void PowerModel::dumpDeviceTypes()
/* dumpDeviceTypes {{{1 */
{
// elnaz, dump device types as specified in .xml file of mcpat
if (dumppwth) {
char *fname_devTypes = static_cast<char *>(malloc(1023));
sprintf(fname_devTypes, "deviceTypes_%s", Report::getNameID());
logDeviceTypes = fopen(fname_devTypes, "w");
GMSG(logDeviceTypes == 0, "ERROR: could not open logDeviceTypes file \"%s\" (ignoring it)", fname_devTypes);
free(fname_devTypes);
for (size_t ii = 0; ii < energyBundle->cntrs.size(); ii++) {
fprintf(logDeviceTypes, "%s\t", energyBundle->cntrs[ii].getName());
}
fprintf(logDeviceTypes, "\n");
for (size_t i = 0; i < energyBundle->cntrs.size(); i++) {
fprintf(logDeviceTypes, "%i\t", energyBundle->cntrs[i].getDevType());
}
fprintf(logDeviceTypes, "\n");
if (logDeviceTypes) {
fclose(logDeviceTypes);
logDeviceTypes = NULL;
}
}
}
GFlow::GFlow(int32_t i, int32_t cId, GMemorySystem *gmem)
: fid(i),
cpuId(cId),
gms(gmem),
gmos(gmem->getMemoryOS())
{
//gproc = osSim->id2GProcessor(cpuId);
if (trainCache == 0) {
if (SescConf->checkCharPtr("cpucore","trainCache", cId)) {
const char *cpuSection = SescConf->getCharPtr("", "cpucore", cId);
std::vector<char *> vPars = SescConf->getSplitCharPtr(cpuSection, "trainCache");
if (vPars.size() != 2) {
MSG("Required format: trainCache = \"descriptionSection name\"\n");
return;
}
const char *cacheSection = vPars[0];
const char *cacheName = vPars[1];
trainCache = gms->searchMemoryObj(true, cacheSection, cacheName);
if(trainCache == 0) {
// Maybe it got privatized
char *ret=(char*)malloc(strlen(cacheName) + 20);
sprintf(ret,"P(%i)_%s", cId, cacheName);
trainCache = gms->searchMemoryObj(false, cacheSection, ret);
}
GMSG(trainCache==0,"Unknown cache to train [%s:%s]",cacheName, cacheSection);
}
}
}
void SMPSystemBus::access(MemRequest *mreq)
{
GMSG(mreq->getPAddr() < 1024,
"mreq dinst=0x%p paddr=0x%x vaddr=0x%x memOp=%d",
mreq->getDInst(),
(unsigned int) mreq->getPAddr(),
(unsigned int) mreq->getVaddr(),
mreq->getMemOperation());
I(mreq->getPAddr() > 1024);
#ifdef SESC_ENERGY
busEnergy->inc();
#endif
switch(mreq->getMemOperation()){
case MemRead: read(mreq); break;
case MemReadW:
case MemWrite: write(mreq); break;
case MemPush: push(mreq); break;
default: specialOp(mreq); break;
}
// for reqs coming from upper level:
// MemRead means I need to read the data, but I don't have it
// MemReadW means I need to write the data, but I don't have it
// MemWrite means I need to write the data, but I don't have permission
// MemPush means I don't have space to keep the data, send it to memory
}
void SMPCache::access(MemRequest *mreq)
{
PAddr addr;
IS(addr = mreq->getPAddr());
GMSG(mreq->getPAddr() < 1024,
"mreq dinst=0x%p paddr=0x%x vaddr=0x%x memOp=%d ignored",
mreq->getDInst(),
(unsigned int) mreq->getPAddr(),
(unsigned int) mreq->getVaddr(),
mreq->getMemOperation());
I(addr > 1024);
switch(mreq->getMemOperation()){
case MemRead: read(mreq); break;
case MemWrite: /*I(cache->findLine(mreq->getPAddr())); will be transformed
to MemReadW later */
case MemReadW: write(mreq); break;
case MemPush: I(0); break; // assumed write-through upperlevel
default: specialOp(mreq); break;
}
// for reqs coming from upper level:
// MemRead means "I want to read"
// MemReadW means "I want to write, and I missed"
// MemWrite means "I want to write, and I hit"
// MemPush means "I am writing data back"
// (this will never happen if upper level is write-through cache,
// which is what we are assuming)
}
void PowerModel::dumpLeakage()
/* dumpLeakage {{{1 */
{
// eka, For each interval, cal this function if you want
// have the power dumped into a different file
// elnaz, separated dump leakage from dynamic power
if (dumppwth) {
char *fname_pwr_lkg = static_cast<char *>(malloc(1023));
sprintf(fname_pwr_lkg, "power_lkg_%s", Report::getNameID());
logpwrlkg = fopen(fname_pwr_lkg, "w");
GMSG(logpwrlkg == 0, "ERROR: could not open logpwrlkg file \"%s\" (ignoring it)", fname_pwr_lkg);
free(fname_pwr_lkg);
if (totalPowerSamples <= 2) { // also write the header
for (size_t ii = 0; ii < energyBundle->cntrs.size(); ii++) {
fprintf(logpwrlkg, "%s\t", energyBundle->cntrs[ii].getName());
}
fprintf(logpwrlkg, "\n");
}
for (size_t i = 0; i < energyBundle->cntrs.size(); i++) {
fprintf(logpwrlkg, "%e\t", energyBundle->cntrs[i].getLkg());
}
fprintf(logpwrlkg, "\n");
if (logpwrlkg) {
fclose(logpwrlkg);
logpwrlkg = NULL;
}
}
}
Resource::~Resource()
{
GMSG(!EventScheduler::empty(), "Resources destroyed with %Zu pending instructions"
,EventScheduler::size());
if(gen)
gen->unsubscribe();
}
void PowerModel::plug(const char* section)
/* plug {{{1 */
{
I(sescThermWrapper);
I(pwrCntrRepo);
I(ipcRepo);
I(temperatures);
I(mcpatWrapper);
I(energyBundle);
#ifdef ENABLE_PEQ
PeqParser peq_parser;
// peq_parser.getGeneralParams();
// peq_parser.getCoreParams();
// peq_parser.getMemParams();
// peq_parser.testParser();
SRAM my_sram;
my_sram.testSRAM();
#endif
avgTimingIPC = 1;
powerGlue.plug(section, energyBundle);
logfile = 0;
if (SescConf->checkCharPtr(section, "logfile")) {
filename = SescConf->getCharPtr(section, "logfile");
logfile = fopen(filename, "w");
GMSG(logfile == 0, "ERROR: could not open logfile \"%s\" (ignoring it)", filename);
}
powerGlue.createStatCounters();
//checkStatCounters(section);
//Parse conf file to get stats information
//Format in conf file is: stats[i] = pwrstat +gstat1 -gstat2 ...
readStatsFromConfFile(section);
genIndeces();
readPowerConfig(section);
initPowerModel(section);
readTempConfig(section);
initTempModel(section);
//plugStackingValidator();
//Initialize logfile
if (logfile == NULL) return;
avgPowerValid = false;
fprintf(logfile, "#IPC\t");
for (size_t i = 0; i < stats->size(); i++) {
fprintf(logfile, "%s\t", stats->at(i)->getName());
}
fprintf(logfile, "Total access all\n");
}
exportTemplate template < class Data, class Time > TQueue < Data, Time >
::~TQueue()
{
GMSG(nNodes, "Destroying TQueue %d with pending nodes", nNodes);
free(accessTail);
free(access);
}
void ThermTrace::initLoglkg(const char* tfilename){
FILE *tmploglkg;
char *lkgfname = (char *) alloca(256);
sprintf (lkgfname, "scaled_lkg_%s", tfilename);
tmploglkg = fopen(lkgfname,"w");
GMSG(tmploglkg==0,"ERROR: could not open loglkg file \"%s\" (ignoring it)",lkgfname);
}
void PowerModel::getPowerDumpFile()
/* getPowerDumpFile {{{1 */
{
dumppwthSplit = true;
totalPowerSamples = 0;
nPowerCall++;
if (dumppwth && dumppwthSplit) {
char *fname_prf = static_cast<char *>(malloc(1023));
char *fname_pwr_dyn = static_cast<char *>(malloc(1023));
sprintf(fname_prf, "perf_%d_%s", nPowerCall, Report::getNameID());
sprintf(fname_pwr_dyn, "power_dyn_%d_%s", nPowerCall, Report::getNameID());
logprf = fopen(fname_prf, "w");
logpwrdyn = fopen(fname_pwr_dyn, "w");
GMSG(logprf == 0, "ERROR: could not open logprf file \"%s\" (ignoring it)", fname_prf);
GMSG(logpwrdyn == 0, "ERROR: could not open logpwrdyn file \"%s\" (ignoring it)", fname_pwr_dyn);
free(fname_pwr_dyn);
free(fname_prf);
}
}
FILE *SamplerBase::genReportFileNameAndOpen(const char *str) {
FILE *fp;
char *fname = (char *) alloca(1023);
strcpy(fname, str);
strcat(fname, Report::getNameID());
fp = fopen(fname,"w");
if(fp==0) {
GMSG(fp==0,"ERROR: could not open file \"%s\"",fname);
exit(-1);
}
return fp;
}
void EmuSampler::beginTiming(EmuMode mod)
/* Start sampling a new mode */
{
//I(stopJustCalled);
stopJustCalled = false;
phasenInst = 0;
mode = mod;
clock_gettime(CLOCK_REALTIME,&startTime);
const char *mode2name[] = { "Init","Rabbit","Warmup","Detail","Timing","InvalidValue"};
GMSG(mode!=mod,"Sampler %s: starting %s mode", name, mode2name[mod]);
}
void ThermTrace::initDumpLeakage(){
if (dumppwth){
char *fname_lkg = (char *) malloc(1023);
sprintf(fname_lkg, "sesctherm_scaled_lkg_%s",Report::getNameID());
loglkg = fopen(fname_lkg,"w");
GMSG(loglkg==0,"ERROR: could not open loglkg file \"%s\" (ignoring it)",fname_lkg);
if (loglkg) {
for (size_t ii = 0; ii < energyBundle->cntrs.size(); ii++) {
fprintf(loglkg, "%s\t", energyBundle->cntrs[ii].getName());
}
fprintf(loglkg, "\n");
}
}
return;
}
void PowerModel::plugStackingValidator() {
// read the solution
if (SescConf->checkCharPtr("", "stackingSol")) {
const char * solution = SescConf->getCharPtr("", "stackingSol");
uint32_t ii = 0;
// mark each solution in the Bundle
while (solution[ii] != '\0') {
energyBundle->cntrs[ii].setSPart(solution[ii]);
ii++;
}
I(ii == energyBundle->cntrs.size());
}
char *fname_dpower = static_cast<char *>(malloc(1023));
sprintf(fname_dpower, "dpower_%s", Report::getNameID());
dpowerf = fopen(fname_dpower, "w");
GMSG(dpowerf == 0, "ERROR: could not open dpower file \"%s\".", fname_dpower);
free(fname_dpower);
}
MemObj *GMemorySystem::finishDeclareMemoryObj(std::vector<char *> vPars, char* name_suffix) {
bool shared = false; // Private by default
bool privatized = false;
const char *device_descr_section = vPars[0];
char *device_name = (vPars.size() > 1) ? vPars[1] : 0;
if (vPars.size() > 2) {
if (strcasecmp(vPars[2], "shared") == 0) {
I(vPars.size() == 3);
shared = true;
} else if (strcasecmp(vPars[2], "sharedBy") == 0) {
I(vPars.size() == 4);
int32_t sharedBy = atoi(vPars[3]);
//delete[] vPars[3];
GMSG(sharedBy <= 0, "ERROR: SharedBy should be bigger than zero (field %s)", device_name);
int32_t nId = coreId / sharedBy;
device_name = privatizeDeviceName(device_name, nId);
shared = true;
privatized = true;
}
} else if (device_name) {
if (strcasecmp(device_name, "shared") == 0) {
//delete[] device_name;
//device_name = 0;
shared = true;
}
}
SescConf->isCharPtr(device_descr_section, "deviceType");
const char *device_type = SescConf->getCharPtr(device_descr_section, "deviceType");
/* If the device has been given a name, we may be refering to an
* already existing device in the system, so let's search
* it. Anonymous devices (no name given) are always unique, and only
* one reference to them may exist in the system.
*/
if (device_name) {
if (!privatized) {
if (shared)
device_name = privatizeDeviceName(device_name, 0);
else {
device_name = privatizeDeviceName(device_name, coreId);
}
}
//device_name = privatizeDeviceName(device_name, priv_counter++);
char *final_dev_name = device_name;
if (name_suffix != NULL){
final_dev_name =new char[strlen(device_name) + strlen(name_suffix)+8];
sprintf(final_dev_name,"%s%s",device_name,name_suffix);
}
device_name = final_dev_name;
MemObj *memdev = searchMemoryObj(shared, device_descr_section, device_name);
if (memdev) {
//delete[] device_name;
//delete[] device_descr_section;
return memdev;
}
} else
device_name = buildUniqueName(device_type);
MemObj *newMem = buildMemoryObj(device_type,
device_descr_section,
device_name);
if (newMem) // Would be 0 in known-error mode
getMemoryObjContainer(shared)->addMemoryObj(device_name, newMem);
return newMem;
}
PortGeneric::~PortGeneric()
{
GMSG(nUsers != 0, "Not enough destroys for FUGenUnit");
}
DInst::DInst()
:doAtSimTimeCB(this)
,doAtSelectCB(this)
,doAtExecutedCB(this)
{
pend[0].init(this);
pend[1].init(this);
I(MAX_PENDING_SOURCES==2);
nDeps = 0;
#ifdef DINST_TRACK_PHYS
static ushort max_preg = 1;
preg = max_preg++;
GMSG(max_preg>10240,"WARNING: Too many physical register created [%d]",max_preg);
#endif
#ifdef SESC_BAAD
if (avgFetch1QTime == 0) {
int32_t maxType = static_cast<int>(MaxInstType);
avgFetch1QTime = (GStatsHist **)malloc(sizeof(GStatsHist *)*maxType);
avgFetch2QTime = (GStatsHist **)malloc(sizeof(GStatsHist *)*maxType);
avgIssueQTime = (GStatsHist **)malloc(sizeof(GStatsHist *)*maxType);
avgSchedQTime = (GStatsHist **)malloc(sizeof(GStatsHist *)*maxType);
avgExeQTime = (GStatsHist **)malloc(sizeof(GStatsHist *)*maxType);
avgRetireQTime = (GStatsHist **)malloc(sizeof(GStatsHist *)*maxType);
for(int32_t i = 1; i < maxType ; i++) {
avgFetch1QTime[i] = new GStatsHist("BAAD_%sFetch1QTime",Instruction::opcode2Name(static_cast<InstType>(i)));
avgFetch2QTime[i] = new GStatsHist("BAAD_%sFetch2QTime",Instruction::opcode2Name(static_cast<InstType>(i)));
avgIssueQTime[i] = new GStatsHist("BAAD_%sDepQTime" ,Instruction::opcode2Name(static_cast<InstType>(i)));
avgSchedQTime[i] = new GStatsHist("BAAD_%sSchQTime" ,Instruction::opcode2Name(static_cast<InstType>(i)));
avgExeQTime[i] = new GStatsHist("BAAD_%sExeQTime" ,Instruction::opcode2Name(static_cast<InstType>(i)));
avgRetireQTime[i] = new GStatsHist("BAAD_%sComRetQTime",Instruction::opcode2Name(static_cast<InstType>(i)));
}
fetch1QHist1 = new GStatsTimingHist("BAAD_Fetch1QHist1");
fetch2QHist1 = new GStatsTimingHist("BAAD_Fetch2QHist1");
issueQHist1 = new GStatsTimingHist("BAAD_DepQHist1");
schedQHist1 = new GStatsTimingHist("BAAD_SchQHist1");
exeQHist1 = new GStatsTimingHist("BAAD_ExeQHist1");
retireQHist1 = new GStatsTimingHist("BAAD_ComRetQHist1");
fetch1QHist2 = new GStatsHist("BAAD_Fetch1QHist2");
fetch2QHist2 = new GStatsHist("BAAD_Fetch2QHist2");
issueQHist2 = new GStatsHist("BAAD_DepQHist2");
schedQHist2 = new GStatsHist("BAAD_SchQHist2");
exeQHist2 = new GStatsHist("BAAD_ExeQHist2");
retireQHist2 = new GStatsHist("BAAD_ComRetQHist2");
fetch1QHistUp = new GStatsHist("BAAD_Fetch1QHistUp");
fetch2QHistUp = new GStatsHist("BAAD_Fetch2QHistUp");
issueQHistUp = new GStatsHist("BAAD_DepQHistUp");
schedQHistUp = new GStatsHist("BAAD_SchQHistUp");
exeQHistUp = new GStatsHist("BAAD_ExeQHistUp");
retireQHistUp = new GStatsHist("BAAD_ComRetQHistUp");
fetch1QHistDown = new GStatsHist("BAAD_Fetch1QHistDown");
fetch2QHistDown = new GStatsHist("BAAD_Fetch2QHistDown");
issueQHistDown = new GStatsHist("BAAD_DepQHistDown");
schedQHistDown = new GStatsHist("BAAD_SchQHistDown");
exeQHistDown = new GStatsHist("BAAD_ExeQHistDown");
retireQHistDown = new GStatsHist("BAAD_ComRetQHistDown");
brdistHist1 = new GStatsHist("BAAD_BrDistHist1");
}
#endif
}
MarkovPrefetcher::MarkovPrefetcher(MemorySystem* current
,const char *section
,const char *name)
: MemObj(section, name)
,gms(current)
,halfMiss("%s:halfMiss", name)
,miss("%s:miss", name)
,hit("%s:hits", name)
,predictions("%s:predictions", name)
,accesses("%s:accesses", name)
{
MemObj *lower_level = NULL;
SescConf->isInt(section, "depth");
depth = SescConf->getInt(section, "depth");
SescConf->isInt(section, "width");
width = SescConf->getInt(section, "width");
const char *Section = SescConf->getCharPtr(section, "nextLevel");
if (Section) {
lineSize = SescConf->getInt(Section, "bsize");
}
const char *buffSection = SescConf->getCharPtr(section, "buffCache");
if (buffSection) {
buff = BuffType::create(buffSection, "", name);
SescConf->isInt(buffSection, "numPorts");
numBuffPorts = SescConf->getInt(buffSection, "numPorts");
SescConf->isInt(buffSection, "portOccp");
buffPortOccp = SescConf->getInt(buffSection, "portOccp");
}
const char *streamSection = SescConf->getCharPtr(section, "streamCache");
if (streamSection) {
char tableName[128];
sprintf(tableName, "%sPrefTable", name);
table = MarkovTable::create(streamSection, "", tableName);
GMSG(tEntrySize != SescConf->getInt(streamSection, "BSize"),
"The prefetch buffer streamBSize field in the configuration file should be %d.", tEntrySize);
SescConf->isInt(streamSection, "numPorts");
numTablePorts = SescConf->getInt(streamSection, "numPorts");
SescConf->isInt(streamSection, "portOccp");
tablePortOccp = SescConf->getInt(streamSection, "portOccp");
}
defaultMask = ~(buff->getLineSize()-1);
char portName[128];
sprintf(portName, "%s_buff", name);
buffPort = PortGeneric::create(portName, numBuffPorts, buffPortOccp);
sprintf(portName, "%s_table", name);
tablePort = PortGeneric::create(portName, numTablePorts, tablePortOccp);
ptr = 0;
lastAddr = 0;
I(current);
lower_level = current->declareMemoryObj(section, k_lowerLevel);
if (lower_level != NULL)
addLowerLevel(lower_level);
}
StridePrefetcher::StridePrefetcher(MemorySystem* current ,const char *section ,const char *name)
/* constructor {{{1 */
:MemObj(section, name)
,halfMiss("%s:halfMiss", name)
,miss("%s:miss", name)
,hit("%s:hits", name)
,predictions("%s:predictions", name)
,accesses("%s:accesses", name)
,unitStrideStreams("%s:unitStrideStreams", name)
,nonUnitStrideStreams("%s:nonUnitStrideStreams", name)
,ignoredStreams("%s:ignoredStreams", name)
{
MemObj *lower_level = NULL;
// If MemLatency is 200 and busOcc is 10, then there can be at most 20
// requests without saturating the bus. (VERIFY???) something like half sound
// conservative (10 pending requests)
MaxPendingRequests = 8; // FIXME: SescConf
SescConf->isInt(section, "depth");
depth = SescConf->getInt(section, "depth");
SescConf->isInt(section, "missWindow");
missWindow = SescConf->getInt(section, "missWindow");
SescConf->isInt(section, "maxStride");
maxStride = SescConf->getInt(section, "maxStride");
SescConf->isInt(section, "hitDelay");
hitDelay = SescConf->getInt(section, "hitDelay");
SescConf->isInt(section, "missDelay");
missDelay = SescConf->getInt(section, "missDelay");
SescConf->isInt(section, "learnHitDelay");
learnHitDelay = SescConf->getInt(section, "learnHitDelay");
SescConf->isInt(section, "learnMissDelay");
learnMissDelay = SescConf->getInt(section, "learnMissDelay");
I(depth > 0);
const char *buffSection = SescConf->getCharPtr(section, "buffCache");
if (buffSection) {
buff = BuffType::create(buffSection, "", name);
SescConf->isInt(buffSection, "bknumPorts");
numBuffPorts = SescConf->getInt(buffSection, "bknumPorts");
SescConf->isInt(buffSection, "bkportOccp");
buffPortOccp = SescConf->getInt(buffSection, "bkportOccp");
}
const char *streamSection = SescConf->getCharPtr(section, "streamCache");
if (streamSection) {
char tableName[128];
sprintf(tableName, "%sPrefTable", name);
table = PfTable::create(streamSection, "", tableName);
GMSG(pEntrySize != SescConf->getInt(streamSection, "BSize"),
"The prefetch buffer streamBSize field in the configuration file should be %d.", pEntrySize);
SescConf->isInt(streamSection, "bknumPorts");
numTablePorts = SescConf->getInt(streamSection, "bknumPorts");
SescConf->isInt(streamSection, "bkportOccp");
tablePortOccp = SescConf->getInt(streamSection, "bkportOccp");
}
char portName[128];
sprintf(portName, "%s_buff", name);
buffPort = PortGeneric::create(portName, numBuffPorts, buffPortOccp);
sprintf(portName, "%s_table", name);
tablePort = PortGeneric::create(portName, numTablePorts, tablePortOccp);
defaultMask = ~(buff->getLineSize()-1);
I(current);
lower_level = current->declareMemoryObj(section, "lowerLevel");
if (lower_level != NULL)
addLowerLevel(lower_level);
//Is this the memory
isMemoryBus = false;
}
StridePrefetcher::StridePrefetcher(MemorySystem* current
,const char *section
,const char *name)
: MemObj(section, name)
,halfMiss("%s:halfMiss", name)
,miss("%s:miss", name)
,hit("%s:hits", name)
,predictions("%s:predictions", name)
,accesses("%s:accesses", name)
,unitStrideStreams("%s:unitStrideStreams", name)
,nonUnitStrideStreams("%s:nonUnitStrideStreams", name)
,ignoredStreams("%s:ignoredStreams", name)
{
MemObj *lower_level = NULL;
SescConf->isInt(section, "depth");
depth = SescConf->getInt(section, "depth");
SescConf->isInt(section, "missWindow");
missWindow = SescConf->getInt(section, "missWindow");
SescConf->isInt(section, "maxStride");
maxStride = SescConf->getInt(section, "maxStride");
SescConf->isInt(section, "hitDelay");
hitDelay = SescConf->getInt(section, "hitDelay");
SescConf->isInt(section, "missDelay");
missDelay = SescConf->getInt(section, "missDelay");
SescConf->isInt(section, "learnHitDelay");
learnHitDelay = SescConf->getInt(section, "learnHitDelay");
SescConf->isInt(section, "learnMissDelay");
learnMissDelay = SescConf->getInt(section, "learnMissDelay");
I(depth > 0);
const char *buffSection = SescConf->getCharPtr(section, "buffCache");
if (buffSection) {
buff = BuffType::create(buffSection, "", name);
SescConf->isInt(buffSection, "numPorts");
numBuffPorts = SescConf->getInt(buffSection, "numPorts");
SescConf->isInt(buffSection, "portOccp");
buffPortOccp = SescConf->getInt(buffSection, "portOccp");
}
const char *streamSection = SescConf->getCharPtr(section, "streamCache");
if (streamSection) {
char tableName[128];
sprintf(tableName, "%sPrefTable", name);
table = PfTable::create(streamSection, "", tableName);
GMSG(pEntrySize != SescConf->getInt(streamSection, "BSize"),
"The prefetch buffer streamBSize field in the configuration file should be %d.", pEntrySize);
SescConf->isInt(streamSection, "numPorts");
numTablePorts = SescConf->getInt(streamSection, "numPorts");
SescConf->isInt(streamSection, "portOccp");
tablePortOccp = SescConf->getInt(streamSection, "portOccp");
}
char portName[128];
sprintf(portName, "%s_buff", name);
buffPort = PortGeneric::create(portName, numBuffPorts, buffPortOccp);
sprintf(portName, "%s_table", name);
tablePort = PortGeneric::create(portName, numTablePorts, tablePortOccp);
defaultMask = ~(buff->getLineSize()-1);
I(current);
lower_level = current->declareMemoryObj(section, k_lowerLevel);
if (lower_level != NULL)
addLowerLevel(lower_level);
}
