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/* 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) 2010-2019, 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 EncReshape.cpp
\brief encoder reshaper class
*/
#include "EncReshape.h"
#include <stdio.h>
#include <string.h>
#include <math.h>
#if JVET_M0427_INLOOP_RESHAPER
//! \ingroup EncLib
//! \{
// ====================================================================================================================
// Constructor / destructor / create / destroy
// ====================================================================================================================
EncReshape::EncReshape()
{
m_bCTUFlag = false;
m_bSrcReshaped = false;
m_bRecReshaped = false;
m_bReshape = true;
m_bExceedSTD = false;
m_tcase = 0;
m_rateAdpMode = 0;
m_chromaAdj = 0;
}
EncReshape::~EncReshape()
{
}
void EncReshape::createEnc(int picWidth, int picHeight, uint32_t maxCUWidth, uint32_t maxCUHeight, int bitDepth)
m_lumaBD = bitDepth;
m_reshapeLUTSize = 1 << m_lumaBD;
m_initCWAnalyze = m_reshapeLUTSize / PIC_ANALYZE_CW_BINS;
m_initCW = m_reshapeLUTSize / PIC_CODE_CW_BINS;
forwardReshapingLUT.resize(m_reshapeLUTSize, 0);
inverseReshapingLUT.resize(m_reshapeLUTSize,0);
if (m_binCW.empty())
m_binCW.resize(PIC_ANALYZE_CW_BINS);
if (m_uiBinImportance.empty())
m_uiBinImportance.resize(PIC_ANALYZE_CW_BINS);
if (m_reshapePivot.empty())
m_reshapePivot.resize(PIC_CODE_CW_BINS + 1, 0);
if (m_chromaAdjHelpLUT.empty())
m_chromaAdjHelpLUT.resize(PIC_CODE_CW_BINS, 1<<CSCALE_FP_PREC);
m_sliceReshapeInfo.setUseSliceReshaper(true);
m_sliceReshapeInfo.setSliceReshapeChromaAdj(true);
m_sliceReshapeInfo.setSliceReshapeModelPresentFlag(true);
m_sliceReshapeInfo.reshape_model_min_bin_idx = 0;
m_sliceReshapeInfo.reshape_model_max_bin_idx = PIC_CODE_CW_BINS - 1;
memset(m_sliceReshapeInfo.reshape_model_bin_CW_delta, 0, (PIC_CODE_CW_BINS) * sizeof(int));
m_picWidth = picWidth;
m_picHeight = picHeight;
m_maxCUWidth = maxCUWidth;
m_maxCUHeight = maxCUHeight;
m_widthInCtus = (m_picWidth + m_maxCUWidth - 1) / m_maxCUWidth;
m_heightInCtus = (m_picHeight + m_maxCUHeight - 1) / m_maxCUHeight;
m_numCtuInFrame = m_widthInCtus * m_heightInCtus;
}
void EncReshape::destroy()
{
}
/**
-Perform HDR set up
\param pcPic describe pointer of current coding picture
\param sliceType describe the slice type
*/
void EncReshape::preAnalyzerHDR(Picture *pcPic, const SliceType sliceType, const ReshapeCW& reshapeCW, bool isDualT, bool isCPR)
{
m_sliceReshapeInfo.slice_reshaper_enable_flag = true;
if (reshapeCW.RspIntraPeriod == 1)
{
if (pcPic->getPOC() == 0) { m_sliceReshapeInfo.slice_reshaper_model_present_flag = true; }
else { m_sliceReshapeInfo.slice_reshaper_model_present_flag = false; }
}
else
{
if (sliceType == I_SLICE || (sliceType==P_SLICE && isCPR) ) { m_sliceReshapeInfo.slice_reshaper_model_present_flag = true; }
else { m_sliceReshapeInfo.slice_reshaper_model_present_flag = false; }
}
if ((sliceType == I_SLICE || (sliceType == P_SLICE && isCPR)) && isDualT) { m_sliceReshapeInfo.uiReshapeChromaAdj = 0; }
else { m_sliceReshapeInfo.uiReshapeChromaAdj = 1; }
m_sliceReshapeInfo.slice_reshaper_enable_flag = false;
m_sliceReshapeInfo.slice_reshaper_model_present_flag = false;
}
}
/**
-Perform picture analysis for SDR
\param pcPic describe pointer of current coding picture
\param sliceType describe the slice type
\param reshapeCW describe some input info
*/
void EncReshape::preAnalyzerSDR(Picture *pcPic, const SliceType sliceType, const ReshapeCW& reshapeCW, bool isDualT, bool isCPR)
{
m_sliceReshapeInfo.slice_reshaper_model_present_flag = true;
m_sliceReshapeInfo.slice_reshaper_enable_flag = true;
int modIP = pcPic->getPOC() - pcPic->getPOC() / reshapeCW.RspFpsToIp * reshapeCW.RspFpsToIp;
if (sliceType == I_SLICE || (reshapeCW.RspIntraPeriod == -1 && modIP == 0) || (sliceType== P_SLICE && isCPR))
{
if (m_sliceReshapeInfo.slice_reshaper_model_present_flag == true)
{
uint32_t uiStdMin = 16 <<(m_lumaBD-8);
uint32_t uiStdMax = 235 << (m_lumaBD - 8);
int binLen = m_reshapeLUTSize / PIC_ANALYZE_CW_BINS;
m_reshapeCW = reshapeCW;
for (int b = 0; b < PIC_ANALYZE_CW_BINS; b++)
{
m_uiBinImportance[b] = 0;
int startBinIdx = int(floor((double(uiStdMin) / double(binLen))));
int endBinIdx = int(floor((double(uiStdMax) / double(binLen))));
m_sliceReshapeInfo.reshape_model_min_bin_idx = startBinIdx;
m_sliceReshapeInfo.reshape_model_max_bin_idx = endBinIdx;
PelBuf picY = pcPic->getOrigBuf(COMPONENT_Y);
const int iWidth = picY.width;
const int iHeight = picY.height;
const int iStride = picY.stride;
double dBlockBinVarSum[PIC_ANALYZE_CW_BINS] = { 0.0 };
uint32_t dBlockBinCnt[PIC_ANALYZE_CW_BINS] = { 0 };
const int PIC_ANALYZE_WIN_SIZE = 5;
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const uint32_t uiWinSize = PIC_ANALYZE_WIN_SIZE;
const uint32_t uiWinLens = (uiWinSize - 1) >> 1;
int64_t tempSq = 0;
int64_t leftSum = 0, leftSumSq = 0;
int64_t *leftColSum = new int64_t[iWidth];
int64_t *leftColSumSq = new int64_t[iWidth];
memset(leftColSum, 0, iWidth * sizeof(int64_t));
memset(leftColSumSq, 0, iWidth * sizeof(int64_t));
int64_t topSum = 0, topSumSq = 0;
int64_t *topRowSum = new int64_t[iHeight];
int64_t *topRowSumSq = new int64_t[iHeight];
memset(topRowSum, 0, iHeight * sizeof(int64_t));
memset(topRowSumSq, 0, iHeight * sizeof(int64_t));
int64_t *topColSum = new int64_t[iWidth];
int64_t *topColSumSq = new int64_t[iWidth];
memset(topColSum, 0, iWidth * sizeof(int64_t));
memset(topColSumSq, 0, iWidth * sizeof(int64_t));
for (uint32_t y = 0; y < iHeight; y++)
{
for (uint32_t x = 0; x < iWidth; x++)
{
const Pel pPxlY = picY.buf[x];
int64_t uiSum = 0;
int64_t uiSumSq = 0;
uint32_t uiNumPixInPart = 0;
uint32_t y1 = std::max((int)(y - uiWinLens), 0);
uint32_t y2 = std::min((int)(y + uiWinLens), (iHeight - 1));
uint32_t x1 = std::max((int)(x - uiWinLens), 0);
uint32_t x2 = std::min((int)(x + uiWinLens), (iWidth - 1));
uint32_t bx = 0, by = 0;
const Pel *pWinY = &picY.buf[0];
uiNumPixInPart = (x2 - x1 + 1) * (y2 - y1 + 1);
if (x == 0 && y == 0) // for the 1st Pixel, calc all points
{
for (by = y1; by <= y2; by++)
{
for (bx = x1; bx <= x2; bx++)
{
tempSq = pWinY[bx] * pWinY[bx];
leftSum += pWinY[bx];
leftSumSq += tempSq;
leftColSum[bx] += pWinY[bx];
leftColSumSq[bx] += tempSq;
topColSum[bx] += pWinY[bx];
topColSumSq[bx] += tempSq;
topRowSum[by] += pWinY[bx];
topRowSumSq[by] += tempSq;
}
pWinY += iStride;
}
topSum = leftSum;
topSumSq = leftSumSq;
uiSum = leftSum;
uiSumSq = leftSumSq;
}
else if (x == 0 && y > 0) // for the 1st column, calc the bottom stripe
{
if (y < iHeight - uiWinLens)
{
pWinY += uiWinLens*iStride;
topRowSum[y + uiWinLens] = 0;
topRowSumSq[y + uiWinLens] = 0;
for (bx = x1; bx <= x2; bx++)
{
topRowSum[y + uiWinLens] += pWinY[bx];
topRowSumSq[y + uiWinLens] += pWinY[bx] * pWinY[bx];
}
topSum += topRowSum[y + uiWinLens];
topSumSq += topRowSumSq[y + uiWinLens];
}
if (y > uiWinLens)
{
topSum -= topRowSum[y - 1 - uiWinLens];
topSumSq -= topRowSumSq[y - 1 - uiWinLens];
}
memset(leftColSum, 0, iWidth * sizeof(int64_t));
memset(leftColSumSq, 0, iWidth * sizeof(int64_t));
pWinY = &picY.buf[0];
pWinY -= (y <= uiWinLens ? y : uiWinLens)*iStride;
for (by = y1; by <= y2; by++)
{
for (bx = x1; bx <= x2; bx++)
{
leftColSum[bx] += pWinY[bx];
leftColSumSq[bx] += pWinY[bx] * pWinY[bx];
}
pWinY += iStride;
}
leftSum = topSum;
leftSumSq = topSumSq;
uiSum = topSum;
uiSumSq = topSumSq;
}
else if (x > 0)
{
if (x < iWidth - uiWinLens)
{
pWinY -= (y <= uiWinLens ? y : uiWinLens)*iStride;
if (y == 0) // for the 1st row, calc the right stripe
{
leftColSum[x + uiWinLens] = 0;
leftColSumSq[x + uiWinLens] = 0;
for (by = y1; by <= y2; by++)
{
leftColSum[x + uiWinLens] += pWinY[x + uiWinLens];
leftColSumSq[x + uiWinLens] += pWinY[x + uiWinLens] * pWinY[x + uiWinLens];
pWinY += iStride;
}
}
else // for the main area, calc the B-R point
{
leftColSum[x + uiWinLens] = topColSum[x + uiWinLens];
leftColSumSq[x + uiWinLens] = topColSumSq[x + uiWinLens];
if (y < iHeight - uiWinLens)
{
pWinY = &picY.buf[0];
pWinY += uiWinLens * iStride;
leftColSum[x + uiWinLens] += pWinY[x + uiWinLens];
leftColSumSq[x + uiWinLens] += pWinY[x + uiWinLens] * pWinY[x + uiWinLens];
}
if (y > uiWinLens)
{
pWinY = &picY.buf[0];
pWinY -= (uiWinLens + 1) * iStride;
leftColSum[x + uiWinLens] -= pWinY[x + uiWinLens];
leftColSumSq[x + uiWinLens] -= pWinY[x + uiWinLens] * pWinY[x + uiWinLens];
}
}
topColSum[x + uiWinLens] = leftColSum[x + uiWinLens];
topColSumSq[x + uiWinLens] = leftColSumSq[x + uiWinLens];
leftSum += leftColSum[x + uiWinLens];
leftSumSq += leftColSumSq[x + uiWinLens];
}
if (x > uiWinLens)
{
leftSum -= leftColSum[x - 1 - uiWinLens];
leftSumSq -= leftColSumSq[x - 1 - uiWinLens];
}
uiSum = leftSum;
uiSumSq = leftSumSq;
}
double dAverage = double(uiSum) / uiNumPixInPart;
double dVariance = double(uiSumSq) / uiNumPixInPart - dAverage * dAverage;
if (m_lumaBD > 10)
{
dAverage = dAverage / (double)(1<<(m_lumaBD - 10));
dVariance = dVariance / (double)(1 << (2*m_lumaBD - 20));
}
else if (m_lumaBD < 10)
{
dAverage = dAverage * (double)(1 << (10 - m_lumaBD));
dVariance = dVariance * (double)(1 << (20-2*m_lumaBD));
}
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double dVarLog10 = log10(dVariance + 1.0);
uint32_t uiBinNum = (uint32_t)floor((double)pPxlY / (double)PIC_ANALYZE_CW_BINS);
dBlockBinVarSum[uiBinNum] += dVarLog10;
dBlockBinCnt[uiBinNum]++;
}
picY.buf += iStride;
}
delete[] topColSum;
delete[] topColSumSq;
delete[] topRowSum;
delete[] topRowSumSq;
delete[] leftColSum;
delete[] leftColSumSq;
for (int b = 0; b < PIC_ANALYZE_CW_BINS; b++)
{
if (dBlockBinCnt[b] > 0)
dBlockBinVarSum[b] = dBlockBinVarSum[b] / dBlockBinCnt[b];
}
m_bReshape = true;
m_bExceedSTD = false;
m_bUseAdpCW = false;
m_chromaWeight = 1.0;
m_sliceReshapeInfo.uiReshapeChromaAdj = 1;
bool bIntraAdp = false;
bool bInterAdp = true;
double dReshapeTH1 = 0.0;
double dReshapeTH2 = 5.0;
deriveReshapeParametersSDRfromStats(dBlockBinCnt, dBlockBinVarSum, &dReshapeTH1, &dReshapeTH2, &bIntraAdp, &bInterAdp);
if (m_rateAdpMode == 2 && reshapeCW.RspBaseQP <= 22)
{
bIntraAdp = false;
bInterAdp = false;
}
m_sliceReshapeInfo.slice_reshaper_enable_flag = bIntraAdp;
if (!bIntraAdp && !bInterAdp)
{
m_sliceReshapeInfo.slice_reshaper_model_present_flag = false;
m_bReshape = false;
return;
}
if (m_bExceedSTD)
{
for (int b = 0; b < PIC_ANALYZE_CW_BINS; b++)
{
if (dBlockBinCnt[b] > 0 && b < startBinIdx)
startBinIdx = b;
if (dBlockBinCnt[b] > 0 && b > endBinIdx)
endBinIdx = b;
m_sliceReshapeInfo.reshape_model_min_bin_idx = startBinIdx;
m_sliceReshapeInfo.reshape_model_max_bin_idx = endBinIdx;
}
if (reshapeCW.RspBaseQP <= 22 && m_rateAdpMode == 1)
{
for (int i = 0; i < PIC_ANALYZE_CW_BINS; i++)
{
if (i >= startBinIdx && i <= endBinIdx)
m_binCW[i] = m_initCWAnalyze + 1;
}
}
else if (m_bUseAdpCW)
{
double Alpha = 1.0, Beta = 0.0;
deriveReshapeParameters(dBlockBinVarSum, startBinIdx, endBinIdx, m_reshapeCW, Alpha, Beta);
for (int i = 0; i < PIC_ANALYZE_CW_BINS; i++)
{
if (i >= startBinIdx && i <= endBinIdx)
m_binCW[i] = (uint32_t)round(Alpha*dBlockBinVarSum[i] + Beta);
for (int b = startBinIdx; b <= endBinIdx; b++)
{
if (dBlockBinVarSum[b] < dReshapeTH1)
m_uiBinImportance[b] = 2;
else if (dBlockBinVarSum[b] > dReshapeTH2)
m_uiBinImportance[b] = 3;
else
m_uiBinImportance[b] = 1;
}
for (int i = 0; i < PIC_ANALYZE_CW_BINS; i++)
{
if (m_uiBinImportance[i] == 0)
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997
998
999
1000
else
THROW("SDR Reshape Bin Importance not supported");
}
}
if (m_reshapeCW.RspPicSize <= 1497600 && reshapeCW.RspIntraPeriod == -1 && modIP == 0 && sliceType != I_SLICE)
{
m_sliceReshapeInfo.slice_reshaper_enable_flag = false;
}
}
m_chromaAdj = m_sliceReshapeInfo.uiReshapeChromaAdj;
if ((sliceType == I_SLICE || (sliceType == P_SLICE && isCPR)) && isDualT)
{
m_sliceReshapeInfo.uiReshapeChromaAdj = 0;
}
}
else // Inter slices
{
m_sliceReshapeInfo.slice_reshaper_model_present_flag = false;
m_sliceReshapeInfo.uiReshapeChromaAdj = m_chromaAdj;
if (!m_bReshape)
{
m_sliceReshapeInfo.slice_reshaper_enable_flag = false;
}
else
{
const int cTid = m_reshapeCW.Tid;
bool enableRsp = m_tcase == 5 ? false : (m_tcase < 5 ? (cTid < m_tcase + 1 ? false : true) : (cTid <= 10 - m_tcase ? true : false));
m_sliceReshapeInfo.slice_reshaper_enable_flag = enableRsp;
}
}
}
// Bubble Sort to descending order with index
void EncReshape::bubbleSortDsd(double* array, int * idx, int n)
{
int i, j;
bool swapped;
for (i = 0; i < n - 1; i++)
{
swapped = false;
for (j = 0; j < n - i - 1; j++)
{
if (array[j] < array[j + 1])
{
swap(&array[j], &array[j + 1]);
swap(&idx[j], &idx[j + 1]);
swapped = true;
}
}
if (swapped == false)
break;
}
}
void EncReshape::deriveReshapeParametersSDRfromStats(uint32_t * dBlockBinCnt, double *dBlockBinVarSum, double* dReshapeTH1, double* dReshapeTH2, bool *bIntraAdp, bool *bInterAdp)
{
int BinIdxSortDsd[PIC_ANALYZE_CW_BINS] = { 0 };
double BinVarSortDsd[PIC_ANALYZE_CW_BINS] = { 0.0 };
double BinHist[PIC_ANALYZE_CW_BINS] = { 0.0 };
double BinVarSortDsdCDF[PIC_ANALYZE_CW_BINS] = { 0.0 };
double maxBinVar = 0.0, meanBinVar = 0.0, minBinVar = 5.0;
int nonZeroBinCt = 0;
for (int b = 0; b < PIC_ANALYZE_CW_BINS; b++)
{
BinHist[b] = (double)dBlockBinCnt[b] / (double)(m_reshapeCW.RspPicSize);
if (BinHist[b] > 0.001)
{
nonZeroBinCt++;
meanBinVar += dBlockBinVarSum[b];
if (dBlockBinVarSum[b] > maxBinVar) { maxBinVar = dBlockBinVarSum[b]; }
if (dBlockBinVarSum[b] < minBinVar) { minBinVar = dBlockBinVarSum[b]; }
}
BinVarSortDsd[b] = dBlockBinVarSum[b];
BinIdxSortDsd[b] = b;
}
if ((BinHist[0] + BinHist[1] + BinHist[PIC_ANALYZE_CW_BINS - 2] + BinHist[PIC_ANALYZE_CW_BINS - 1]) > 0.01) { m_bExceedSTD = true; }
if ((BinHist[PIC_ANALYZE_CW_BINS - 2] + BinHist[PIC_ANALYZE_CW_BINS - 1]) > 0.01) { *bInterAdp = false; return; }
else { *bInterAdp = true; }
meanBinVar = meanBinVar / (double)nonZeroBinCt;
bubbleSortDsd(BinVarSortDsd, BinIdxSortDsd, PIC_ANALYZE_CW_BINS);
BinVarSortDsdCDF[0] = BinHist[BinIdxSortDsd[0]];
for (int b = 1; b < PIC_ANALYZE_CW_BINS; b++)
{
BinVarSortDsdCDF[b] = BinVarSortDsdCDF[b - 1] + BinHist[BinIdxSortDsd[b]];
}
int firstBinVarLessThanVal1 = 0; // Val1 = 3.5
int firstBinVarLessThanVal2 = 0; // Val2 = 3.0
int firstBinVarLessThanVal3 = 0; // Val3 = 2.5
int firstBinVarLessThanVal4 = 0; // Val4 = 2.0
for (int b = 0; b < PIC_ANALYZE_CW_BINS - 1; b++)
{
if (BinVarSortDsd[b] > 3.5) { firstBinVarLessThanVal1 = b + 1; }
if (BinVarSortDsd[b] > 3.0) { firstBinVarLessThanVal2 = b + 1; }
if (BinVarSortDsd[b] > 2.5) { firstBinVarLessThanVal3 = b + 1; }
if (BinVarSortDsd[b] > 2.0) { firstBinVarLessThanVal4 = b + 1; }
}
m_reshapeCW.BinCW[0] = 38;
m_reshapeCW.BinCW[1] = 28;
if (m_reshapeCW.RspIntraPeriod == -1)
{
*bIntraAdp = true;
if (m_reshapeCW.RspPicSize > 1497600)
{
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 2.4;
*dReshapeTH2 = 4.5;
m_rateAdpMode = 2;
if (meanBinVar >= 2.52)
{
if (BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.5)
{
*dReshapeTH1 = 2.5;
*dReshapeTH2 = 3.0;
}
else if (BinVarSortDsdCDF[firstBinVarLessThanVal2] < 0.1 && BinVarSortDsdCDF[firstBinVarLessThanVal1] > 0.02)
{
*dReshapeTH1 = 2.2;
}
else if (BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.25)
{
m_reshapeCW.BinCW[1] = 30;
*dReshapeTH1 = 2.0;
m_rateAdpMode = 0;
}
else
{
m_reshapeCW.BinCW[1] = 30;
m_rateAdpMode = 1;
}
}
}
else if (m_reshapeCW.RspPicSize > 660480)
{
m_reshapeCW.BinCW[0] = 34;
*dReshapeTH1 = 3.4;
*dReshapeTH2 = 4.0;
m_rateAdpMode = 2;
if (BinVarSortDsdCDF[firstBinVarLessThanVal4] > 0.6)
{
if (maxBinVar < 3.5)
{
m_bUseAdpCW = true;
m_reshapeCW.BinCW[0] = 38;
}
else
{
m_reshapeCW.BinCW[0] = 40;
*dReshapeTH1 = 2.2;
*dReshapeTH2 = 4.5;
m_rateAdpMode = 0;
}
}
else
{
if (maxBinVar > 3.3)
{
m_reshapeCW.BinCW[1] = 30;
}
else
{
m_reshapeCW.BinCW[1] = 28;
}
}
}
else if (m_reshapeCW.RspPicSize > 249600)
{
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 2.5;
*dReshapeTH2 = 4.5;
if (m_bExceedSTD)
{
m_reshapeCW.BinCW[0] = 36;
m_reshapeCW.BinCW[1] = 30;
}
if (minBinVar > 2.6)
{
*dReshapeTH1 = 3.0;
}
else {
double diff1 = BinVarSortDsdCDF[firstBinVarLessThanVal4] - BinVarSortDsdCDF[firstBinVarLessThanVal3];
double diff2 = BinVarSortDsdCDF[firstBinVarLessThanVal2] - BinVarSortDsdCDF[firstBinVarLessThanVal1];
if (diff1 > 0.4 || BinVarSortDsdCDF[firstBinVarLessThanVal1] > 0.1)
{
m_bUseAdpCW = true;
m_rateAdpMode = 1;
}
else if (diff2 <= 0.1 && BinVarSortDsdCDF[firstBinVarLessThanVal4] > 0.99 && BinVarSortDsdCDF[firstBinVarLessThanVal3] > 0.642 && BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.03)
{
m_bUseAdpCW = true;
m_rateAdpMode = 1;
}
else
{
m_rateAdpMode = 2;
}
}
}
else
{
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 2.6;
*dReshapeTH2 = 4.5;
if (BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.5 && maxBinVar < 4.7)
{
*dReshapeTH1 = 3.2;
m_rateAdpMode = 1;
}
}
}
else if (m_reshapeCW.RspIntraPeriod == 1)
{
*bIntraAdp = true;
if (m_reshapeCW.RspPicSize > 5184000)
{
*dReshapeTH1 = 2.0;
*dReshapeTH2 = 3.0;
m_rateAdpMode = 2;
if (maxBinVar > 2.4)
{
if (BinVarSortDsdCDF[firstBinVarLessThanVal4] > 0.88)
{
if (maxBinVar < 2.695)
{
*dReshapeTH2 = 2.2;
}
else
{
if (BinVarSortDsdCDF[firstBinVarLessThanVal3] < 0.45)
{
*dReshapeTH1 = 2.5;
*dReshapeTH2 = 4.0;
m_reshapeCW.BinCW[0] = 36;
m_sliceReshapeInfo.uiReshapeChromaAdj = 0;
m_rateAdpMode = 0;
}
else
{
m_bUseAdpCW = true;
m_reshapeCW.BinCW[0] = 36;
m_reshapeCW.BinCW[1] = 30;
}
}
}
else
{
if (maxBinVar > 2.8)
{
*dReshapeTH1 = 2.2;
*dReshapeTH2 = 4.0;
m_reshapeCW.BinCW[0] = 36;
m_sliceReshapeInfo.uiReshapeChromaAdj = 0;
}
else
{
m_bUseAdpCW = true;
m_reshapeCW.BinCW[0] = 38;
m_reshapeCW.BinCW[1] = 28;
}
}
}
else
{
if (maxBinVar > 2.24)
{
m_bUseAdpCW = true;
m_reshapeCW.BinCW[0] = 34;
m_reshapeCW.BinCW[1] = 30;
}
}
}
else if (m_reshapeCW.RspPicSize > 1497600)
{
*dReshapeTH1 = 2.0;
*dReshapeTH2 = 4.5;
m_rateAdpMode = 2;
if (BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.25)
{
int firstVarCDFLargerThanVal = 1;
for (int b = 0; b < PIC_ANALYZE_CW_BINS; b++)
{
if (BinVarSortDsdCDF[b] > 0.7)
{
firstVarCDFLargerThanVal = b;
break;
}
}
if (meanBinVar < 2.52 || BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.5)
{
*dReshapeTH1 = 2.2;
*dReshapeTH2 = (BinVarSortDsd[firstVarCDFLargerThanVal] + BinVarSortDsd[firstVarCDFLargerThanVal - 1]) / 2.0;
}
else
{
m_reshapeCW.BinCW[1] = 30;
*dReshapeTH2 = 2.8;
}
}
else if (BinVarSortDsdCDF[firstBinVarLessThanVal2] < 0.1 && BinVarSortDsdCDF[firstBinVarLessThanVal1] > 0.02)
{
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 3.5;
m_rateAdpMode = 1;
}
}
else if (m_reshapeCW.RspPicSize > 660480)
{
*dReshapeTH1 = 2.5;
*dReshapeTH2 = 4.5;
m_rateAdpMode = 1;
if (BinVarSortDsdCDF[firstBinVarLessThanVal4] > 0.6)
{
if (maxBinVar < 3.5)
{
*dReshapeTH1 = 2.0;
}
}
else
{
if (maxBinVar > 3.3)
{
m_reshapeCW.BinCW[0] = 35;
}
else
{
*dReshapeTH1 = 2.8;
m_reshapeCW.BinCW[0] = 35;
}
}
}
else if (m_reshapeCW.RspPicSize > 249600)
{
m_rateAdpMode = 1;
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 2.5;
*dReshapeTH2 = 4.5;
}
else
{
if (BinVarSortDsdCDF[firstBinVarLessThanVal2] < 0.33 && m_reshapeCW.RspFps>40)
{
*bIntraAdp = false;
*bInterAdp = false;
}
else
{
m_rateAdpMode = 1;
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 3.0;
*dReshapeTH2 = 4.0;
}
}
}
else
{
if (m_reshapeCW.RspPicSize > 5184000)
{
m_reshapeCW.BinCW[0] = 40;
*dReshapeTH2 = 4.0;
m_rateAdpMode = 2;
if (maxBinVar < 2.4)
{
*dReshapeTH1 = 3.0;
if (m_reshapeCW.RspBaseQP <= 22)
m_tcase = 3;
}
else if (maxBinVar > 3.0)
{
if (minBinVar > 1)
{
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 2.8;
*dReshapeTH2 = 3.5;
m_sliceReshapeInfo.uiReshapeChromaAdj = 0;
m_chromaWeight = 1.05;
m_rateAdpMode = 0;
}
else
{
m_reshapeCW.BinCW[0] = 36;
*dReshapeTH1 = 2.2;
*dReshapeTH2 = 3.5;
m_sliceReshapeInfo.uiReshapeChromaAdj = 0;
m_chromaWeight = 0.95;
if (m_reshapeCW.RspBaseQP <= 27 && m_reshapeCW.RspBaseQP >=25)
m_tcase = 3;
}
}
else
{
*dReshapeTH1 = 1.5;
}
}
else if (m_reshapeCW.RspPicSize > 1497600)
{
*dReshapeTH1 = 2.5;
*dReshapeTH2 = 4.5;
m_rateAdpMode = 1;
if (meanBinVar < 2.52)
{
*bIntraAdp = true;
m_rateAdpMode = 0;
m_tcase = 9;
}
else
{
if (BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.5)
{
*dReshapeTH2 = 3.0;
*bIntraAdp = true;
}
else if (BinVarSortDsdCDF[firstBinVarLessThanVal2] < 0.1 && BinVarSortDsdCDF[firstBinVarLessThanVal1] > 0.02)
{
*dReshapeTH1 = 3.0;
*bIntraAdp = true;
m_rateAdpMode = 0;
m_tcase = 9;
}
else if (BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.25)
{
*dReshapeTH1 = 2.4;
m_reshapeCW.BinCW[0] = 36;
}
else
{
*dReshapeTH1 = 2.4;
m_reshapeCW.BinCW[0] = 36;
}
}
}
else if (m_reshapeCW.RspPicSize > 660480)
{
*bIntraAdp = true;
m_rateAdpMode = 1;
if (BinVarSortDsdCDF[firstBinVarLessThanVal4] > 0.6)
{
if (maxBinVar < 3.5)
{
*dReshapeTH1 = 2.1;
*dReshapeTH2 = 3.5;
}
else
{
*dReshapeTH1 = 2.4;
*dReshapeTH2 = 4.5;
m_reshapeCW.BinCW[0] = 40;
m_rateAdpMode = 0;
}
}
else
{
if (maxBinVar > 3.3)
{
*dReshapeTH1 = 3.5;
*dReshapeTH2 = 3.8;
}
else
{
*dReshapeTH1 = 3.0;
*dReshapeTH2 = 4.0;
m_reshapeCW.BinCW[1] = 30;
}
}
}
else if (m_reshapeCW.RspPicSize > 249600)
{
m_reshapeCW.BinCW[1] = 30;
*dReshapeTH1 = 2.5;
*dReshapeTH2 = 4.5;
*bIntraAdp = true;
m_rateAdpMode = 1;
if (minBinVar > 2.6)
{
*dReshapeTH1 = 3.2;
m_rateAdpMode = 0;
m_tcase = 9;
}
else {
double diff1 = BinVarSortDsdCDF[firstBinVarLessThanVal4] - BinVarSortDsdCDF[firstBinVarLessThanVal3];
double diff2 = BinVarSortDsdCDF[firstBinVarLessThanVal2] - BinVarSortDsdCDF[firstBinVarLessThanVal1];
if (diff1 > 0.4 || BinVarSortDsdCDF[firstBinVarLessThanVal1] > 0.1)
{
*dReshapeTH1 = 2.9;
*bIntraAdp = false;
}
else
{
if (diff2 > 0.1)
{
*dReshapeTH1 = 2.5;
}
else
{
*dReshapeTH1 = 2.9;
if (BinVarSortDsdCDF[firstBinVarLessThanVal4] > 0.99 && BinVarSortDsdCDF[firstBinVarLessThanVal3] > 0.642 && BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.03)
{
m_rateAdpMode = 0;
m_tcase = 9;
}
}
}
}
}
else
{
m_reshapeCW.BinCW[0] = 36;
m_reshapeCW.BinCW[1] = 30;
*dReshapeTH1 = 2.6;
*dReshapeTH2 = 4.5;
*bIntraAdp = true;
m_rateAdpMode = 1;
if (BinVarSortDsdCDF[firstBinVarLessThanVal2] > 0.5 && maxBinVar < 4.7)
{
*dReshapeTH1 = 3.4;
}
}
}
}
void EncReshape::deriveReshapeParameters(double *array, int start, int end, ReshapeCW respCW, double &alpha, double &beta)
{
double minVar = 10.0, maxVar = 0.0;
for (int b = start; b <= end; b++)
{
if (array[b] < minVar) minVar = array[b];
if (array[b] > maxVar) maxVar = array[b];
}
double maxCW = (double)respCW.BinCW[0];
double minCW = (double)respCW.BinCW[1];
alpha = (minCW - maxCW) / (maxVar - minVar);
beta = (maxCW*maxVar - minCW*minVar) / (maxVar - minVar);
}
/**
-Init reshaping LUT from dQP model