abc/src/bool/lucky/luckyFast16.c

634 lines
23 KiB
C

/**CFile****************************************************************
FileName [luckyFast16.c]
SystemName [ABC: Logic synthesis and verification system.]
PackageName [Semi-canonical form computation package.]
Synopsis [Truth table minimization procedures for up to 16 vars.]
Author [Jake]
Date [Started - September 2012]
***********************************************************************/
#include "luckyInt.h"
ABC_NAMESPACE_IMPL_START
static word SFmask[5][4] = {
{0x8888888888888888,0x4444444444444444,0x2222222222222222,0x1111111111111111},
{0xC0C0C0C0C0C0C0C0,0x3030303030303030,0x0C0C0C0C0C0C0C0C,0x0303030303030303},
{0xF000F000F000F000,0x0F000F000F000F00,0x00F000F000F000F0,0x000F000F000F000F},
{0xFF000000FF000000,0x00FF000000FF0000,0x0000FF000000FF00,0x000000FF000000FF},
{0xFFFF000000000000,0x0000FFFF00000000,0x00000000FFFF0000,0x000000000000FFFF}
};
static inline word luckyMask(int nBits) { assert(nBits >= 0 && nBits <= 64); return nBits == 64 ? 0 : (~(word)0) >> (64-nBits); }
////////////////////////////////////lessThen5/////////////////////////////////////////////////////////////////////////////////////////////
// there are 4 parts in every block to compare and rearrange - quoters(0Q,1Q,2Q,3Q)
//updataInfo updates CanonPerm and CanonPhase based on what quoter in position iQ and jQ
inline void updataInfo(int iQ, int jQ, int iVar, char * pCanonPerm, unsigned* pCanonPhase)
{
*pCanonPhase = adjustInfoAfterSwap(pCanonPerm, *pCanonPhase, iVar, ((abs(iQ-jQ)-1)<<2) + iQ );
}
// It rearranges InOut (swaps and flips through rearrangement of quoters)
// It updates Info at the end
inline void arrangeQuoters_superFast_lessThen5(word* pInOut, int start, int iQ, int jQ, int kQ, int lQ, int iVar, int nWords, char * pCanonPerm, unsigned* pCanonPhase)
{
int i;
int blockSize = 1<<iVar;
for(i=start;i>=0;i--)
{
pInOut[i] = (pInOut[i] & SFmask[iVar][iQ])<<(iQ*blockSize) |
(((pInOut[i] & SFmask[iVar][jQ])<<(jQ*blockSize))>>blockSize) |
(((pInOut[i] & SFmask[iVar][kQ])<<(kQ*blockSize))>>2*blockSize) |
(((pInOut[i] & SFmask[iVar][lQ])<<(lQ*blockSize))>>3*blockSize);
}
updataInfo(iQ, jQ, iVar, pCanonPerm, pCanonPhase);
}
//It compares 0Q and 3Q and returns 0 if 0Q is smaller then 3Q ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in 0Q and 3Q
inline int minTemp0_fast(word* pInOut, int iVar, int nWords, int* pDifStart)
{
int i, j=1;
int blockSize = 1<<iVar;
int shiftSize = blockSize*4;
word temp;
for(i=nWords - 1; i>=0; i--)
{
temp = ((pInOut[i] & SFmask[iVar][0])) ^ ((pInOut[i] & SFmask[iVar][3])<<(3*blockSize));
if( temp == 0)
continue;
else
{
*pDifStart = i*100;
while(temp == (temp & luckyMask(shiftSize*j)))
j++;
*pDifStart += 21 - j;
if( ((pInOut[i] & SFmask[iVar][0])) < ((pInOut[i] & SFmask[iVar][3])<<(3*blockSize)) )
return 0;
else
return 3;
}
}
*pDifStart=0;
return 0;
}
//It compares 1Q and 2Q and returns 1 if 1Q is smaller then 2Q ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in 1Q and 2Q
inline int minTemp1_fast(word* pInOut, int iVar, int nWords, int* pDifStart)
{
int i, j=1;
int blockSize = 1<<iVar;
int shiftSize = blockSize*4;
word temp;
for(i=nWords - 1; i>=0; i--)
{
temp = ((pInOut[i] & SFmask[iVar][1])<<(blockSize)) ^ ((pInOut[i] & SFmask[iVar][2])<<(2*blockSize));
if( temp == 0)
continue;
else
{
*pDifStart = i*100;
while(temp == (temp & luckyMask(shiftSize*j)))
j++;
*pDifStart += 21 - j;
if( ((pInOut[i] & SFmask[iVar][1])<<(blockSize)) < ((pInOut[i] & SFmask[iVar][2])<<(2*blockSize)) )
return 1;
else
return 2;
}
}
*pDifStart=0;
return 1;
}
//It compares iQ and jQ and returns 0 if iQ is smaller then jQ ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in iQ and jQ
inline int minTemp2_fast(word* pInOut, int iVar, int iQ, int jQ, int nWords, int* pDifStart)
{
int i, j=1;
int blockSize = 1<<iVar;
int shiftSize = blockSize*4;
word temp;
for(i=nWords - 1; i>=0; i--)
{
temp = ((pInOut[i] & SFmask[iVar][iQ])<<(iQ*blockSize)) ^ ((pInOut[i] & SFmask[iVar][jQ])<<(jQ*blockSize));
if( temp == 0)
continue;
else
{
*pDifStart = i*100;
while(temp == (temp & luckyMask(shiftSize*j)))
j++;
*pDifStart += 21 - j;
if( ((pInOut[i] & SFmask[iVar][iQ])<<(iQ*blockSize)) <= ((pInOut[i] & SFmask[iVar][jQ])<<(jQ*blockSize)) )
return 0;
else
return 1;
}
}
*pDifStart=0;
return iQ;
}
// same as minTemp2_fast but this one has a start position
inline int minTemp3_fast(word* pInOut, int iVar, int start, int finish, int iQ, int jQ, int* pDifStart)
{
int i, j=1;
int blockSize = 1<<iVar;
int shiftSize = blockSize*4;
word temp;
for(i=start; i>=finish; i--)
{
temp = ((pInOut[i] & SFmask[iVar][iQ])<<(iQ*blockSize)) ^ ((pInOut[i] & SFmask[iVar][jQ])<<(jQ*blockSize));
if( temp == 0)
continue;
else
{
*pDifStart = i*100;
while(temp == (temp & luckyMask(shiftSize*j)))
j++;
*pDifStart += 21 - j;
if( ((pInOut[i] & SFmask[iVar][iQ])<<(iQ*blockSize)) <= ((pInOut[i] & SFmask[iVar][jQ])<<(jQ*blockSize)) )
return 0;
else
return 1;
}
}
*pDifStart=0;
return iQ;
}
// It considers all swap and flip possibilities of iVar and iVar+1 and switches InOut to a minimal of them
inline void minimalSwapAndFlipIVar_superFast_lessThen5(word* pInOut, int iVar, int nWords, char * pCanonPerm, unsigned* pCanonPhase)
{
int min1, min2, DifStart0, DifStart1, DifStartMin;
int M[2];
M[0] = minTemp0_fast(pInOut, iVar, nWords, &DifStart0); // 0, 3
M[1] = minTemp1_fast(pInOut, iVar, nWords, &DifStart1); // 1, 2
min1 = minTemp2_fast(pInOut, iVar, M[0], M[1], nWords, &DifStartMin);
if(DifStart0 != DifStart1)
{
if( DifStartMin>=DifStart1 && DifStartMin>=DifStart0 )
arrangeQuoters_superFast_lessThen5(pInOut, DifStartMin/100, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], iVar, nWords, pCanonPerm, pCanonPhase);
else if( DifStart0 > DifStart1)
arrangeQuoters_superFast_lessThen5(pInOut,luckyMax(DifStartMin/100, DifStart0/100), M[0], M[1], 3 - M[1], 3 - M[0], iVar, nWords, pCanonPerm, pCanonPhase);
else
arrangeQuoters_superFast_lessThen5(pInOut,luckyMax(DifStartMin/100, DifStart1/100), M[1], M[0], 3 - M[0], 3 - M[1], iVar, nWords, pCanonPerm, pCanonPhase);
}
else
{
if(DifStartMin>=DifStart0)
arrangeQuoters_superFast_lessThen5(pInOut, DifStartMin/100, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], iVar, nWords, pCanonPerm, pCanonPhase);
else
{
min2 = minTemp3_fast(pInOut, iVar, DifStart0/100, DifStartMin/100, 3-M[0], 3-M[1], &DifStart1); // reuse DifStart1 because DifStart1 = DifStart1=0
if(DifStart1>DifStartMin)
arrangeQuoters_superFast_lessThen5(pInOut, DifStart0/100, M[(min2+1)%2], M[min2], 3 - M[min2], 3 - M[(min2+1)%2], iVar, nWords, pCanonPerm, pCanonPhase);
else
arrangeQuoters_superFast_lessThen5(pInOut, DifStart0/100, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], iVar, nWords, pCanonPerm, pCanonPhase);
}
}
}
////////////////////////////////////iVar = 5/////////////////////////////////////////////////////////////////////////////////////////////
// It rearranges InOut (swaps and flips through rearrangement of quoters)
// It updates Info at the end
inline void arrangeQuoters_superFast_iVar5(unsigned* pInOut, unsigned* temp, int start, int iQ, int jQ, int kQ, int lQ, char * pCanonPerm, unsigned* pCanonPhase)
{
int i,blockSize,shiftSize;
unsigned* tempPtr = temp+start;
if(iQ == 0 && jQ == 1)
return;
blockSize = sizeof(unsigned);
shiftSize = 4;
for(i=start-1;i>0;i-=shiftSize)
{
tempPtr -= 1;
memcpy(tempPtr, pInOut+i-iQ, blockSize);
tempPtr -= 1;
memcpy(tempPtr, pInOut+i-jQ, blockSize);
tempPtr -= 1;
memcpy(tempPtr, pInOut+i-kQ, blockSize);
tempPtr -= 1;
memcpy(tempPtr, pInOut+i-lQ, blockSize);
}
memcpy(pInOut, temp, start*sizeof(unsigned));
updataInfo(iQ, jQ, 5, pCanonPerm, pCanonPhase);
}
//It compares 0Q and 3Q and returns 0 if 0Q is smaller then 3Q ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in 0Q and 3Q
inline int minTemp0_fast_iVar5(unsigned* pInOut, int nWords, int* pDifStart)
{
int i, temp;
for(i=(nWords)*2 - 1; i>=0; i-=4)
{
temp = CompareWords(pInOut[i],pInOut[i-3]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+1;
return 0;
}
else
{
*pDifStart = i+1;
return 3;
}
}
*pDifStart=0;
return 0;
}
//It compares 1Q and 2Q and returns 1 if 1Q is smaller then 2Q ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in 1Q and 2Q
inline int minTemp1_fast_iVar5(unsigned* pInOut, int nWords, int* pDifStart)
{
int i, temp;
for(i=(nWords)*2 - 2; i>=0; i-=4)
{
temp = CompareWords(pInOut[i],pInOut[i-1]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+2;
return 1;
}
else
{
*pDifStart = i+2;
return 2;
}
}
*pDifStart=0;
return 1;
}
//It compares iQ and jQ and returns 0 if iQ is smaller then jQ ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in iQ and jQ
inline int minTemp2_fast_iVar5(unsigned* pInOut, int iQ, int jQ, int nWords, int* pDifStart)
{
int i, temp;
for(i=(nWords)*2 - 1; i>=0; i-=4)
{
temp = CompareWords(pInOut[i-iQ],pInOut[i-jQ]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+1;
return 0;
}
else
{
*pDifStart = i+1;
return 1;
}
}
*pDifStart=0;
return iQ;
}
// same as minTemp2_fast but this one has a start position
inline int minTemp3_fast_iVar5(unsigned* pInOut, int start, int finish, int iQ, int jQ, int* pDifStart)
{
int i, temp;
for(i=start-1; i>=finish; i-=4)
{
temp = CompareWords(pInOut[i-iQ],pInOut[i-jQ]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+1;
return 0;
}
else
{
*pDifStart = i+1;
return 1;
}
}
*pDifStart=0;
return iQ;
}
// It considers all swap and flip possibilities of iVar and iVar+1 and switches InOut to a minimal of them
inline void minimalSwapAndFlipIVar_superFast_iVar5(unsigned* pInOut, int nWords, char * pCanonPerm, unsigned* pCanonPhase)
{
int min1, min2, DifStart0, DifStart1, DifStartMin;
int M[2];
unsigned temp[2048];
M[0] = minTemp0_fast_iVar5(pInOut, nWords, &DifStart0); // 0, 3
M[1] = minTemp1_fast_iVar5(pInOut, nWords, &DifStart1); // 1, 2
min1 = minTemp2_fast_iVar5(pInOut, M[0], M[1], nWords, &DifStartMin);
if(DifStart0 != DifStart1)
{
if( DifStartMin>=DifStart1 && DifStartMin>=DifStart0 )
arrangeQuoters_superFast_iVar5(pInOut, temp, DifStartMin, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], pCanonPerm, pCanonPhase);
else if( DifStart0 > DifStart1)
arrangeQuoters_superFast_iVar5(pInOut, temp, luckyMax(DifStartMin,DifStart0), M[0], M[1], 3 - M[1], 3 - M[0], pCanonPerm, pCanonPhase);
else
arrangeQuoters_superFast_iVar5(pInOut, temp, luckyMax(DifStartMin,DifStart1), M[1], M[0], 3 - M[0], 3 - M[1], pCanonPerm, pCanonPhase);
}
else
{
if(DifStartMin>=DifStart0)
arrangeQuoters_superFast_iVar5(pInOut, temp, DifStartMin, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], pCanonPerm, pCanonPhase);
else
{
min2 = minTemp3_fast_iVar5(pInOut, DifStart0, DifStartMin, 3-M[0], 3-M[1], &DifStart1); // reuse DifStart1 because DifStart1 = DifStart1=0
if(DifStart1>DifStartMin)
arrangeQuoters_superFast_iVar5(pInOut, temp, DifStart0, M[(min2+1)%2], M[min2], 3 - M[min2], 3 - M[(min2+1)%2], pCanonPerm, pCanonPhase);
else
arrangeQuoters_superFast_iVar5(pInOut, temp, DifStart0, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], pCanonPerm, pCanonPhase);
}
}
}
////////////////////////////////////moreThen5/////////////////////////////////////////////////////////////////////////////////////////////
// It rearranges InOut (swaps and flips through rearrangement of quoters)
// It updates Info at the end
inline void arrangeQuoters_superFast_moreThen5(word* pInOut, word* temp, int start, int iQ, int jQ, int kQ, int lQ, int iVar, char * pCanonPerm, unsigned* pCanonPhase)
{
int i,wordBlock,blockSize,shiftSize;
word* tempPtr = temp+start;
if(iQ == 0 && jQ == 1)
return;
wordBlock = (1<<(iVar-6));
blockSize = wordBlock*sizeof(word);
shiftSize = wordBlock*4;
for(i=start-wordBlock;i>0;i-=shiftSize)
{
tempPtr -= wordBlock;
memcpy(tempPtr, pInOut+i-iQ*wordBlock, blockSize);
tempPtr -= wordBlock;
memcpy(tempPtr, pInOut+i-jQ*wordBlock, blockSize);
tempPtr -= wordBlock;
memcpy(tempPtr, pInOut+i-kQ*wordBlock, blockSize);
tempPtr -= wordBlock;
memcpy(tempPtr, pInOut+i-lQ*wordBlock, blockSize);
}
memcpy(pInOut, temp, start*sizeof(word));
updataInfo(iQ, jQ, iVar, pCanonPerm, pCanonPhase);
}
//It compares 0Q and 3Q and returns 0 if 0Q is smaller then 3Q ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in 0Q and 3Q
inline int minTemp0_fast_moreThen5(word* pInOut, int iVar, int nWords, int* pDifStart)
{
int i, j, temp;
int wordBlock = 1<<(iVar-6);
int wordDif = 3*wordBlock;
int shiftBlock = wordBlock*4;
for(i=nWords - 1; i>=0; i-=shiftBlock)
for(j=0;j<wordBlock;j++)
{
temp = CompareWords(pInOut[i-j],pInOut[i-j-wordDif]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+1;
return 0;
}
else
{
*pDifStart = i+1;
return 3;
}
}
*pDifStart=0;
return 0;
}
//It compares 1Q and 2Q and returns 1 if 1Q is smaller then 2Q ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in 1Q and 2Q
inline int minTemp1_fast_moreThen5(word* pInOut, int iVar, int nWords, int* pDifStart)
{
int i, j, temp;
int wordBlock = 1<<(iVar-6);
int shiftBlock = wordBlock*4;
for(i=nWords - wordBlock - 1; i>=0; i-=shiftBlock)
for(j=0;j<wordBlock;j++)
{
temp = CompareWords(pInOut[i-j],pInOut[i-j-wordBlock]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+wordBlock+1;
return 1;
}
else
{
*pDifStart = i+wordBlock+1;
return 2;
}
}
*pDifStart=0;
return 1;
}
//It compares iQ and jQ and returns 0 if iQ is smaller then jQ ( comparison starts at highest bit) and visa versa
// DifStart contains the information about the first different bit in iQ and jQ
inline int minTemp2_fast_moreThen5(word* pInOut, int iVar, int iQ, int jQ, int nWords, int* pDifStart)
{
int i, j, temp;
int wordBlock = 1<<(iVar-6);
int shiftBlock = wordBlock*4;
for(i=nWords - 1; i>=0; i-=shiftBlock)
for(j=0;j<wordBlock;j++)
{
temp = CompareWords(pInOut[i-j-iQ*wordBlock],pInOut[i-j-jQ*wordBlock]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+1;
return 0;
}
else
{
*pDifStart = i+1;
return 1;
}
}
*pDifStart=0;
return iQ;
}
// same as minTemp2_fast but this one has a start position
inline int minTemp3_fast_moreThen5(word* pInOut, int iVar, int start, int finish, int iQ, int jQ, int* pDifStart)
{
int i, j, temp;
int wordBlock = 1<<(iVar-6);
int shiftBlock = wordBlock*4;
for(i=start-1; i>=finish; i-=shiftBlock)
for(j=0;j<wordBlock;j++)
{
temp = CompareWords(pInOut[i-j-iQ*wordBlock],pInOut[i-j-jQ*wordBlock]);
if(temp == 0)
continue;
else if(temp == -1)
{
*pDifStart = i+1;
return 0;
}
else
{
*pDifStart = i+1;
return 1;
}
}
*pDifStart=0;
return iQ;
}
// It considers all swap and flip possibilities of iVar and iVar+1 and switches InOut to a minimal of them
inline void minimalSwapAndFlipIVar_superFast_moreThen5(word* pInOut, int iVar, int nWords, char * pCanonPerm, unsigned* pCanonPhase)
{
int min1, min2, DifStart0, DifStart1, DifStartMin;
int M[2];
word temp[1024];
M[0] = minTemp0_fast_moreThen5(pInOut, iVar, nWords, &DifStart0); // 0, 3
M[1] = minTemp1_fast_moreThen5(pInOut, iVar, nWords, &DifStart1); // 1, 2
min1 = minTemp2_fast_moreThen5(pInOut, iVar, M[0], M[1], nWords, &DifStartMin);
if(DifStart0 != DifStart1)
{
if( DifStartMin>=DifStart1 && DifStartMin>=DifStart0 )
arrangeQuoters_superFast_moreThen5(pInOut, temp, DifStartMin, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], iVar, pCanonPerm, pCanonPhase);
else if( DifStart0 > DifStart1)
arrangeQuoters_superFast_moreThen5(pInOut, temp, luckyMax(DifStartMin,DifStart0), M[0], M[1], 3 - M[1], 3 - M[0], iVar, pCanonPerm, pCanonPhase);
else
arrangeQuoters_superFast_moreThen5(pInOut, temp, luckyMax(DifStartMin,DifStart1), M[1], M[0], 3 - M[0], 3 - M[1], iVar, pCanonPerm, pCanonPhase);
}
else
{
if(DifStartMin>=DifStart0)
arrangeQuoters_superFast_moreThen5(pInOut, temp, DifStartMin, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], iVar, pCanonPerm, pCanonPhase);
else
{
min2 = minTemp3_fast_moreThen5(pInOut, iVar, DifStart0, DifStartMin, 3-M[0], 3-M[1], &DifStart1); // reuse DifStart1 because DifStart1 = DifStart1=0
if(DifStart1>DifStartMin)
arrangeQuoters_superFast_moreThen5(pInOut, temp, DifStart0, M[(min2+1)%2], M[min2], 3 - M[min2], 3 - M[(min2+1)%2], iVar, pCanonPerm, pCanonPhase);
else
arrangeQuoters_superFast_moreThen5(pInOut, temp, DifStart0, M[min1], M[(min1+1)%2], 3 - M[(min1+1)%2], 3 - M[min1], iVar, pCanonPerm, pCanonPhase);
}
}
}
/////////////////////////////////// for all /////////////////////////////////////////////////////////////////////////////////////////////
inline void minimalInitialFlip_fast_16Vars(word* pInOut, int nVars, unsigned* pCanonPhase)
{
word oneWord=1;
if( (pInOut[Kit_TruthWordNum_64bit( nVars ) -1]>>63) & oneWord )
{
Kit_TruthNot_64bit( pInOut, nVars );
(* pCanonPhase) ^=(1<<nVars);
}
}
// this function finds minimal for all TIED(and tied only) iVars
//it finds tied vars based on rearranged Store info - group of tied vars has the same bit count in Store
inline int minimalSwapAndFlipIVar_superFast_all(word* pInOut, int nVars, int nWords, int * pStore, char * pCanonPerm, unsigned* pCanonPhase)
{
int i;
word pDuplicate[1024];
int bitInfoTemp = pStore[0];
memcpy(pDuplicate,pInOut,nWords*sizeof(word));
for(i=0;i<5;i++)
{
if(bitInfoTemp == pStore[i+1])
minimalSwapAndFlipIVar_superFast_lessThen5(pInOut, i, nWords, pCanonPerm, pCanonPhase);
else
{
bitInfoTemp = pStore[i+1];
continue;
}
}
if(bitInfoTemp == pStore[i+1])
minimalSwapAndFlipIVar_superFast_iVar5((unsigned*) pInOut, nWords, pCanonPerm, pCanonPhase);
else
bitInfoTemp = pStore[i+1];
for(i=6;i<nVars-1;i++)
{
if(bitInfoTemp == pStore[i+1])
minimalSwapAndFlipIVar_superFast_moreThen5(pInOut, i, nWords, pCanonPerm, pCanonPhase);
else
{
bitInfoTemp = pStore[i+1];
continue;
}
}
if(memcmp(pInOut,pDuplicate , nWords*sizeof(word)) == 0)
return 0;
else
return 1;
}
inline void luckyCanonicizerS_F_first_16Vars(word* pInOut, int nVars, int nWords, int * pStore, char * pCanonPerm, unsigned* pCanonPhase)
{
minimalInitialFlip_fast_16Vars(pInOut, nVars, pCanonPhase);
while( minimalSwapAndFlipIVar_superFast_all(pInOut, nVars, nWords, pStore, pCanonPerm, pCanonPhase) != 0)
continue;
}
inline void luckyCanonicizer_final_fast_16Vars(word* pInOut, int nVars, int nWords, int * pStore, char * pCanonPerm, unsigned* pCanonPhase)
{
// word pDuplicateLocal[1024]={0};
// memcpy(pDuplicateLocal,pInOut,nWords*sizeof(word));
assert( nVars <= 16 );
assert( nVars > 6 );
(* pCanonPhase) = Kit_TruthSemiCanonicize_Yasha1( pInOut, nVars, pCanonPerm, pStore );
luckyCanonicizerS_F_first_16Vars(pInOut, nVars, nWords, pStore, pCanonPerm, pCanonPhase );
// memcpy(pDuplicate,pInOut,nWords*sizeof(word));
// assert(!luckyCheck(pDuplicate, pDuplicateLocal, nVars, pCanonPerm, * pCanonPhase));
}
// top-level procedure calling two special cases (nVars <= 6 and nVars <= 16)
int luckyCanonicizer_final_fast( word * pInOut, int nVars, char * pCanonPerm )
{
int pStore[16];
unsigned uCanonPhase = 0;
int nWords = (nVars <= 6) ? 1 : (1 << (nVars - 6));
if ( nVars <= 6 )
pInOut[0] = luckyCanonicizer_final_fast_6Vars( pInOut[0], pStore, pCanonPerm, &uCanonPhase );
else if ( nVars <= 16 )
luckyCanonicizer_final_fast_16Vars( pInOut, nVars, nWords, pStore, pCanonPerm, &uCanonPhase );
else assert( 0 );
return uCanonPhase;
}
ABC_NAMESPACE_IMPL_END