abc/src/map/scl/sclLibScl.c

678 lines
24 KiB
C

/**CFile****************************************************************
FileName [sclLibScl.c]
SystemName [ABC: Logic synthesis and verification system.]
PackageName [Standard-cell library representation.]
Synopsis [Liberty abstraction for delay-oriented mapping.]
Author [Alan Mishchenko, Niklas Een]
Affiliation [UC Berkeley]
Date [Ver. 1.0. Started - August 24, 2012.]
Revision [$Id: sclLibScl.c,v 1.0 2012/08/24 00:00:00 alanmi Exp $]
***********************************************************************/
#include "sclLib.h"
#include "misc/st/st.h"
#include "map/mio/mio.h"
#include "bool/kit/kit.h"
ABC_NAMESPACE_IMPL_START
////////////////////////////////////////////////////////////////////////
/// DECLARATIONS ///
////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////////////
/// FUNCTION DEFINITIONS ///
////////////////////////////////////////////////////////////////////////
/**Function*************************************************************
Synopsis [Reading library from file.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
static void Abc_SclReadSurface( Vec_Str_t * vOut, int * pPos, SC_Surface * p )
{
Vec_Flt_t * vVec;
int i, j;
for ( i = Vec_StrGetI(vOut, pPos); i != 0; i-- )
Vec_FltPush( p->vIndex0, Vec_StrGetF(vOut, pPos) );
for ( i = Vec_StrGetI(vOut, pPos); i != 0; i-- )
Vec_FltPush( p->vIndex1, Vec_StrGetF(vOut, pPos) );
for ( i = 0; i < Vec_FltSize(p->vIndex0); i++ )
{
vVec = Vec_FltAlloc( Vec_FltSize(p->vIndex1) );
Vec_PtrPush( p->vData, vVec );
for ( j = 0; j < Vec_FltSize(p->vIndex1); j++ )
Vec_FltPush( vVec, Vec_StrGetF(vOut, pPos) );
}
for ( i = 0; i < 3; i++ )
p->approx[0][i] = Vec_StrGetF( vOut, pPos );
for ( i = 0; i < 4; i++ )
p->approx[1][i] = Vec_StrGetF( vOut, pPos );
for ( i = 0; i < 6; i++ )
p->approx[2][i] = Vec_StrGetF( vOut, pPos );
}
static void Abc_SclReadLibrary( Vec_Str_t * vOut, int * pPos, SC_Lib * p )
{
int i, j, k, n;
int version = Vec_StrGetI( vOut, pPos );
assert( version == 5 || version == ABC_SCL_CUR_VERSION ); // wrong version of the file
// Read non-composite fields:
p->pName = Vec_StrGetS(vOut, pPos);
p->default_wire_load = Vec_StrGetS(vOut, pPos);
p->default_wire_load_sel = Vec_StrGetS(vOut, pPos);
p->default_max_out_slew = Vec_StrGetF(vOut, pPos);
p->unit_time = Vec_StrGetI(vOut, pPos);
p->unit_cap_fst = Vec_StrGetF(vOut, pPos);
p->unit_cap_snd = Vec_StrGetI(vOut, pPos);
// Read 'wire_load' vector:
for ( i = Vec_StrGetI(vOut, pPos); i != 0; i-- )
{
SC_WireLoad * pWL = Abc_SclWireLoadAlloc();
Vec_PtrPush( p->vWireLoads, pWL );
pWL->pName = Vec_StrGetS(vOut, pPos);
pWL->res = Vec_StrGetF(vOut, pPos);
pWL->cap = Vec_StrGetF(vOut, pPos);
for ( j = Vec_StrGetI(vOut, pPos); j != 0; j-- )
{
Vec_IntPush( pWL->vFanout, Vec_StrGetI(vOut, pPos) );
Vec_FltPush( pWL->vLen, Vec_StrGetF(vOut, pPos) );
}
}
// Read 'wire_load_sel' vector:
for ( i = Vec_StrGetI(vOut, pPos); i != 0; i-- )
{
SC_WireLoadSel * pWLS = Abc_SclWireLoadSelAlloc();
Vec_PtrPush( p->vWireLoadSels, pWLS );
pWLS->pName = Vec_StrGetS(vOut, pPos);
for ( j = Vec_StrGetI(vOut, pPos); j != 0; j-- )
{
Vec_FltPush( pWLS->vAreaFrom, Vec_StrGetF(vOut, pPos) );
Vec_FltPush( pWLS->vAreaTo, Vec_StrGetF(vOut, pPos) );
Vec_PtrPush( pWLS->vWireLoadModel, Vec_StrGetS(vOut, pPos) );
}
}
for ( i = Vec_StrGetI(vOut, pPos); i != 0; i-- )
{
SC_Cell * pCell = Abc_SclCellAlloc();
pCell->Id = SC_LibCellNum(p);
Vec_PtrPush( p->vCells, pCell );
pCell->pName = Vec_StrGetS(vOut, pPos);
pCell->area = Vec_StrGetF(vOut, pPos);
pCell->drive_strength = Vec_StrGetI(vOut, pPos);
pCell->n_inputs = Vec_StrGetI(vOut, pPos);
pCell->n_outputs = Vec_StrGetI(vOut, pPos);
/*
printf( "%s\n", pCell->pName );
if ( !strcmp( "XOR3_X4M_A9TL", pCell->pName ) )
{
int s = 0;
}
*/
for ( j = 0; j < pCell->n_inputs; j++ )
{
SC_Pin * pPin = Abc_SclPinAlloc();
Vec_PtrPush( pCell->vPins, pPin );
pPin->dir = sc_dir_Input;
pPin->pName = Vec_StrGetS(vOut, pPos);
pPin->rise_cap = Vec_StrGetF(vOut, pPos);
pPin->fall_cap = Vec_StrGetF(vOut, pPos);
}
for ( j = 0; j < pCell->n_outputs; j++ )
{
SC_Pin * pPin = Abc_SclPinAlloc();
Vec_PtrPush( pCell->vPins, pPin );
pPin->dir = sc_dir_Output;
pPin->pName = Vec_StrGetS(vOut, pPos);
pPin->max_out_cap = Vec_StrGetF(vOut, pPos);
pPin->max_out_slew = Vec_StrGetF(vOut, pPos);
k = Vec_StrGetI(vOut, pPos);
assert( k == pCell->n_inputs );
// read function
if ( version == 5 )
{
// formula is not given
assert( Vec_WrdSize(pPin->vFunc) == 0 );
Vec_WrdGrow( pPin->vFunc, Abc_Truth6WordNum(pCell->n_inputs) );
for ( k = 0; k < Vec_WrdCap(pPin->vFunc); k++ )
Vec_WrdPush( pPin->vFunc, Vec_StrGetW(vOut, pPos) );
}
else
{
// (possibly empty) formula is always given
assert( version == ABC_SCL_CUR_VERSION );
assert( pPin->func_text == NULL );
pPin->func_text = Vec_StrGetS(vOut, pPos);
if ( pPin->func_text[0] == 0 )
{
// formula is not given - read truth table
ABC_FREE( pPin->func_text );
assert( Vec_WrdSize(pPin->vFunc) == 0 );
Vec_WrdGrow( pPin->vFunc, Abc_Truth6WordNum(pCell->n_inputs) );
for ( k = 0; k < Vec_WrdCap(pPin->vFunc); k++ )
Vec_WrdPush( pPin->vFunc, Vec_StrGetW(vOut, pPos) );
}
else
{
// formula is given - derive truth table
SC_Pin * pPin2;
Vec_Ptr_t * vNames;
// collect input names
vNames = Vec_PtrAlloc( pCell->n_inputs );
SC_CellForEachPinIn( pCell, pPin2, n )
Vec_PtrPush( vNames, pPin2->pName );
// derive truth table
assert( Vec_WrdSize(pPin->vFunc) == 0 );
Vec_WrdFree( pPin->vFunc );
pPin->vFunc = Mio_ParseFormulaTruth( pPin->func_text, (char **)Vec_PtrArray(vNames), pCell->n_inputs );
Vec_PtrFree( vNames );
// skip truth table
assert( Vec_WrdSize(pPin->vFunc) == Abc_Truth6WordNum(pCell->n_inputs) );
for ( k = 0; k < Vec_WrdSize(pPin->vFunc); k++ )
{
word Value = Vec_StrGetW(vOut, pPos);
assert( Value == Vec_WrdEntry(pPin->vFunc, k) );
}
}
}
// Read 'rtiming': (pin-to-pin timing tables for this particular output)
for ( k = 0; k < pCell->n_inputs; k++ )
{
SC_Timings * pRTime = Abc_SclTimingsAlloc();
Vec_PtrPush( pPin->vRTimings, pRTime );
pRTime->pName = Vec_StrGetS(vOut, pPos);
n = Vec_StrGetI(vOut, pPos); assert( n <= 1 );
if ( n == 1 )
{
SC_Timing * pTime = Abc_SclTimingAlloc();
Vec_PtrPush( pRTime->vTimings, pTime );
pTime->tsense = (SC_TSense)Vec_StrGetI(vOut, pPos);
Abc_SclReadSurface( vOut, pPos, pTime->pCellRise );
Abc_SclReadSurface( vOut, pPos, pTime->pCellFall );
Abc_SclReadSurface( vOut, pPos, pTime->pRiseTrans );
Abc_SclReadSurface( vOut, pPos, pTime->pFallTrans );
}
else
assert( Vec_PtrSize(pRTime->vTimings) == 0 );
}
}
}
}
SC_Lib * Abc_SclReadFromStr( Vec_Str_t * vOut )
{
SC_Lib * p;
int Pos = 0;
// read the library
p = Abc_SclLibAlloc();
Abc_SclReadLibrary( vOut, &Pos, p );
assert( Pos == Vec_StrSize(vOut) );
// hash gates by name
Abc_SclHashCells( p );
Abc_SclLinkCells( p );
return p;
}
SC_Lib * Abc_SclReadFromFile( char * pFileName )
{
SC_Lib * p;
FILE * pFile;
Vec_Str_t * vOut;
int nFileSize;
pFile = fopen( pFileName, "rb" );
if ( pFile == NULL )
{
printf( "Cannot open file \"%s\" for reading.\n", pFileName );
return NULL;
}
// get the file size, in bytes
fseek( pFile, 0, SEEK_END );
nFileSize = ftell( pFile );
rewind( pFile );
// load the contents
vOut = Vec_StrAlloc( nFileSize );
vOut->nSize = vOut->nCap;
assert( nFileSize == Vec_StrSize(vOut) );
nFileSize = fread( Vec_StrArray(vOut), 1, Vec_StrSize(vOut), pFile );
assert( nFileSize == Vec_StrSize(vOut) );
fclose( pFile );
// read the library
p = Abc_SclReadFromStr( vOut );
p->pFileName = Abc_UtilStrsav( pFileName );
Vec_StrFree( vOut );
return p;
}
/**Function*************************************************************
Synopsis [Writing library into file.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
static void Abc_SclWriteSurface( Vec_Str_t * vOut, SC_Surface * p )
{
Vec_Flt_t * vVec;
float Entry;
int i, k;
Vec_StrPutI( vOut, Vec_FltSize(p->vIndex0) );
Vec_FltForEachEntry( p->vIndex0, Entry, i )
Vec_StrPutF( vOut, Entry );
Vec_StrPutI( vOut, Vec_FltSize(p->vIndex1) );
Vec_FltForEachEntry( p->vIndex1, Entry, i )
Vec_StrPutF( vOut, Entry );
Vec_PtrForEachEntry( Vec_Flt_t *, p->vData, vVec, i )
Vec_FltForEachEntry( vVec, Entry, k )
Vec_StrPutF( vOut, Entry );
for ( i = 0; i < 3; i++ )
Vec_StrPutF( vOut, p->approx[0][i] );
for ( i = 0; i < 4; i++ )
Vec_StrPutF( vOut, p->approx[1][i] );
for ( i = 0; i < 6; i++ )
Vec_StrPutF( vOut, p->approx[2][i] );
}
static void Abc_SclWriteLibrary( Vec_Str_t * vOut, SC_Lib * p )
{
SC_WireLoad * pWL;
SC_WireLoadSel * pWLS;
SC_Cell * pCell;
SC_Pin * pPin;
int n_valid_cells;
int i, j, k;
Vec_StrPutI( vOut, ABC_SCL_CUR_VERSION );
// Write non-composite fields:
Vec_StrPutS( vOut, p->pName );
Vec_StrPutS( vOut, p->default_wire_load );
Vec_StrPutS( vOut, p->default_wire_load_sel );
Vec_StrPutF( vOut, p->default_max_out_slew );
assert( p->unit_time >= 0 );
assert( p->unit_cap_snd >= 0 );
Vec_StrPutI( vOut, p->unit_time );
Vec_StrPutF( vOut, p->unit_cap_fst );
Vec_StrPutI( vOut, p->unit_cap_snd );
// Write 'wire_load' vector:
Vec_StrPutI( vOut, Vec_PtrSize(p->vWireLoads) );
SC_LibForEachWireLoad( p, pWL, i )
{
Vec_StrPutS( vOut, pWL->pName );
Vec_StrPutF( vOut, pWL->res );
Vec_StrPutF( vOut, pWL->cap );
Vec_StrPutI( vOut, Vec_IntSize(pWL->vFanout) );
for ( j = 0; j < Vec_IntSize(pWL->vFanout); j++ )
{
Vec_StrPutI( vOut, Vec_IntEntry(pWL->vFanout, j) );
Vec_StrPutF( vOut, Vec_FltEntry(pWL->vLen, j) );
}
}
// Write 'wire_load_sel' vector:
Vec_StrPutI( vOut, Vec_PtrSize(p->vWireLoadSels) );
SC_LibForEachWireLoadSel( p, pWLS, i )
{
Vec_StrPutS( vOut, pWLS->pName );
Vec_StrPutI( vOut, Vec_FltSize(pWLS->vAreaFrom) );
for ( j = 0; j < Vec_FltSize(pWLS->vAreaFrom); j++)
{
Vec_StrPutF( vOut, Vec_FltEntry(pWLS->vAreaFrom, j) );
Vec_StrPutF( vOut, Vec_FltEntry(pWLS->vAreaTo, j) );
Vec_StrPutS( vOut, (char *)Vec_PtrEntry(pWLS->vWireLoadModel, j) );
}
}
// Write 'cells' vector:
n_valid_cells = 0;
SC_LibForEachCell( p, pCell, i )
if ( !(pCell->seq || pCell->unsupp) )
n_valid_cells++;
Vec_StrPutI( vOut, n_valid_cells );
SC_LibForEachCell( p, pCell, i )
{
if ( pCell->seq || pCell->unsupp )
continue;
Vec_StrPutS( vOut, pCell->pName );
Vec_StrPutF( vOut, pCell->area );
Vec_StrPutI( vOut, pCell->drive_strength );
// Write 'pins': (sorted at this point; first inputs, then outputs)
Vec_StrPutI( vOut, pCell->n_inputs);
Vec_StrPutI( vOut, pCell->n_outputs);
SC_CellForEachPinIn( pCell, pPin, j )
{
assert(pPin->dir == sc_dir_Input);
Vec_StrPutS( vOut, pPin->pName );
Vec_StrPutF( vOut, pPin->rise_cap );
Vec_StrPutF( vOut, pPin->fall_cap );
}
SC_CellForEachPinOut( pCell, pPin, j )
{
SC_Timings * pRTime;
word uWord;
assert(pPin->dir == sc_dir_Output);
Vec_StrPutS( vOut, pPin->pName );
Vec_StrPutF( vOut, pPin->max_out_cap );
Vec_StrPutF( vOut, pPin->max_out_slew );
Vec_StrPutI( vOut, pCell->n_inputs );
// write function
Vec_StrPutS( vOut, pPin->func_text ? pPin->func_text : (char *)"" );
// write truth table
assert( Vec_WrdSize(pPin->vFunc) == Abc_Truth6WordNum(pCell->n_inputs) );
Vec_WrdForEachEntry( pPin->vFunc, uWord, k ) // -- 'size = 1u << (n_vars - 6)'
Vec_StrPutW( vOut, uWord ); // -- 64-bit number, written uncompressed (low-byte first)
// Write 'rtiming': (pin-to-pin timing tables for this particular output)
assert( Vec_PtrSize(pPin->vRTimings) == pCell->n_inputs );
SC_PinForEachRTiming( pPin, pRTime, k )
{
Vec_StrPutS( vOut, pRTime->pName );
Vec_StrPutI( vOut, Vec_PtrSize(pRTime->vTimings) );
// -- NOTE! After post-processing, the size of the 'rtiming[k]' vector is either
// 0 or 1 (in static timing, we have merged all tables to get the worst case).
// The case with size 0 should only occur for multi-output gates.
if ( Vec_PtrSize(pRTime->vTimings) == 1 )
{
SC_Timing * pTime = (SC_Timing *)Vec_PtrEntry( pRTime->vTimings, 0 );
// -- NOTE! We don't need to save 'related_pin' string because we have sorted
// the elements on input pins.
Vec_StrPutI( vOut, (int)pTime->tsense);
Abc_SclWriteSurface( vOut, pTime->pCellRise );
Abc_SclWriteSurface( vOut, pTime->pCellFall );
Abc_SclWriteSurface( vOut, pTime->pRiseTrans );
Abc_SclWriteSurface( vOut, pTime->pFallTrans );
}
else
assert( Vec_PtrSize(pRTime->vTimings) == 0 );
}
}
}
}
void Abc_SclWriteScl( char * pFileName, SC_Lib * p )
{
Vec_Str_t * vOut;
vOut = Vec_StrAlloc( 10000 );
Abc_SclWriteLibrary( vOut, p );
if ( Vec_StrSize(vOut) > 0 )
{
FILE * pFile = fopen( pFileName, "wb" );
if ( pFile == NULL )
printf( "Cannot open file \"%s\" for writing.\n", pFileName );
else
{
fwrite( Vec_StrArray(vOut), 1, Vec_StrSize(vOut), pFile );
fclose( pFile );
}
}
Vec_StrFree( vOut );
}
/**Function*************************************************************
Synopsis [Writing library into text file.]
Description []
SideEffects []
SeeAlso []
***********************************************************************/
static void Abc_SclWriteSurfaceText( FILE * s, SC_Surface * p )
{
Vec_Flt_t * vVec;
float Entry;
int i, k;
fprintf( s, " index_1(\"" );
Vec_FltForEachEntry( p->vIndex0, Entry, i )
fprintf( s, "%f%s", Entry, i == Vec_FltSize(p->vIndex0)-1 ? "":", " );
fprintf( s, "\");\n" );
fprintf( s, " index_2(\"" );
Vec_FltForEachEntry( p->vIndex1, Entry, i )
fprintf( s, "%f%s", Entry, i == Vec_FltSize(p->vIndex1)-1 ? "":", " );
fprintf( s, "\");\n" );
fprintf( s, " values (\"" );
Vec_PtrForEachEntry( Vec_Flt_t *, p->vData, vVec, i )
{
Vec_FltForEachEntry( vVec, Entry, k )
fprintf( s, "%f%s", Entry, i == Vec_PtrSize(p->vData)-1 && k == Vec_FltSize(vVec)-1 ? "\");":", " );
if ( i == Vec_PtrSize(p->vData)-1 )
fprintf( s, "\n" );
else
{
fprintf( s, "\\\n" );
fprintf( s, " " );
}
}
/*
fprintf( s, " approximations: \n" );
fprintf( s, " " );
for ( i = 0; i < 3; i++ )
fprintf( s, "%f ", p->approx[0][i] );
fprintf( s, "\n" );
fprintf( s, " " );
for ( i = 0; i < 4; i++ )
fprintf( s, "%f ", p->approx[1][i] );
fprintf( s, "\n" );
fprintf( s, " " );
for ( i = 0; i < 6; i++ )
fprintf( s, "%f ", p->approx[2][i] );
fprintf( s, "\n" );
fprintf( s, " \n" );
*/
}
static void Abc_SclWriteLibraryText( FILE * s, SC_Lib * p )
{
SC_WireLoad * pWL;
SC_WireLoadSel * pWLS;
SC_Cell * pCell;
SC_Pin * pPin;
int n_valid_cells;
int i, j, k;
fprintf( s, "/* This Liberty file was generated by ABC on %s */\n", Extra_TimeStamp() );
fprintf( s, "/* The original unabridged library came from file \"%s\".*/\n\n", p->pFileName );
// fprintf( s, "%d", ABC_SCL_CUR_VERSION );
fprintf( s, "library(%s) {\n\n", p->pName );
if ( p->default_wire_load && strlen(p->default_wire_load) )
fprintf( s, " default_wire_load : \"%s\";\n", p->default_wire_load );
if ( p->default_wire_load_sel && strlen(p->default_wire_load_sel) )
fprintf( s, " default_wire_load_selection : \"%s\";\n", p->default_wire_load_sel );
if ( p->default_max_out_slew != -1 )
fprintf( s, " default_max_transition : %f;\n", p->default_max_out_slew );
if ( p->unit_time == 9 )
fprintf( s, " time_unit : \"1ns\";\n" );
else if ( p->unit_time == 10 )
fprintf( s, " time_unit : \"100ps\";\n" );
else if ( p->unit_time == 11 )
fprintf( s, " time_unit : \"10ps\";\n" );
else if ( p->unit_time == 12 )
fprintf( s, " time_unit : \"1ps\";\n" );
else assert( 0 );
fprintf( s, " capacitive_load_unit(%.1f,%s);\n", p->unit_cap_fst, p->unit_cap_snd == 12 ? "pf" : "ff" );
fprintf( s, "\n" );
// Write 'wire_load' vector:
SC_LibForEachWireLoad( p, pWL, i )
{
fprintf( s, " wire_load(\"%s\") {\n", pWL->pName );
fprintf( s, " resistance : %f;\n", pWL->res );
fprintf( s, " capacitance : %f;\n", pWL->cap );
for ( j = 0; j < Vec_IntSize(pWL->vFanout); j++ )
fprintf( s, " fanout_length( %d, %f );\n", Vec_IntEntry(pWL->vFanout, j), Vec_FltEntry(pWL->vLen, j) );
fprintf( s, " }\n\n" );
}
// Write 'wire_load_sel' vector:
SC_LibForEachWireLoadSel( p, pWLS, i )
{
fprintf( s, " wire_load_selection(\"%s\") {\n", pWLS->pName );
for ( j = 0; j < Vec_FltSize(pWLS->vAreaFrom); j++)
fprintf( s, " wire_load_from_area( %f, %f, %s );\n",
Vec_FltEntry(pWLS->vAreaFrom, j),
Vec_FltEntry(pWLS->vAreaTo, j),
(char *)Vec_PtrEntry(pWLS->vWireLoadModel, j) );
fprintf( s, " }\n\n" );
}
// Write 'cells' vector:
n_valid_cells = 0;
SC_LibForEachCell( p, pCell, i )
if ( !(pCell->seq || pCell->unsupp) )
n_valid_cells++;
SC_LibForEachCell( p, pCell, i )
{
if ( pCell->seq || pCell->unsupp )
continue;
fprintf( s, "\n" );
fprintf( s, " cell(%s) {\n", pCell->pName );
fprintf( s, " /* n_inputs = %d n_outputs = %d */\n", pCell->n_inputs, pCell->n_outputs );
fprintf( s, " area : %f;\n", pCell->area );
fprintf( s, " drive_strength : %d;\n", pCell->drive_strength );
SC_CellForEachPinIn( pCell, pPin, j )
{
assert(pPin->dir == sc_dir_Input);
fprintf( s, " pin(%s) {\n", pPin->pName );
fprintf( s, " direction : %s;\n", "input" );
fprintf( s, " fall_capacitance : %f;\n", pPin->fall_cap );
fprintf( s, " rise_capacitance : %f;\n", pPin->rise_cap );
fprintf( s, " }\n" );
}
SC_CellForEachPinOut( pCell, pPin, j )
{
SC_Timings * pRTime;
// word uWord;
assert(pPin->dir == sc_dir_Output);
fprintf( s, " pin(%s) {\n", pPin->pName );
fprintf( s, " direction : %s;\n", "output" );
fprintf( s, " max_capacitance : %f;\n", pPin->max_out_cap );
fprintf( s, " max_transition : %f;\n", pPin->max_out_slew );
fprintf( s, " function : \"%s\";\n", pPin->func_text ? pPin->func_text : "?" );
fprintf( s, " /* truth table = " );
Extra_PrintHex( s, (unsigned *)Vec_WrdArray(pPin->vFunc), pCell->n_inputs );
fprintf( s, " */\n" );
// Write 'rtiming': (pin-to-pin timing tables for this particular output)
assert( Vec_PtrSize(pPin->vRTimings) == pCell->n_inputs );
SC_PinForEachRTiming( pPin, pRTime, k )
{
if ( Vec_PtrSize(pRTime->vTimings) == 1 )
{
SC_Timing * pTime = (SC_Timing *)Vec_PtrEntry( pRTime->vTimings, 0 );
fprintf( s, " timing() {\n" );
fprintf( s, " related_pin : \"%s\"\n", pRTime->pName );
if ( pTime->tsense == sc_ts_Pos )
fprintf( s, " timing_sense : positive_unate;\n" );
else if ( pTime->tsense == sc_ts_Neg )
fprintf( s, " timing_sense : negative_unate;\n" );
else if ( pTime->tsense == sc_ts_Non )
fprintf( s, " timing_sense : non_unate;\n" );
else assert( 0 );
fprintf( s, " cell_rise() {\n" );
Abc_SclWriteSurfaceText( s, pTime->pCellRise );
fprintf( s, " }\n" );
fprintf( s, " cell_fall() {\n" );
Abc_SclWriteSurfaceText( s, pTime->pCellFall );
fprintf( s, " }\n" );
fprintf( s, " rise_transition() {\n" );
Abc_SclWriteSurfaceText( s, pTime->pRiseTrans );
fprintf( s, " }\n" );
fprintf( s, " fall_transition() {\n" );
Abc_SclWriteSurfaceText( s, pTime->pFallTrans );
fprintf( s, " }\n" );
fprintf( s, " }\n" );
}
else
assert( Vec_PtrSize(pRTime->vTimings) == 0 );
}
fprintf( s, " }\n" );
}
fprintf( s, " }\n" );
}
fprintf( s, "}\n\n" );
}
void Abc_SclWriteLiberty( char * pFileName, SC_Lib * p )
{
FILE * pFile = fopen( pFileName, "wb" );
if ( pFile == NULL )
printf( "Cannot open text file \"%s\" for writing.\n", pFileName );
else
{
Abc_SclWriteLibraryText( pFile, p );
fclose( pFile );
printf( "Dumped internal library into Liberty file \"%s\".\n", pFileName );
}
}
////////////////////////////////////////////////////////////////////////
/// END OF FILE ///
////////////////////////////////////////////////////////////////////////
ABC_NAMESPACE_IMPL_END