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abc/src/opt/cut/cutNode.c

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/**CFile****************************************************************
FileName [cutNode.c]
SystemName [ABC: Logic synthesis and verification system.]
PackageName [K-feasible cut computation package.]
Synopsis [Procedures to compute cuts for a node.]
Author [Alan Mishchenko]
Affiliation [UC Berkeley]
Date [Ver. 1.0. Started - June 20, 2005.]
Revision [$Id: cutNode.c,v 1.00 2005/06/20 00:00:00 alanmi Exp $]
***********************************************************************/
#include "cutInt.h"
////////////////////////////////////////////////////////////////////////
/// DECLARATIONS ///
////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////
/// FUNCTION DEFINITIONS ///
////////////////////////////////////////////////////////////////////////
/**Function*************************************************************
Synopsis [Returns 1 if pDom is contained in pCut.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
static inline int Cut_CutCheckDominance( Cut_Cut_t * pDom, Cut_Cut_t * pCut )
{
int i, k;
for ( i = 0; i < (int)pDom->nLeaves; i++ )
{
for ( k = 0; k < (int)pCut->nLeaves; k++ )
if ( pDom->pLeaves[i] == pCut->pLeaves[k] )
break;
if ( k == (int)pCut->nLeaves ) // node i in pDom is not contained in pCut
return 0;
}
// every node in pDom is contained in pCut
return 1;
}
/**Function*************************************************************
Synopsis [Filters cuts using dominance.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
static inline void Cut_CutFilter( Cut_Man_t * p, Cut_Cut_t * pList )
{
Cut_Cut_t * pListR, ** ppListR = &pListR;
Cut_Cut_t * pCut, * pCut2, * pDom, * pPrev;
// save the first cut
*ppListR = pList, ppListR = &pList->pNext;
// try to filter out other cuts
pPrev = pList;
Cut_ListForEachCutSafe( pList->pNext, pCut, pCut2 )
{
assert( pCut->nLeaves > 1 );
// go through all the previous cuts up to pCut
Cut_ListForEachCutStop( pList->pNext, pDom, pCut )
{
if ( pDom->nLeaves > pCut->nLeaves )
continue;
if ( (pDom->uSign & pCut->uSign) != pDom->uSign )
continue;
if ( Cut_CutCheckDominance( pDom, pCut ) )
break;
}
if ( pDom != pCut ) // pDom is contained in pCut - recycle pCut
{
// make sure cuts are connected after removing
pPrev->pNext = pCut->pNext;
// recycle the cut
Cut_CutRecycle( p, pCut );
}
else // pDom is NOT contained in pCut - save pCut
{
*ppListR = pCut, ppListR = &pCut->pNext;
pPrev = pCut;
}
}
*ppListR = NULL;
}
/**Function*************************************************************
Synopsis [Checks containment for one cut.]
Description [Returns 1 if the cut is removed.]
SideEffects [May remove other cuts in the set.]
SeeAlso []
***********************************************************************/
static inline int Cut_CutFilterOne( Cut_Man_t * p, Cut_List_t * pSuperList, Cut_Cut_t * pCut )
{
Cut_Cut_t * pTemp, * pTemp2, ** ppTail;
int a;
// check if this cut is filtered out by smaller cuts
for ( a = 2; a <= (int)pCut->nLeaves; a++ )
{
Cut_ListForEachCut( pSuperList->pHead[a], pTemp )
{
// skip the non-contained cuts
if ( (pTemp->uSign & pCut->uSign) != pTemp->uSign )
continue;
// check containment seriously
if ( Cut_CutCheckDominance( pTemp, pCut ) )
{
p->nCutsFilter++;
Cut_CutRecycle( p, pCut );
return 1;
}
}
}
// filter out other cuts using this one
for ( a = pCut->nLeaves + 1; a <= (int)pCut->nVarsMax; a++ )
{
ppTail = pSuperList->pHead + a;
Cut_ListForEachCutSafe( pSuperList->pHead[a], pTemp, pTemp2 )
{
// skip the non-contained cuts
if ( (pTemp->uSign & pCut->uSign) != pCut->uSign )
{
ppTail = &pTemp->pNext;
continue;
}
// check containment seriously
if ( Cut_CutCheckDominance( pCut, pTemp ) )
{
p->nCutsFilter++;
p->nNodeCuts--;
// move the head
if ( pSuperList->pHead[a] == pTemp )
pSuperList->pHead[a] = pTemp->pNext;
// move the tail
if ( pSuperList->ppTail[a] == &pTemp->pNext )
pSuperList->ppTail[a] = ppTail;
// skip the given cut in the list
*ppTail = pTemp->pNext;
// recycle pTemp
Cut_CutRecycle( p, pTemp );
}
else
ppTail = &pTemp->pNext;
}
assert( ppTail == pSuperList->ppTail[a] );
assert( *ppTail == NULL );
}
return 0;
}
/**Function*************************************************************
Synopsis [Checks containment for one cut.]
Description [Returns 1 if the cut is removed.]
SideEffects [May remove other cuts in the set.]
SeeAlso []
***********************************************************************/
static inline int Cut_CutFilterOld( Cut_Man_t * p, Cut_Cut_t * pList, Cut_Cut_t * pCut )
{
Cut_Cut_t * pPrev, * pTemp, * pTemp2, ** ppTail;
// check if this cut is filtered out by smaller cuts
pPrev = NULL;
Cut_ListForEachCut( pList, pTemp )
{
if ( pTemp->nLeaves > pCut->nLeaves )
break;
pPrev = pTemp;
// skip the non-contained cuts
if ( (pTemp->uSign & pCut->uSign) != pTemp->uSign )
continue;
// check containment seriously
if ( Cut_CutCheckDominance( pTemp, pCut ) )
{
p->nCutsFilter++;
Cut_CutRecycle( p, pCut );
return 1;
}
}
assert( pPrev->pNext == pTemp );
// filter out other cuts using this one
ppTail = &pPrev->pNext;
Cut_ListForEachCutSafe( pTemp, pTemp, pTemp2 )
{
// skip the non-contained cuts
if ( (pTemp->uSign & pCut->uSign) != pCut->uSign )
{
ppTail = &pTemp->pNext;
continue;
}
// check containment seriously
if ( Cut_CutCheckDominance( pCut, pTemp ) )
{
p->nCutsFilter++;
p->nNodeCuts--;
// skip the given cut in the list
*ppTail = pTemp->pNext;
// recycle pTemp
Cut_CutRecycle( p, pTemp );
}
else
ppTail = &pTemp->pNext;
}
assert( *ppTail == NULL );
return 0;
}
/**Function*************************************************************
Synopsis [Processes two cuts.]
Description [Returns 1 if the limit has been reached.]
SideEffects []
SeeAlso []
***********************************************************************/
static inline int Cut_CutProcessTwo( Cut_Man_t * p, Cut_Cut_t * pCut0, Cut_Cut_t * pCut1, Cut_List_t * pSuperList )
{
Cut_Cut_t * pCut;
// merge the cuts
if ( pCut0->nLeaves >= pCut1->nLeaves )
pCut = Cut_CutMergeTwo( p, pCut0, pCut1 );
else
pCut = Cut_CutMergeTwo( p, pCut1, pCut0 );
if ( pCut == NULL )
return 0;
assert( p->pParams->fSeq || pCut->nLeaves > 1 );
// set the signature
pCut->uSign = pCut0->uSign | pCut1->uSign;
if ( p->pParams->fRecord )
pCut->Num0 = pCut0->Num0, pCut->Num1 = pCut1->Num0;
// check containment
if ( p->pParams->fFilter )
{
if ( Cut_CutFilterOne(p, pSuperList, pCut) )
return 0;
if ( p->pParams->fSeq )
{
if ( p->pCompareOld && Cut_CutFilterOld(p, p->pCompareOld, pCut) )
return 0;
if ( p->pCompareNew && Cut_CutFilterOld(p, p->pCompareNew, pCut) )
return 0;
}
}
// compute the truth table
if ( p->pParams->fTruth )
Cut_TruthCompute( p, pCut, pCut0, pCut1, p->fCompl0, p->fCompl1 );
// add to the list
Cut_ListAdd( pSuperList, pCut );
// return status (0 if okay; 1 if exceeded the limit)
return ++p->nNodeCuts == p->pParams->nKeepMax;
}
/**Function*************************************************************
Synopsis [Computes the cuts by merging cuts at two nodes.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
Cut_Cut_t * Cut_NodeComputeCuts( Cut_Man_t * p, int Node, int Node0, int Node1, int fCompl0, int fCompl1, int fTriv, int TreeCode )
{
Cut_List_t Super, * pSuper = &Super;
Cut_Cut_t * pList, * pCut;
int clk;
// start the number of cuts at the node
p->nNodes++;
p->nNodeCuts = 0;
// prepare information for recording
if ( p->pParams->fRecord )
{
Cut_CutNumberList( Cut_NodeReadCutsNew(p, Node0) );
Cut_CutNumberList( Cut_NodeReadCutsNew(p, Node1) );
}
// compute the cuts
clk = clock();
Cut_ListStart( pSuper );
Cut_NodeDoComputeCuts( p, pSuper, Node, fCompl0, fCompl1, Cut_NodeReadCutsNew(p, Node0), Cut_NodeReadCutsNew(p, Node1), fTriv, TreeCode );
pList = Cut_ListFinish( pSuper );
p->timeMerge += clock() - clk;
// verify the result of cut computation
// Cut_CutListVerify( pList );
// performing the recording
if ( p->pParams->fRecord )
{
Vec_IntWriteEntry( p->vNodeStarts, Node, Vec_IntSize(p->vCutPairs) );
Cut_ListForEachCut( pList, pCut )
Vec_IntPush( p->vCutPairs, ((pCut->Num1 << 16) | pCut->Num0) );
Vec_IntWriteEntry( p->vNodeCuts, Node, Vec_IntSize(p->vCutPairs) - Vec_IntEntry(p->vNodeStarts, Node) );
}
// check if the node is over the list
if ( p->nNodeCuts == p->pParams->nKeepMax )
p->nCutsLimit++;
// set the list at the node
Vec_PtrFillExtra( p->vCutsNew, Node + 1, NULL );
assert( Cut_NodeReadCutsNew(p, Node) == NULL );
Cut_NodeWriteCutsNew( p, Node, pList );
// filter the cuts
//clk = clock();
// if ( p->pParams->fFilter )
// Cut_CutFilter( p, pList0 );
//p->timeFilter += clock() - clk;
return pList;
}
/**Function*************************************************************
Synopsis [Computes the cuts by merging cuts at two nodes.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
void Cut_NodeDoComputeCuts( Cut_Man_t * p, Cut_List_t * pSuper, int Node, int fCompl0, int fCompl1, Cut_Cut_t * pList0, Cut_Cut_t * pList1, int fTriv, int TreeCode )
{
Cut_Cut_t * pStop0, * pStop1, * pTemp0, * pTemp1, * pStore0, * pStore1;
int i, nCutsOld, Limit;
// start with the elementary cut
if ( fTriv )
{
// printf( "Creating trivial cut %d.\n", Node );
pTemp0 = Cut_CutCreateTriv( p, Node );
Cut_ListAdd( pSuper, pTemp0 );
p->nNodeCuts++;
}
// get the cut lists of children
if ( pList0 == NULL || pList1 == NULL )
return;
// remember the old number of cuts
nCutsOld = p->nCutsCur;
Limit = p->pParams->nVarsMax;
// get the simultation bit of the node
p->fSimul = (fCompl0 ^ pList0->fSimul) & (fCompl1 ^ pList1->fSimul);
// set temporary variables
p->fCompl0 = fCompl0;
p->fCompl1 = fCompl1;
// if tree cuts are computed, make sure only the unit cuts propagate over the DAG nodes
if ( TreeCode & 1 )
{
assert( pList0->nLeaves == 1 );
pStore0 = pList0->pNext;
pList0->pNext = NULL;
}
if ( TreeCode & 2 )
{
assert( pList1->nLeaves == 1 );
pStore1 = pList1->pNext;
pList1->pNext = NULL;
}
// find the point in the list where the max-var cuts begin
Cut_ListForEachCut( pList0, pStop0 )
if ( pStop0->nLeaves == (unsigned)Limit )
break;
Cut_ListForEachCut( pList1, pStop1 )
if ( pStop1->nLeaves == (unsigned)Limit )
break;
// small by small
Cut_ListForEachCutStop( pList0, pTemp0, pStop0 )
Cut_ListForEachCutStop( pList1, pTemp1, pStop1 )
{
if ( Cut_CutProcessTwo( p, pTemp0, pTemp1, pSuper ) )
goto Quits;
}
// small by large
Cut_ListForEachCutStop( pList0, pTemp0, pStop0 )
Cut_ListForEachCut( pStop1, pTemp1 )
{
if ( (pTemp0->uSign & pTemp1->uSign) != pTemp0->uSign )
continue;
if ( Cut_CutProcessTwo( p, pTemp0, pTemp1, pSuper ) )
goto Quits;
}
// small by large
Cut_ListForEachCutStop( pList1, pTemp1, pStop1 )
Cut_ListForEachCut( pStop0, pTemp0 )
{
if ( (pTemp0->uSign & pTemp1->uSign) != pTemp1->uSign )
continue;
if ( Cut_CutProcessTwo( p, pTemp0, pTemp1, pSuper ) )
goto Quits;
}
// large by large
Cut_ListForEachCut( pStop0, pTemp0 )
Cut_ListForEachCut( pStop1, pTemp1 )
{
assert( pTemp0->nLeaves == (unsigned)Limit && pTemp1->nLeaves == (unsigned)Limit );
if ( pTemp0->uSign != pTemp1->uSign )
continue;
for ( i = 0; i < Limit; i++ )
if ( pTemp0->pLeaves[i] != pTemp1->pLeaves[i] )
break;
if ( i < Limit )
continue;
if ( Cut_CutProcessTwo( p, pTemp0, pTemp1, pSuper ) )
goto Quits;
}
if ( p->nNodeCuts == 0 )
p->nNodesNoCuts++;
Quits:
if ( TreeCode & 1 )
pList0->pNext = pStore0;
if ( TreeCode & 2 )
pList1->pNext = pStore1;
}
/**Function*************************************************************
Synopsis [Computes the cuts by unioning cuts at a choice node.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
Cut_Cut_t * Cut_NodeUnionCuts( Cut_Man_t * p, Vec_Int_t * vNodes )
{
Cut_List_t Super, * pSuper = &Super;
Cut_Cut_t * pList, * pListStart, * pCut, * pCut2, * pTop;
int i, k, Node, Root, Limit = p->pParams->nVarsMax;
int clk = clock();
// start the new list
Cut_ListStart( pSuper );
// remember the root node to save the resulting cuts
Root = Vec_IntEntry( vNodes, 0 );
p->nNodeCuts = 1;
// collect small cuts first
Vec_PtrClear( p->vTemp );
Vec_IntForEachEntry( vNodes, Node, i )
{
// get the cuts of this node
pList = Cut_NodeReadCutsNew( p, Node );
Cut_NodeWriteCutsNew( p, Node, NULL );
assert( pList );
// remember the starting point
pListStart = pList->pNext;
pList->pNext = NULL;
// save or recycle the elementary cut
if ( i == 0 )
Cut_ListAdd( pSuper, pList ), pTop = pList;
else
Cut_CutRecycle( p, pList );
// save all the cuts that are smaller than the limit
Cut_ListForEachCutSafe( pListStart, pCut, pCut2 )
{
if ( pCut->nLeaves == (unsigned)Limit )
{
Vec_PtrPush( p->vTemp, pCut );
break;
}
// check containment
if ( p->pParams->fFilter && Cut_CutFilterOne( p, pSuper, pCut ) )
continue;
// set the complemented bit by comparing the first cut with the current cut
pCut->fCompl = pTop->fSimul ^ pCut->fSimul;
pListStart = pCut->pNext;
pCut->pNext = NULL;
// add to the list
Cut_ListAdd( pSuper, pCut );
if ( ++p->nNodeCuts == p->pParams->nKeepMax )
{
// recycle the rest of the cuts of this node
Cut_ListForEachCutSafe( pListStart, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
// recycle all cuts of other nodes
Vec_IntForEachEntryStart( vNodes, Node, k, i+1 )
Cut_NodeFreeCuts( p, Node );
// recycle the saved cuts of other nodes
Vec_PtrForEachEntry( p->vTemp, pList, k )
Cut_ListForEachCutSafe( pList, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
goto finish;
}
}
}
// collect larger cuts next
Vec_PtrForEachEntry( p->vTemp, pList, i )
{
Cut_ListForEachCutSafe( pList, pCut, pCut2 )
{
// check containment
if ( p->pParams->fFilter && Cut_CutFilterOne( p, pSuper, pCut ) )
continue;
// set the complemented bit
pCut->fCompl = pTop->fSimul ^ pCut->fSimul;
pListStart = pCut->pNext;
pCut->pNext = NULL;
// add to the list
Cut_ListAdd( pSuper, pCut );
if ( ++p->nNodeCuts == p->pParams->nKeepMax )
{
// recycle the rest of the cuts
Cut_ListForEachCutSafe( pListStart, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
// recycle the saved cuts of other nodes
Vec_PtrForEachEntryStart( p->vTemp, pList, k, i+1 )
Cut_ListForEachCutSafe( pList, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
goto finish;
}
}
}
finish :
// set the cuts at the node
assert( Cut_NodeReadCutsNew(p, Root) == NULL );
pList = Cut_ListFinish( pSuper );
Cut_NodeWriteCutsNew( p, Root, pList );
p->timeUnion += clock() - clk;
// filter the cuts
//clk = clock();
// if ( p->pParams->fFilter )
// Cut_CutFilter( p, pList );
//p->timeFilter += clock() - clk;
p->nNodes -= vNodes->nSize - 1;
return pList;
}
/**Function*************************************************************
Synopsis [Computes the cuts by unioning cuts at a choice node.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
Cut_Cut_t * Cut_NodeUnionCutsSeq( Cut_Man_t * p, Vec_Int_t * vNodes, int CutSetNum, int fFirst )
{
Cut_List_t Super, * pSuper = &Super;
Cut_Cut_t * pList, * pListStart, * pCut, * pCut2, * pTop;
int i, k, Node, Root, Limit = p->pParams->nVarsMax;
int clk = clock();
// start the new list
Cut_ListStart( pSuper );
// remember the root node to save the resulting cuts
Root = Vec_IntEntry( vNodes, 0 );
p->nNodeCuts = 1;
// store the original lists for comparison
p->pCompareOld = Cut_NodeReadCutsOld( p, Root );
p->pCompareNew = (CutSetNum >= 0)? Cut_NodeReadCutsNew( p, Root ) : NULL;
// get the topmost cut
pTop = NULL;
if ( (pTop = Cut_NodeReadCutsOld( p, Root )) == NULL )
pTop = Cut_NodeReadCutsNew( p, Root );
assert( pTop != NULL );
// collect small cuts first
Vec_PtrClear( p->vTemp );
Vec_IntForEachEntry( vNodes, Node, i )
{
// get the cuts of this node
if ( i == 0 && CutSetNum >= 0 )
{
pList = Cut_NodeReadCutsTemp( p, CutSetNum );
Cut_NodeWriteCutsTemp( p, CutSetNum, NULL );
}
else
{
pList = Cut_NodeReadCutsNew( p, Node );
Cut_NodeWriteCutsNew( p, Node, NULL );
}
if ( pList == NULL )
continue;
// process the cuts
if ( fFirst )
{
// remember the starting point
pListStart = pList->pNext;
pList->pNext = NULL;
// save or recycle the elementary cut
if ( i == 0 )
Cut_ListAdd( pSuper, pList );
else
Cut_CutRecycle( p, pList );
}
else
pListStart = pList;
// save all the cuts that are smaller than the limit
Cut_ListForEachCutSafe( pListStart, pCut, pCut2 )
{
if ( pCut->nLeaves == (unsigned)Limit )
{
Vec_PtrPush( p->vTemp, pCut );
break;
}
// check containment
// if ( p->pParams->fFilter && Cut_CutFilterOne( p, pSuper, pCut ) )
// continue;
if ( p->pParams->fFilter )
{
if ( Cut_CutFilterOne(p, pSuper, pCut) )
continue;
if ( p->pParams->fSeq )
{
if ( p->pCompareOld && Cut_CutFilterOld(p, p->pCompareOld, pCut) )
continue;
if ( p->pCompareNew && Cut_CutFilterOld(p, p->pCompareNew, pCut) )
continue;
}
}
// set the complemented bit by comparing the first cut with the current cut
pCut->fCompl = pTop->fSimul ^ pCut->fSimul;
pListStart = pCut->pNext;
pCut->pNext = NULL;
// add to the list
Cut_ListAdd( pSuper, pCut );
if ( ++p->nNodeCuts == p->pParams->nKeepMax )
{
// recycle the rest of the cuts of this node
Cut_ListForEachCutSafe( pListStart, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
// recycle all cuts of other nodes
Vec_IntForEachEntryStart( vNodes, Node, k, i+1 )
Cut_NodeFreeCuts( p, Node );
// recycle the saved cuts of other nodes
Vec_PtrForEachEntry( p->vTemp, pList, k )
Cut_ListForEachCutSafe( pList, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
goto finish;
}
}
}
// collect larger cuts next
Vec_PtrForEachEntry( p->vTemp, pList, i )
{
Cut_ListForEachCutSafe( pList, pCut, pCut2 )
{
// check containment
// if ( p->pParams->fFilter && Cut_CutFilterOne( p, pSuper, pCut ) )
// continue;
if ( p->pParams->fFilter )
{
if ( Cut_CutFilterOne(p, pSuper, pCut) )
continue;
if ( p->pParams->fSeq )
{
if ( p->pCompareOld && Cut_CutFilterOld(p, p->pCompareOld, pCut) )
continue;
if ( p->pCompareNew && Cut_CutFilterOld(p, p->pCompareNew, pCut) )
continue;
}
}
// set the complemented bit
pCut->fCompl = pTop->fSimul ^ pCut->fSimul;
pListStart = pCut->pNext;
pCut->pNext = NULL;
// add to the list
Cut_ListAdd( pSuper, pCut );
if ( ++p->nNodeCuts == p->pParams->nKeepMax )
{
// recycle the rest of the cuts
Cut_ListForEachCutSafe( pListStart, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
// recycle the saved cuts of other nodes
Vec_PtrForEachEntryStart( p->vTemp, pList, k, i+1 )
Cut_ListForEachCutSafe( pList, pCut, pCut2 )
Cut_CutRecycle( p, pCut );
goto finish;
}
}
}
finish :
// set the cuts at the node
pList = Cut_ListFinish( pSuper );
// set the lists at the node
// assert( Cut_NodeReadCutsNew(p, Root) == NULL );
// Cut_NodeWriteCutsNew( p, Root, pList );
if ( CutSetNum >= 0 )
{
assert( Cut_NodeReadCutsTemp(p, CutSetNum) == NULL );
Cut_NodeWriteCutsTemp( p, CutSetNum, pList );
}
else
{
assert( Cut_NodeReadCutsNew(p, Root) == NULL );
Cut_NodeWriteCutsNew( p, Root, pList );
}
p->timeUnion += clock() - clk;
// filter the cuts
//clk = clock();
// if ( p->pParams->fFilter )
// Cut_CutFilter( p, pList );
//p->timeFilter += clock() - clk;
// if ( fFirst )
// p->nNodes -= vNodes->nSize - 1;
return pList;
}
/**Function*************************************************************
Synopsis [Verifies that the list contains only non-dominated cuts.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
int Cut_CutListVerify( Cut_Cut_t * pList )
{
Cut_Cut_t * pCut, * pDom;
Cut_ListForEachCut( pList, pCut )
{
Cut_ListForEachCutStop( pList, pDom, pCut )
{
if ( Cut_CutCheckDominance( pDom, pCut ) )
{
int x = 0;
printf( "******************* These are contained cuts:\n" );
Cut_CutPrint( pDom, 1 );
Cut_CutPrint( pDom, 1 );
return 0;
}
}
}
return 1;
}
////////////////////////////////////////////////////////////////////////
/// END OF FILE ///
////////////////////////////////////////////////////////////////////////
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