxPlus1, int cbOffset, int crOffset )
{
CHECK(cuChromaQpOffsetIdxPlus1 == 0 || cuChromaQpOffsetIdxPlus1 > MAX_QP_OFFSET_LIST_SIZE, "Invalid chroma QP offset"); m_ChromaQpAdjTableIncludingNullEntry[cuChromaQpOffsetIdxPlus1].u.comp.CbOffset = cbOffset; // Array includes entry [0] for the null offset used when cu_chroma_qp_offset_flag=0, and entries [cu_chroma_qp_offset_idx+1...] otherwise
m_ChromaQpAdjTableIncludingNullEntry[cuChromaQpOffsetIdxPlus1].u.comp.CrOffset = crOffset;
m_chromaQpOffsetListLen = std::max(m_chromaQpOffsetListLen, cuChromaQpOffsetIdxPlus1);
}
// Now: getPpsRangeExtension().getLog2SaoOffsetScale and getPpsRangeExtension().setLog2SaoOffsetScale
uint32_t getLog2SaoOffsetScale(ChannelType type) const { return m_log2SaoOffsetScale[type]; }
void setLog2SaoOffsetScale(ChannelType type, uint32_t uiBitShift) { m_log2SaoOffsetScale[type] = uiBitShift; }
};
/// PPS class
class PPS
{
private:
int m_PPSId; // pic_parameter_set_id
int m_SPSId; // seq_parameter_set_id
int m_picInitQPMinus26;
bool m_useDQP;
bool m_bConstrainedIntraPred; // constrained_intra_pred_flag
bool m_bSliceChromaQpFlag; // slicelevel_chroma_qp_flag
// access channel
uint32_t m_uiMaxCuDQPDepth;
int m_chromaCbQpOffset;
int m_chromaCrQpOffset;
uint32_t m_numRefIdxL0DefaultActive;
uint32_t m_numRefIdxL1DefaultActive;
bool m_bUseWeightPred; //!< Use of Weighting Prediction (P_SLICE)
bool m_useWeightedBiPred; //!< Use of Weighting Bi-Prediction (B_SLICE)
bool m_OutputFlagPresentFlag; //!< Indicates the presence of output_flag in slice header
bool m_TransquantBypassEnabledFlag; //!< Indicates presence of cu_transquant_bypass_flag in CUs.
bool m_useTransformSkip;
#if HEVC_DEPENDENT_SLICES
bool m_dependentSliceSegmentsEnabledFlag; //!< Indicates the presence of dependent slices
#endif
#if HEVC_TILES_WPP
bool m_tilesEnabledFlag; //!< Indicates the presence of tiles
bool m_entropyCodingSyncEnabledFlag; //!< Indicates the presence of wavefronts
bool m_loopFilterAcrossTilesEnabledFlag;
bool m_uniformSpacingFlag;
int m_numTileColumnsMinus1;
int m_numTileRowsMinus1;
std::vector<int> m_tileColumnWidth;
std::vector<int> m_tileRowHeight;
#endif
bool m_cabacInitPresentFlag;
bool m_sliceHeaderExtensionPresentFlag;
bool m_loopFilterAcrossSlicesEnabledFlag;
bool m_deblockingFilterControlPresentFlag;
bool m_deblockingFilterOverrideEnabledFlag;
bool m_ppsDeblockingFilterDisabledFlag;
int m_deblockingFilterBetaOffsetDiv2; //< beta offset for deblocking filter
int m_deblockingFilterTcOffsetDiv2; //< tc offset for deblocking filter
#if HEVC_USE_SCALING_LISTS
bool m_scalingListPresentFlag;
ScalingList m_scalingList; //!< ScalingList class
#endif
bool m_listsModificationPresentFlag;
uint32_t m_log2ParallelMergeLevelMinus2;
int m_numExtraSliceHeaderBits;
PPSRExt m_ppsRangeExtension;
public:
PreCalcValues *pcv;
public:
PPS();
virtual ~PPS();
int getPPSId() const { return m_PPSId; }
void setPPSId(int i) { m_PPSId = i; }
int getSPSId() const { return m_SPSId; }
void setSPSId(int i) { m_SPSId = i; }
int getPicInitQPMinus26() const { return m_picInitQPMinus26; }
void setPicInitQPMinus26( int i ) { m_picInitQPMinus26 = i; }
bool getUseDQP() const { return m_useDQP; }
void setUseDQP( bool b ) { m_useDQP = b; }
bool getConstrainedIntraPred() const { return m_bConstrainedIntraPred; }
void setConstrainedIntraPred( bool b ) { m_bConstrainedIntraPred = b; }
bool getSliceChromaQpFlag() const { return m_bSliceChromaQpFlag; }
void setSliceChromaQpFlag( bool b ) { m_bSliceChromaQpFlag = b; }
void setMaxCuDQPDepth( uint32_t u ) { m_uiMaxCuDQPDepth = u; }
uint32_t getMaxCuDQPDepth() const { return m_uiMaxCuDQPDepth; }
void setQpOffset(ComponentID compID, int i )
{
if (compID==COMPONENT_Cb)
{
m_chromaCbQpOffset = i;
}
else if (compID==COMPONENT_Cr)
{
m_chromaCrQpOffset = i;
}
else
{
THROW( "Invalid chroma QP offset" );
}
}
int getQpOffset(ComponentID compID) const
{
return (compID==COMPONENT_Y) ? 0 : (compID==COMPONENT_Cb ? m_chromaCbQpOffset : m_chromaCrQpOffset );
}
void setNumRefIdxL0DefaultActive(uint32_t ui) { m_numRefIdxL0DefaultActive=ui; }
uint32_t getNumRefIdxL0DefaultActive() const { return m_numRefIdxL0DefaultActive; }
void setNumRefIdxL1DefaultActive(uint32_t ui) { m_numRefIdxL1DefaultActive=ui; }
uint32_t getNumRefIdxL1DefaultActive() const { return m_numRefIdxL1DefaultActive; }
bool getUseWP() const { return m_bUseWeightPred; }
bool getWPBiPred() const { return m_useWeightedBiPred; }
void setUseWP( bool b ) { m_bUseWeightPred = b; }
void setWPBiPred( bool b ) { m_useWeightedBiPred = b; }
void setOutputFlagPresentFlag( bool b ) { m_OutputFlagPresentFlag = b; }
bool getOutputFlagPresentFlag() const { return m_OutputFlagPresentFlag; }
void setTransquantBypassEnabledFlag( bool b ) { m_TransquantBypassEnabledFlag = b; }
bool getTransquantBypassEnabledFlag() const { return m_TransquantBypassEnabledFlag; }
bool getUseTransformSkip() const { return m_useTransformSkip; }
void setUseTransformSkip( bool b ) { m_useTransformSkip = b; }
#if HEVC_TILES_WPP
void setLoopFilterAcrossTilesEnabledFlag(bool b) { m_loopFilterAcrossTilesEnabledFlag = b; }
bool getLoopFilterAcrossTilesEnabledFlag() const { return m_loopFilterAcrossTilesEnabledFlag; }
#endif
#if HEVC_DEPENDENT_SLICES
bool getDependentSliceSegmentsEnabledFlag() const { return m_dependentSliceSegmentsEnabledFlag; }
void setDependentSliceSegmentsEnabledFlag(bool val) { m_dependentSliceSegmentsEnabledFlag = val; }#endif
#if HEVC_TILES_WPP
bool getEntropyCodingSyncEnabledFlag() const { return m_entropyCodingSyncEnabledFlag; }
void setEntropyCodingSyncEnabledFlag(bool val) { m_entropyCodingSyncEnabledFlag = val; }
void setTilesEnabledFlag(bool val) { m_tilesEnabledFlag = val; }
bool getTilesEnabledFlag() const { return m_tilesEnabledFlag; }
void setTileUniformSpacingFlag(bool b) { m_uniformSpacingFlag = b; }
bool getTileUniformSpacingFlag() const { return m_uniformSpacingFlag; }
void setNumTileColumnsMinus1(int i) { m_numTileColumnsMinus1 = i; }
int getNumTileColumnsMinus1() const { return m_numTileColumnsMinus1; }
void setTileColumnWidth(const std::vector<int>& columnWidth ) { m_tileColumnWidth = columnWidth; }
uint32_t getTileColumnWidth(uint32_t columnIdx) const { return m_tileColumnWidth[columnIdx]; }
void setNumTileRowsMinus1(int i) { m_numTileRowsMinus1 = i; }
int getNumTileRowsMinus1() const { return m_numTileRowsMinus1; }
void setTileRowHeight(const std::vector<int>& rowHeight) { m_tileRowHeight = rowHeight; }
uint32_t getTileRowHeight(uint32_t rowIdx) const { return m_tileRowHeight[rowIdx]; }
#endif
void setCabacInitPresentFlag( bool flag ) { m_cabacInitPresentFlag = flag; }
bool getCabacInitPresentFlag() const { return m_cabacInitPresentFlag; }
void setDeblockingFilterControlPresentFlag( bool val ) { m_deblockingFilterControlPresentFlag = val; }
bool getDeblockingFilterControlPresentFlag() const { return m_deblockingFilterControlPresentFlag; }
void setDeblockingFilterOverrideEnabledFlag( bool val ) { m_deblockingFilterOverrideEnabledFlag = val; }
bool getDeblockingFilterOverrideEnabledFlag() const { return m_deblockingFilterOverrideEnabledFlag; }
void setPPSDeblockingFilterDisabledFlag(bool val) { m_ppsDeblockingFilterDisabledFlag = val; } //!< set offset for deblocking filter disabled
bool getPPSDeblockingFilterDisabledFlag() const { return m_ppsDeblockingFilterDisabledFlag; } //!< get offset for deblocking filter disabled
void setDeblockingFilterBetaOffsetDiv2(int val) { m_deblockingFilterBetaOffsetDiv2 = val; } //!< set beta offset for deblocking filter
int getDeblockingFilterBetaOffsetDiv2() const { return m_deblockingFilterBetaOffsetDiv2; } //!< get beta offset for deblocking filter
void setDeblockingFilterTcOffsetDiv2(int val) { m_deblockingFilterTcOffsetDiv2 = val; } //!< set tc offset for deblocking filter
int getDeblockingFilterTcOffsetDiv2() const { return m_deblockingFilterTcOffsetDiv2; } //!< get tc offset for deblocking filter
#if HEVC_USE_SCALING_LISTS
bool getScalingListPresentFlag() const { return m_scalingListPresentFlag; }
void setScalingListPresentFlag( bool b ) { m_scalingListPresentFlag = b; }
ScalingList& getScalingList() { return m_scalingList; }
const ScalingList& getScalingList() const { return m_scalingList; }
#endif
bool getListsModificationPresentFlag() const { return m_listsModificationPresentFlag; }
void setListsModificationPresentFlag( bool b ) { m_listsModificationPresentFlag = b; }
uint32_t getLog2ParallelMergeLevelMinus2() const { return m_log2ParallelMergeLevelMinus2; }
void setLog2ParallelMergeLevelMinus2(uint32_t mrgLevel) { m_log2ParallelMergeLevelMinus2 = mrgLevel; }
int getNumExtraSliceHeaderBits() const { return m_numExtraSliceHeaderBits; }
void setNumExtraSliceHeaderBits(int i) { m_numExtraSliceHeaderBits = i; }
void setLoopFilterAcrossSlicesEnabledFlag( bool bValue ) { m_loopFilterAcrossSlicesEnabledFlag = bValue; }
bool getLoopFilterAcrossSlicesEnabledFlag() const { return m_loopFilterAcrossSlicesEnabledFlag; }
bool getSliceHeaderExtensionPresentFlag() const { return m_sliceHeaderExtensionPresentFlag; }
void setSliceHeaderExtensionPresentFlag(bool val) { m_sliceHeaderExtensionPresentFlag = val; }
const PPSRExt& getPpsRangeExtension() const { return m_ppsRangeExtension; }
PPSRExt& getPpsRangeExtension() { return m_ppsRangeExtension; }
};
struct WPScalingParam
{
// Explicit weighted prediction parameters parsed in slice header,
// or Implicit weighted prediction parameters (8 bits depth values).
bool bPresentFlag;
uint32_t uiLog2WeightDenom;
int iWeight;
int iOffset;
// Weighted prediction scaling values built from above parameters (bitdepth scaled):
int w;
int o;
int offset;
int shift;
int round;
};
struct WPACDCParam{
int64_t iAC;
int64_t iDC;
};
/// slice header class
class Slice
{
private:
// Bitstream writing
bool m_saoEnabledFlag[MAX_NUM_CHANNEL_TYPE];
int m_iPPSId; ///< picture parameter set ID
bool m_PicOutputFlag; ///< pic_output_flag
int m_iPOC;
int m_iLastIDR;
int m_iAssociatedIRAP;
NalUnitType m_iAssociatedIRAPType;
const ReferencePictureSet* m_pRPS; //< pointer to RPS, either in the SPS or the local RPS in the same slice header
ReferencePictureSet m_localRPS; //< RPS when present in slice header
int m_rpsIdx; //< index of used RPS in the SPS or -1 for local RPS in the slice header
RefPicListModification m_RefPicListModification;
NalUnitType m_eNalUnitType; ///< Nal unit type for the slice
SliceType m_eSliceType;
int m_iSliceQp;
int m_iSliceQpBase;
#if HEVC_DEPENDENT_SLICES
bool m_dependentSliceSegmentFlag;
#endif
bool m_ChromaQpAdjEnabled;
bool m_deblockingFilterDisable;
bool m_deblockingFilterOverrideFlag; //< offsets for deblocking filter inherit from PPS
int m_deblockingFilterBetaOffsetDiv2; //< beta offset for deblocking filter
int m_deblockingFilterTcOffsetDiv2; //< tc offset for deblocking filter
int m_list1IdxToList0Idx[MAX_NUM_REF];
int m_aiNumRefIdx [NUM_REF_PIC_LIST_01]; // for multiple reference of current slice
bool m_pendingRasInit;
bool m_depQuantEnabledFlag;
#if HEVC_USE_SIGN_HIDING
bool m_signDataHidingEnabledFlag;
#endif
bool m_bCheckLDC;
// Data
int m_iSliceQpDelta;
int m_iSliceChromaQpDelta[MAX_NUM_COMPONENT];
Picture* m_apcRefPicList [NUM_REF_PIC_LIST_01][MAX_NUM_REF+1];
int m_aiRefPOCList [NUM_REF_PIC_LIST_01][MAX_NUM_REF+1];
bool m_bIsUsedAsLongTerm[NUM_REF_PIC_LIST_01][MAX_NUM_REF+1];
int m_iDepth;
// access channel
#if HEVC_VPS
const VPS* m_pcVPS;
#endif
const SPS* m_pcSPS;
const PPS* m_pcPPS;
Picture* m_pcPic;
bool m_colFromL0Flag; // collocated picture from List0 flag
bool m_noOutputPriorPicsFlag;
bool m_noRaslOutputFlag;
bool m_handleCraAsBlaFlag;
uint32_t m_colRefIdx;
uint32_t m_maxNumMergeCand;#if JVET_L0632_AFFINE_MERGE
uint32_t m_maxNumAffineMergeCand;
#endif
double m_lambdas[MAX_NUM_COMPONENT];
bool m_abEqualRef [NUM_REF_PIC_LIST_01][MAX_NUM_REF][MAX_NUM_REF];
uint32_t m_uiTLayer;
bool m_bTLayerSwitchingFlag;
SliceConstraint m_sliceMode;
uint32_t m_sliceArgument;
uint32_t m_sliceCurStartCtuTsAddr;
uint32_t m_sliceCurEndCtuTsAddr;
uint32_t m_independentSliceIdx;
#if HEVC_DEPENDENT_SLICES
uint32_t m_sliceSegmentIdx;
SliceConstraint m_sliceSegmentMode;
uint32_t m_sliceSegmentArgument;
uint32_t m_sliceSegmentCurStartCtuTsAddr;
uint32_t m_sliceSegmentCurEndCtuTsAddr;
#endif
bool m_nextSlice;
#if HEVC_DEPENDENT_SLICES
bool m_nextSliceSegment;
#endif
uint32_t m_sliceBits;
#if HEVC_DEPENDENT_SLICES
uint32_t m_sliceSegmentBits;
#endif
bool m_bFinalized;
bool m_bTestWeightPred;
bool m_bTestWeightBiPred;
WPScalingParam m_weightPredTable[NUM_REF_PIC_LIST_01][MAX_NUM_REF][MAX_NUM_COMPONENT]; // [REF_PIC_LIST_0 or REF_PIC_LIST_1][refIdx][0:Y, 1:U, 2:V]
WPACDCParam m_weightACDCParam[MAX_NUM_COMPONENT];
ClpRngs m_clpRngs;
std::vector<uint32_t> m_substreamSizes;
bool m_cabacInitFlag;
int m_cabacWinUpdateMode;
bool m_bLMvdL1Zero;
bool m_temporalLayerNonReferenceFlag;
bool m_LFCrossSliceBoundaryFlag;
bool m_enableTMVPFlag;
#if !JVET_L0198_L0468_L0104_ATMVP_8x8SUB_BLOCK
bool m_subPuMvpSubBlkSizeSliceEnable;
int m_subPuMvpSubBlkLog2Size;
#endif
SliceType m_encCABACTableIdx; // Used to transmit table selection across slices.
clock_t m_iProcessingStartTime;
double m_dProcessingTime;
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
bool m_splitConsOverrideFlag;
uint32_t m_uiMinQTSize;
uint32_t m_uiMaxBTDepth;
uint32_t m_uiMaxTTSize;
uint32_t m_uiMinQTSizeIChroma;
uint32_t m_uiMaxBTDepthIChroma;
uint32_t m_uiMaxBTSizeIChroma;
uint32_t m_uiMaxTTSizeIChroma;
#endif
uint32_t m_uiMaxBTSize;
AlfSliceParam m_alfSliceParam;
#if JVET_L0266_HMVP
LutMotionCand* m_MotionCandLut;
#endif
public:
Slice();
virtual ~Slice();
void initSlice();
int getRefIdx4MVPair( RefPicList eCurRefPicList, int nCurRefIdx );
#if HEVC_VPS
void setVPS( VPS* pcVPS ) { m_pcVPS = pcVPS; }
const VPS* getVPS() const { return m_pcVPS; }
#endif
void setSPS( const SPS* pcSPS ) { m_pcSPS = pcSPS; }
const SPS* getSPS() const { return m_pcSPS; }
void setPPS( const PPS* pcPPS ) { m_pcPPS = pcPPS; m_iPPSId = (pcPPS) ? pcPPS->getPPSId() : -1; }
const PPS* getPPS() const { return m_pcPPS; }
void setPPSId( int PPSId ) { m_iPPSId = PPSId; }
int getPPSId() const { return m_iPPSId; }
void setPicOutputFlag( bool b ) { m_PicOutputFlag = b; }
bool getPicOutputFlag() const { return m_PicOutputFlag; }
void setSaoEnabledFlag(ChannelType chType, bool s) {m_saoEnabledFlag[chType] =s; }
bool getSaoEnabledFlag(ChannelType chType) const { return m_saoEnabledFlag[chType]; }
void setRPS( const ReferencePictureSet *pcRPS ) { m_pRPS = pcRPS; }
const ReferencePictureSet* getRPS() { return m_pRPS; }
ReferencePictureSet* getLocalRPS() { return &m_localRPS; }
void setRPSidx( int rpsIdx ) { m_rpsIdx = rpsIdx; }
int getRPSidx() const { return m_rpsIdx; }
RefPicListModification* getRefPicListModification() { return &m_RefPicListModification; }
void setLastIDR(int iIDRPOC) { m_iLastIDR = iIDRPOC; }
int getLastIDR() const { return m_iLastIDR; }
void setAssociatedIRAPPOC(int iAssociatedIRAPPOC) { m_iAssociatedIRAP = iAssociatedIRAPPOC; }
int getAssociatedIRAPPOC() const { return m_iAssociatedIRAP; }
void setAssociatedIRAPType(NalUnitType associatedIRAPType) { m_iAssociatedIRAPType = associatedIRAPType; }
NalUnitType getAssociatedIRAPType() const { return m_iAssociatedIRAPType; }
SliceType getSliceType() const { return m_eSliceType; }
int getPOC() const { return m_iPOC; }
int getSliceQp() const { return m_iSliceQp; }
bool getUseWeightedPrediction() const { return( (m_eSliceType==P_SLICE && testWeightPred()) || (m_eSliceType==B_SLICE && testWeightBiPred()) ); }
#if HEVC_DEPENDENT_SLICES
bool getDependentSliceSegmentFlag() const { return m_dependentSliceSegmentFlag; }
void setDependentSliceSegmentFlag(bool val) { m_dependentSliceSegmentFlag = val; }
#endif
int getSliceQpDelta() const { return m_iSliceQpDelta; }
int getSliceChromaQpDelta(ComponentID compID) const { return isLuma(compID) ? 0 : m_iSliceChromaQpDelta[compID]; }
bool getUseChromaQpAdj() const { return m_ChromaQpAdjEnabled; }
bool getDeblockingFilterDisable() const { return m_deblockingFilterDisable; }
bool getDeblockingFilterOverrideFlag() const { return m_deblockingFilterOverrideFlag; }
int getDeblockingFilterBetaOffsetDiv2()const { return m_deblockingFilterBetaOffsetDiv2; }
int getDeblockingFilterTcOffsetDiv2() const { return m_deblockingFilterTcOffsetDiv2; }
bool getPendingRasInit() const { return m_pendingRasInit; }
void setPendingRasInit( bool val ) { m_pendingRasInit = val; }
int getNumRefIdx( RefPicList e ) const { return m_aiNumRefIdx[e]; }
Picture* getPic() { return m_pcPic; }
const Picture* getPic() const { return m_pcPic; }
const Picture* getRefPic( RefPicList e, int iRefIdx) const { return m_apcRefPicList[e][iRefIdx]; }
int getRefPOC( RefPicList e, int iRefIdx) const { return m_aiRefPOCList[e][iRefIdx]; }
int getDepth() const { return m_iDepth; }
bool getColFromL0Flag() const { return m_colFromL0Flag; }
uint32_t getColRefIdx() const { return m_colRefIdx; }
void checkColRefIdx(uint32_t curSliceSegmentIdx, const Picture* pic);
bool getIsUsedAsLongTerm(int i, int j) const { return m_bIsUsedAsLongTerm[i][j]; }
void setIsUsedAsLongTerm(int i, int j, bool value) { m_bIsUsedAsLongTerm[i][j] = value; }
bool getCheckLDC() const { return m_bCheckLDC; }
bool getMvdL1ZeroFlag() const { return m_bLMvdL1Zero; } int getNumRpsCurrTempList() const;
int getList1IdxToList0Idx( int list1Idx ) const { return m_list1IdxToList0Idx[list1Idx]; }
bool isReferenceNalu() const { return ((getNalUnitType() <= NAL_UNIT_RESERVED_VCL_R15) && (getNalUnitType()%2 != 0)) || ((getNalUnitType() >= NAL_UNIT_CODED_SLICE_BLA_W_LP) && (getNalUnitType() <= NAL_UNIT_RESERVED_IRAP_VCL23) ); }
void setPOC( int i ) { m_iPOC = i; }
void setNalUnitType( NalUnitType e ) { m_eNalUnitType = e; }
NalUnitType getNalUnitType() const { return m_eNalUnitType; }
bool getRapPicFlag() const;
bool getIdrPicFlag() const { return getNalUnitType() == NAL_UNIT_CODED_SLICE_IDR_W_RADL || getNalUnitType() == NAL_UNIT_CODED_SLICE_IDR_N_LP; }
bool isIRAP() const { return (getNalUnitType() >= 16) && (getNalUnitType() <= 23); }
bool isIDRorBLA() const { return (getNalUnitType() >= 16) && (getNalUnitType() <= 20); }
void checkCRA(const ReferencePictureSet *pReferencePictureSet, int& pocCRA, NalUnitType& associatedIRAPType, PicList& rcListPic);
void decodingRefreshMarking(int& pocCRA, bool& bRefreshPending, PicList& rcListPic, const bool bEfficientFieldIRAPEnabled);
void setSliceType( SliceType e ) { m_eSliceType = e; }
void setSliceQp( int i ) { m_iSliceQp = i; }
void setSliceQpDelta( int i ) { m_iSliceQpDelta = i; }
void setSliceChromaQpDelta( ComponentID compID, int i ) { m_iSliceChromaQpDelta[compID] = isLuma(compID) ? 0 : i; }
void setUseChromaQpAdj( bool b ) { m_ChromaQpAdjEnabled = b; }
void setDeblockingFilterDisable( bool b ) { m_deblockingFilterDisable= b; }
void setDeblockingFilterOverrideFlag( bool b ) { m_deblockingFilterOverrideFlag = b; }
void setDeblockingFilterBetaOffsetDiv2( int i ) { m_deblockingFilterBetaOffsetDiv2 = i; }
void setDeblockingFilterTcOffsetDiv2( int i ) { m_deblockingFilterTcOffsetDiv2 = i; }
void setNumRefIdx( RefPicList e, int i ) { m_aiNumRefIdx[e] = i; }
void setPic( Picture* p ) { m_pcPic = p; }
void setDepth( int iDepth ) { m_iDepth = iDepth; }
void setRefPicList( PicList& rcListPic, bool checkNumPocTotalCurr = false, bool bCopyL0toL1ErrorCase = false );
void setRefPOCList();
void setColFromL0Flag( bool colFromL0 ) { m_colFromL0Flag = colFromL0; }
void setColRefIdx( uint32_t refIdx) { m_colRefIdx = refIdx; }
void setCheckLDC( bool b ) { m_bCheckLDC = b; }
void setMvdL1ZeroFlag( bool b) { m_bLMvdL1Zero = b; }
bool isIntra() const { return m_eSliceType == I_SLICE; }
bool isInterB() const { return m_eSliceType == B_SLICE; }
bool isInterP() const { return m_eSliceType == P_SLICE; }
void setLambdas( const double lambdas[MAX_NUM_COMPONENT] ) { for (int component = 0; component < MAX_NUM_COMPONENT; component++) m_lambdas[component] = lambdas[component]; }
const double* getLambdas() const { return m_lambdas; }
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
void setSplitConsOverrideFlag(bool b) { m_splitConsOverrideFlag = b; }
bool getSplitConsOverrideFlag() const { return m_splitConsOverrideFlag; }
void setMinQTSize(int i) { m_uiMinQTSize = i; }
uint32_t getMinQTSize() const { return m_uiMinQTSize; }
void setMaxBTDepth(int i) { m_uiMaxBTDepth = i; }
uint32_t getMaxBTDepth() const { return m_uiMaxBTDepth; }
void setMaxTTSize(int i) { m_uiMaxTTSize = i; }
uint32_t getMaxTTSize() const { return m_uiMaxTTSize; }
void setMinQTSizeIChroma(int i) { m_uiMinQTSizeIChroma = i; }
uint32_t getMinQTSizeIChroma() const { return m_uiMinQTSizeIChroma; }
void setMaxBTDepthIChroma(int i) { m_uiMaxBTDepthIChroma = i; }
uint32_t getMaxBTDepthIChroma() const { return m_uiMaxBTDepthIChroma; }
void setMaxBTSizeIChroma(int i) { m_uiMaxBTSizeIChroma = i; }
uint32_t getMaxBTSizeIChroma() const { return m_uiMaxBTSizeIChroma; }
void setMaxTTSizeIChroma(int i) { m_uiMaxTTSizeIChroma = i; }
uint32_t getMaxTTSizeIChroma() const { return m_uiMaxTTSizeIChroma; }
#endif
void setMaxBTSize(int i) { m_uiMaxBTSize = i; }
uint32_t getMaxBTSize() const { return m_uiMaxBTSize; }
void setDepQuantEnabledFlag( bool b ) { m_depQuantEnabledFlag = b; }
bool getDepQuantEnabledFlag() const { return m_depQuantEnabledFlag; }
#if HEVC_USE_SIGN_HIDING
void setSignDataHidingEnabledFlag( bool b ) { m_signDataHidingEnabledFlag = b; }
bool getSignDataHidingEnabledFlag() const { return m_signDataHidingEnabledFlag; }
#endif
void initEqualRef();
bool isEqualRef( RefPicList e, int iRefIdx1, int iRefIdx2 )
{
CHECK(e>=NUM_REF_PIC_LIST_01, "Invalid reference picture list");
if (iRefIdx1 < 0 || iRefIdx2 < 0)
{
return false;
}
else
{
return m_abEqualRef[e][iRefIdx1][iRefIdx2];
}
}
void setEqualRef( RefPicList e, int iRefIdx1, int iRefIdx2, bool b)
{
CHECK( e >= NUM_REF_PIC_LIST_01, "Invalid reference picture list" );
m_abEqualRef[e][iRefIdx1][iRefIdx2] = m_abEqualRef[e][iRefIdx2][iRefIdx1] = b;
}
static void sortPicList( PicList& rcListPic );
void setList1IdxToList0Idx();
uint32_t getTLayer() const { return m_uiTLayer; }
void setTLayer( uint32_t uiTLayer ) { m_uiTLayer = uiTLayer; }
void checkLeadingPictureRestrictions( PicList& rcListPic ) const;
void applyReferencePictureSet( PicList& rcListPic, const ReferencePictureSet *RPSList) const;
bool isTemporalLayerSwitchingPoint( PicList& rcListPic ) const;
bool isStepwiseTemporalLayerSwitchingPointCandidate( PicList& rcListPic ) const;
int checkThatAllRefPicsAreAvailable( PicList& rcListPic, const ReferencePictureSet *pReferencePictureSet, bool printErrors, int pocRandomAccess = 0, bool bUseRecoveryPoint = false) const;
void createExplicitReferencePictureSetFromReference(PicList& rcListPic, const ReferencePictureSet *pReferencePictureSet, bool isRAP, int pocRandomAccess, bool bUseRecoveryPoint, const bool bEfficientFieldIRAPEnabled
, bool isEncodeLtRef, bool isCompositeRefEnable
);
void setMaxNumMergeCand(uint32_t val ) { m_maxNumMergeCand = val; }
uint32_t getMaxNumMergeCand() const { return m_maxNumMergeCand; }
#if JVET_L0632_AFFINE_MERGE
void setMaxNumAffineMergeCand( uint32_t val ) { m_maxNumAffineMergeCand = val; }
uint32_t getMaxNumAffineMergeCand() const { return m_maxNumAffineMergeCand; }
#endif
void setNoOutputPriorPicsFlag( bool val ) { m_noOutputPriorPicsFlag = val; }
bool getNoOutputPriorPicsFlag() const { return m_noOutputPriorPicsFlag; }
void setNoRaslOutputFlag( bool val ) { m_noRaslOutputFlag = val; }
bool getNoRaslOutputFlag() const { return m_noRaslOutputFlag; }
void setHandleCraAsBlaFlag( bool val ) { m_handleCraAsBlaFlag = val; }
bool getHandleCraAsBlaFlag() const { return m_handleCraAsBlaFlag; }
void setSliceMode( SliceConstraint mode ) { m_sliceMode = mode; }
SliceConstraint getSliceMode() const { return m_sliceMode; }
void setSliceArgument( uint32_t uiArgument ) { m_sliceArgument = uiArgument; }
uint32_t getSliceArgument() const { return m_sliceArgument; }
void setSliceCurStartCtuTsAddr( uint32_t ctuTsAddr ) { m_sliceCurStartCtuTsAddr = ctuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
uint32_t getSliceCurStartCtuTsAddr() const { return m_sliceCurStartCtuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
void setSliceCurEndCtuTsAddr( uint32_t ctuTsAddr ) { m_sliceCurEndCtuTsAddr = ctuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
uint32_t getSliceCurEndCtuTsAddr() const { return m_sliceCurEndCtuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
void setIndependentSliceIdx( uint32_t i) { m_independentSliceIdx = i; }
uint32_t getIndependentSliceIdx() const { return m_independentSliceIdx; }
#if HEVC_DEPENDENT_SLICES
void setSliceSegmentIdx( uint32_t i) { m_sliceSegmentIdx = i; }
uint32_t getSliceSegmentIdx() const { return m_sliceSegmentIdx; }
#endif
void copySliceInfo(Slice *pcSliceSrc, bool cpyAlmostAll = true);
#if HEVC_DEPENDENT_SLICES
void setSliceSegmentMode( SliceConstraint mode ) { m_sliceSegmentMode = mode; }
SliceConstraint getSliceSegmentMode() const { return m_sliceSegmentMode; }
void setSliceSegmentArgument( uint32_t uiArgument ) { m_sliceSegmentArgument = uiArgument; }
uint32_t getSliceSegmentArgument() const { return m_sliceSegmentArgument; }#if HEVC_TILES_WPP
void setSliceSegmentCurStartCtuTsAddr( uint32_t ctuTsAddr ) { m_sliceSegmentCurStartCtuTsAddr = ctuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
uint32_t getSliceSegmentCurStartCtuTsAddr() const { return m_sliceSegmentCurStartCtuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
void setSliceSegmentCurEndCtuTsAddr( uint32_t ctuTsAddr ) { m_sliceSegmentCurEndCtuTsAddr = ctuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
uint32_t getSliceSegmentCurEndCtuTsAddr() const { return m_sliceSegmentCurEndCtuTsAddr; } // CTU Tile-scan address (as opposed to raster-scan)
#endif
#endif
void setSliceBits( uint32_t uiVal ) { m_sliceBits = uiVal; }
uint32_t getSliceBits() const { return m_sliceBits; }
#if HEVC_DEPENDENT_SLICES
void setSliceSegmentBits( uint32_t uiVal ) { m_sliceSegmentBits = uiVal; }
uint32_t getSliceSegmentBits() const { return m_sliceSegmentBits; }
#endif
void setFinalized( bool uiVal ) { m_bFinalized = uiVal; }
bool getFinalized() const { return m_bFinalized; }
bool testWeightPred( ) const { return m_bTestWeightPred; }
void setTestWeightPred( bool bValue ) { m_bTestWeightPred = bValue; }
bool testWeightBiPred( ) const { return m_bTestWeightBiPred; }
void setTestWeightBiPred( bool bValue ) { m_bTestWeightBiPred = bValue; }
void setWpScaling( WPScalingParam wp[NUM_REF_PIC_LIST_01][MAX_NUM_REF][MAX_NUM_COMPONENT] )
{
memcpy(m_weightPredTable, wp, sizeof(WPScalingParam)*NUM_REF_PIC_LIST_01*MAX_NUM_REF*MAX_NUM_COMPONENT);
}
void getWpScaling( RefPicList e, int iRefIdx, WPScalingParam *&wp) const;
void resetWpScaling();
void initWpScaling(const SPS *sps);
void setWpAcDcParam( WPACDCParam wp[MAX_NUM_COMPONENT] ) { memcpy(m_weightACDCParam, wp, sizeof(WPACDCParam)*MAX_NUM_COMPONENT); }
void getWpAcDcParam( const WPACDCParam *&wp ) const;
void initWpAcDcParam();
void clearSubstreamSizes( ) { return m_substreamSizes.clear(); }
uint32_t getNumberOfSubstreamSizes( ) { return (uint32_t) m_substreamSizes.size(); }
void addSubstreamSize( uint32_t size ) { m_substreamSizes.push_back(size); }
uint32_t getSubstreamSize( uint32_t idx ) { CHECK(idx>=getNumberOfSubstreamSizes(),"Invalid index"); return m_substreamSizes[idx]; }
void setCabacInitFlag( bool val ) { m_cabacInitFlag = val; } //!< set CABAC initial flag
bool getCabacInitFlag() const { return m_cabacInitFlag; } //!< get CABAC initial flag
void setCabacWinUpdateMode( int mode ) { m_cabacWinUpdateMode = mode; }
int getCabacWinUpdateMode() const { return m_cabacWinUpdateMode; }
bool getTemporalLayerNonReferenceFlag() const { return m_temporalLayerNonReferenceFlag; }
void setTemporalLayerNonReferenceFlag(bool x) { m_temporalLayerNonReferenceFlag = x; }
void setLFCrossSliceBoundaryFlag( bool val ) { m_LFCrossSliceBoundaryFlag = val; }
bool getLFCrossSliceBoundaryFlag() const { return m_LFCrossSliceBoundaryFlag; }
void setEnableTMVPFlag( bool b ) { m_enableTMVPFlag = b; }
bool getEnableTMVPFlag() const { return m_enableTMVPFlag; }
void setEncCABACTableIdx( SliceType idx ) { m_encCABACTableIdx = idx; }
SliceType getEncCABACTableIdx() const { return m_encCABACTableIdx; }
#if !JVET_L0198_L0468_L0104_ATMVP_8x8SUB_BLOCK
void setSubPuMvpSliceSubblkSizeEnable(bool b) { m_subPuMvpSubBlkSizeSliceEnable = b; }
bool getSubPuMvpSliceSubblkSizeEnable() const { return m_subPuMvpSubBlkSizeSliceEnable; }
void setSubPuMvpSubblkLog2Size(int n) { m_subPuMvpSubBlkLog2Size = n; }
int getSubPuMvpSubblkLog2Size() const { return m_subPuMvpSubBlkLog2Size; }
#endif
void setSliceQpBase( int i ) { m_iSliceQpBase = i; }
int getSliceQpBase() const { return m_iSliceQpBase; }
void setDefaultClpRng( const SPS& sps );
const ClpRngs& clpRngs() const { return m_clpRngs;}
const ClpRng& clpRng( ComponentID id) const { return m_clpRngs.comp[id];}
ClpRngs& getClpRngs() { return m_clpRngs;}
unsigned getMinPictureDistance() const ;
void startProcessingTimer(); void stopProcessingTimer();
void resetProcessingTime() { m_dProcessingTime = m_iProcessingStartTime = 0; }
double getProcessingTime() const { return m_dProcessingTime; }
void setAlfSliceParam( AlfSliceParam& alfSliceParam ) { m_alfSliceParam = alfSliceParam; }
AlfSliceParam& getAlfSliceParam() { return m_alfSliceParam; }
#if JVET_L0266_HMVP
void initMotionLUTs ();
void destroyMotionLUTs ();
void resetMotionLUTs();
int getAvailableLUTMrgNum() const { return m_MotionCandLut->currCnt; }
MotionInfo getMotionInfoFromLUTs(int MotCandIdx) const;
LutMotionCand* getMotionLUTs() { return m_MotionCandLut; }
void addMotionInfoToLUTs(LutMotionCand* lutMC, MotionInfo newMi);
void updateMotionLUTs(LutMotionCand* lutMC, CodingUnit & cu);
void copyMotionLUTs(LutMotionCand* Src, LutMotionCand* Dst);
#endif
protected:
Picture* xGetRefPic (PicList& rcListPic, int poc);
Picture* xGetLongTermRefPic(PicList& rcListPic, int poc, bool pocHasMsb);
};// END CLASS DEFINITION Slice
void calculateParameterSetChangedFlag(bool &bChanged, const std::vector<uint8_t> *pOldData, const std::vector<uint8_t> *pNewData);
template <class T> class ParameterSetMap
{
public:
template <class Tm>
struct MapData
{
bool bChanged;
std::vector<uint8_t> *pNaluData; // Can be null
Tm* parameterSet;
};
ParameterSetMap(int maxId)
:m_maxId (maxId)
,m_activePsId(-1)
,m_lastActiveParameterSet(NULL)
{}
~ParameterSetMap()
{
for (typename std::map<int,MapData<T> >::iterator i = m_paramsetMap.begin(); i!= m_paramsetMap.end(); i++)
{
delete (*i).second.pNaluData;
delete (*i).second.parameterSet;
}
delete m_lastActiveParameterSet; m_lastActiveParameterSet = NULL;
}
T *allocatePS(const int psId)
{
CHECK( psId >= m_maxId, "Invalid PS id" );
if ( m_paramsetMap.find(psId) == m_paramsetMap.end() )
{
m_paramsetMap[psId].bChanged = true;
m_paramsetMap[psId].pNaluData=0;
m_paramsetMap[psId].parameterSet = new T;
setID(m_paramsetMap[psId].parameterSet, psId);
}
return m_paramsetMap[psId].parameterSet; }
void storePS(int psId, T *ps, const std::vector<uint8_t> *pNaluData)
{
CHECK( psId >= m_maxId, "Invalid PS id" );
if ( m_paramsetMap.find(psId) != m_paramsetMap.end() )
{
MapData<T> &mapData=m_paramsetMap[psId];
// work out changed flag
calculateParameterSetChangedFlag(mapData.bChanged, mapData.pNaluData, pNaluData);
if( ! mapData.bChanged )
{
// just keep the old one
delete ps;
return;
}
if( m_activePsId == psId )
{
std::swap( m_paramsetMap[psId].parameterSet, m_lastActiveParameterSet );
}
delete m_paramsetMap[psId].pNaluData;
delete m_paramsetMap[psId].parameterSet;
m_paramsetMap[psId].parameterSet = ps;
}
else
{
m_paramsetMap[psId].parameterSet = ps;
m_paramsetMap[psId].bChanged = false;
}
if (pNaluData != 0)
{
m_paramsetMap[psId].pNaluData=new std::vector<uint8_t>;
*(m_paramsetMap[psId].pNaluData) = *pNaluData;
}
else
{
m_paramsetMap[psId].pNaluData=0;
}
}
void setChangedFlag(int psId, bool bChanged=true)
{
if ( m_paramsetMap.find(psId) != m_paramsetMap.end() )
{
m_paramsetMap[psId].bChanged=bChanged;
}
}
void clearChangedFlag(int psId)
{
if ( m_paramsetMap.find(psId) != m_paramsetMap.end() )
{
m_paramsetMap[psId].bChanged=false;
}
}
bool getChangedFlag(int psId) const
{
const typename std::map<int,MapData<T> >::const_iterator constit=m_paramsetMap.find(psId);
if ( constit != m_paramsetMap.end() )
{
return constit->second.bChanged;
}
return false;
}
T* getPS(int psId)
{
typename std::map<int,MapData<T> >::iterator it=m_paramsetMap.find(psId);
return ( it == m_paramsetMap.end() ) ? NULL : (it)->second.parameterSet;
}
const T* getPS(int psId) const
{
typename std::map<int,MapData<T> >::const_iterator it=m_paramsetMap.find(psId);
return ( it == m_paramsetMap.end() ) ? NULL : (it)->second.parameterSet;
}
T* getFirstPS()
{
return (m_paramsetMap.begin() == m_paramsetMap.end() ) ? NULL : m_paramsetMap.begin()->second.parameterSet;
}
void setActive(int psId ) { m_activePsId = psId;}
private:
std::map<int,MapData<T> > m_paramsetMap;
int m_maxId;
int m_activePsId;
T* m_lastActiveParameterSet;
static void setID(T* parameterSet, const int psId);
};
class ParameterSetManager
{
public:
ParameterSetManager();
virtual ~ParameterSetManager();
#if HEVC_VPS
//! store sequence parameter set and take ownership of it
void storeVPS(VPS *vps, const std::vector<uint8_t> &naluData) { m_vpsMap.storePS( vps->getVPSId(), vps, &naluData); };
//! get pointer to existing video parameter set
VPS* getVPS(int vpsId) { return m_vpsMap.getPS(vpsId); };
bool getVPSChangedFlag(int vpsId) const { return m_vpsMap.getChangedFlag(vpsId); }
void clearVPSChangedFlag(int vpsId) { m_vpsMap.clearChangedFlag(vpsId); }
VPS* getFirstVPS() { return m_vpsMap.getFirstPS(); };
#endif
//! store sequence parameter set and take ownership of it
void storeSPS(SPS *sps, const std::vector<uint8_t> &naluData) { m_spsMap.storePS( sps->getSPSId(), sps, &naluData); };
//! get pointer to existing sequence parameter set
SPS* getSPS(int spsId) { return m_spsMap.getPS(spsId); };
bool getSPSChangedFlag(int spsId) const { return m_spsMap.getChangedFlag(spsId); }
void clearSPSChangedFlag(int spsId) { m_spsMap.clearChangedFlag(spsId); }
SPS* getFirstSPS() { return m_spsMap.getFirstPS(); };
//! store picture parameter set and take ownership of it
void storePPS(PPS *pps, const std::vector<uint8_t> &naluData) { m_ppsMap.storePS( pps->getPPSId(), pps, &naluData); };
//! get pointer to existing picture parameter set
PPS* getPPS(int ppsId) { return m_ppsMap.getPS(ppsId); };
bool getPPSChangedFlag(int ppsId) const { return m_ppsMap.getChangedFlag(ppsId); }
void clearPPSChangedFlag(int ppsId) { m_ppsMap.clearChangedFlag(ppsId); }
PPS* getFirstPPS() { return m_ppsMap.getFirstPS(); };
//! activate a SPS from a active parameter sets SEI message
//! \returns true, if activation is successful
// bool activateSPSWithSEI(int SPSId);
#if HEVC_VPS
//! activate a PPS and depending on isIDR parameter also SPS and VPS
#else
//! activate a PPS and depending on isIDR parameter also SPS
#endif
//! \returns true, if activation is successful bool activatePPS(int ppsId, bool isIRAP);
#if HEVC_VPS
const VPS* getActiveVPS()const { return m_vpsMap.getPS(m_activeVPSId); };
#endif
const SPS* getActiveSPS()const { return m_spsMap.getPS(m_activeSPSId); };
protected:
#if HEVC_VPS
ParameterSetMap<VPS> m_vpsMap;
#endif
ParameterSetMap<SPS> m_spsMap;
ParameterSetMap<PPS> m_ppsMap;
#if HEVC_VPS
int m_activeVPSId; // -1 for nothing active
#endif
int m_activeSPSId; // -1 for nothing active
};
class PreCalcValues
{
public:
PreCalcValues( const SPS& sps, const PPS& pps, bool _isEncoder )
: chrFormat ( sps.getChromaFormatIdc() )
, multiBlock422 ( false )
, noMotComp ( sps.getSpsNext().getDisableMotCompress() )
, maxCUWidth ( sps.getMaxCUWidth() )
, maxCUHeight ( sps.getMaxCUHeight() )
, maxCUWidthMask ( maxCUWidth - 1 )
, maxCUHeightMask ( maxCUHeight - 1 )
, maxCUWidthLog2 ( g_aucLog2[ maxCUWidth ] )
, maxCUHeightLog2 ( g_aucLog2[ maxCUHeight ] )
, minCUWidth ( sps.getMaxCUWidth() >> sps.getMaxCodingDepth() )
, minCUHeight ( sps.getMaxCUHeight() >> sps.getMaxCodingDepth() )
, minCUWidthLog2 ( g_aucLog2[ minCUWidth ] )
, minCUHeightLog2 ( g_aucLog2[ minCUHeight ] )
, partsInCtuWidth ( 1 << sps.getMaxCodingDepth() )
, partsInCtuHeight ( 1 << sps.getMaxCodingDepth() )
, partsInCtu ( 1 << (sps.getMaxCodingDepth() << 1) )
, widthInCtus ( (sps.getPicWidthInLumaSamples () + sps.getMaxCUWidth () - 1) / sps.getMaxCUWidth () )
, heightInCtus ( (sps.getPicHeightInLumaSamples() + sps.getMaxCUHeight() - 1) / sps.getMaxCUHeight() )
, sizeInCtus ( widthInCtus * heightInCtus )
, lumaWidth ( sps.getPicWidthInLumaSamples() )
, lumaHeight ( sps.getPicHeightInLumaSamples() )
, fastDeltaQPCuMaxSize( Clip3(sps.getMaxCUHeight() >> (sps.getLog2DiffMaxMinCodingBlockSize()), sps.getMaxCUHeight(), 32u) )
, noChroma2x2 ( false )
, isEncoder ( _isEncoder )
#if JVET_L0217_L0678_SPS_CLEANUP
, ISingleTree ( !sps.getUseDualITree() )
, maxBtDepth { sps.getMaxBTDepthI(), sps.getMaxBTDepth(), sps.getMaxBTDepthIChroma() }
, minBtSize { MIN_BT_SIZE, MIN_BT_SIZE_INTER, MIN_BT_SIZE_C }
, maxBtSize { sps.getMaxBTSizeI(), sps.getMaxBTSize(), sps.getMaxBTSizeIChroma() }
, minTtSize { MIN_TT_SIZE, MIN_TT_SIZE_INTER, MIN_TT_SIZE_C }
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
, maxTtSize { sps.getMaxTTSizeI(), sps.getMaxTTSize(), sps.getMaxTTSizeIChroma() }
#else
, maxTtSize { MAX_TT_SIZE, MAX_TT_SIZE_INTER, MAX_TT_SIZE_C }
#endif
, minQtSize { sps.getMinQTSize(I_SLICE, CHANNEL_TYPE_LUMA), sps.getMinQTSize(B_SLICE, CHANNEL_TYPE_LUMA), sps.getMinQTSize(I_SLICE, CHANNEL_TYPE_CHROMA) }
#else
, ISingleTree ( !sps.getSpsNext().getUseDualITree() )
, maxBtDepth { sps.getSpsNext().getMaxBTDepthI(), sps.getSpsNext().getMaxBTDepth(), sps.getSpsNext().getMaxBTDepthIChroma() }
, minBtSize { MIN_BT_SIZE, MIN_BT_SIZE_INTER, MIN_BT_SIZE_C }
, maxBtSize { sps.getSpsNext().getMaxBTSizeI(), sps.getSpsNext().getMaxBTSize(), sps.getSpsNext().getMaxBTSizeIChroma() }
, minTtSize { MIN_TT_SIZE, MIN_TT_SIZE_INTER, MIN_TT_SIZE_C }
#if JVET_L0217_L0678_PARTITION_HIGHLEVEL_CONSTRAINT
, maxTtSize { sps.getSpsNext().getMaxTTSizeI(), sps.getSpsNext().getMaxTTSize(), sps.getSpsNext().getMaxTTSizeIChroma() }
#else
, maxTtSize { MAX_TT_SIZE, MAX_TT_SIZE_INTER, MAX_TT_SIZE_C }#endif
, minQtSize { sps.getSpsNext().getMinQTSize( I_SLICE, CHANNEL_TYPE_LUMA ), sps.getSpsNext().getMinQTSize( B_SLICE, CHANNEL_TYPE_LUMA ), sps.getSpsNext().getMinQTSize( I_SLICE, CHANNEL_TYPE_CHROMA ) }
#endif
{}
const ChromaFormat chrFormat;
const bool multiBlock422;
const bool noMotComp;
const unsigned maxCUWidth;
const unsigned maxCUHeight;
// to get CTU position, use (x & maxCUWidthMask) rather than (x % maxCUWidth)
const unsigned maxCUWidthMask;
const unsigned maxCUHeightMask;
const unsigned maxCUWidthLog2;
const unsigned maxCUHeightLog2;
const unsigned minCUWidth;
const unsigned minCUHeight;
const unsigned minCUWidthLog2;
const unsigned minCUHeightLog2;
const unsigned partsInCtuWidth;
const unsigned partsInCtuHeight;
const unsigned partsInCtu;
const unsigned widthInCtus;
const unsigned heightInCtus;
const unsigned sizeInCtus;
const unsigned lumaWidth;
const unsigned lumaHeight;
const unsigned fastDeltaQPCuMaxSize;
const bool noChroma2x2;
const bool isEncoder;
const bool ISingleTree;
private:
const unsigned maxBtDepth[3];
const unsigned minBtSize [3];
const unsigned maxBtSize [3];
const unsigned minTtSize [3];
const unsigned maxTtSize [3];
const unsigned minQtSize [3];
unsigned getValIdx ( const Slice &slice, const ChannelType chType ) const;
public:
unsigned getMaxBtDepth( const Slice &slice, const ChannelType chType ) const;
unsigned getMinBtSize ( const Slice &slice, const ChannelType chType ) const;
unsigned getMaxBtSize ( const Slice &slice, const ChannelType chType ) const;
unsigned getMinTtSize ( const Slice &slice, const ChannelType chType ) const;
unsigned getMaxTtSize ( const Slice &slice, const ChannelType chType ) const;
unsigned getMinQtSize ( const Slice &slice, const ChannelType chType ) const;
};
#if ENABLE_TRACING
#if HEVC_VPS
void xTraceVPSHeader();
#endif
void xTraceSPSHeader();
void xTracePPSHeader();
void xTraceSliceHeader();
void xTraceAccessUnitDelimiter();
#endif
#endif // __SLICE__