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#include <ESElectronicsSim.h>
Public Types | |
| enum | { MAXADC = 4095 } |
| enum | { MINADC = 0 } |
Public Member Functions | |
| virtual void | analogToDigital (const CaloSamples &cs, ESDataFrame &df) const |
| virtual void | digitalToAnalog (const ESDataFrame &df, CaloSamples &cs) const |
| ESElectronicsSim (bool addNoise) | |
| void | newEvent () |
| anything that needs to be done once per event | |
| void | setGain (const int gain) |
| void | setMIPs (const ESIntercalibConstants *mips) |
| void | setMIPToGeV (const double MIPToGeV) |
| void | setPedestals (const ESPedestals *peds) |
Private Member Functions | |
| double | decode (const ESSample &sample, const DetId &detId) const |
| std::vector< ESSample > | encode (const CaloSamples &timeframe) const |
Private Attributes | |
| bool | addNoise_ |
| int | gain_ |
| const ESIntercalibConstants * | mips_ |
| double | MIPToGeV_ |
| const ESPedestals * | peds_ |
Definition at line 12 of file ESElectronicsSim.h.
| anonymous enum |
| anonymous enum |
| ESElectronicsSim::ESElectronicsSim | ( | bool | addNoise | ) |
Definition at line 11 of file ESElectronicsSim.cc.
| void ESElectronicsSim::analogToDigital | ( | const CaloSamples & | cs, |
| ESDataFrame & | df | ||
| ) | const [virtual] |
Definition at line 20 of file ESElectronicsSim.cc.
References encode(), i, ESDataFrame::setSample(), ESDataFrame::setSize(), ESDataFrame::size(), and CaloSamples::size().
Definition at line 479 of file EcalDumpRaw.cc.
References EcalDumpRaw::adc_, EcalDumpRaw::amplCut_, EcalDumpRaw::bx_, dtNoiseDBValidation_cfg::cerr, colorNames, gather_cfg::cout, pyrootRender::da, dtTPAnalyzer_cfg::dataType, EcalDumpRaw::dccCh_, EcalDumpRaw::dccChStatus_, EcalDumpRaw::dccId_, detailedTrigNames, EcalDumpRaw::detailedTrigType_, EcalDumpRaw::dump_, EcalDumpRaw::dumpAdc_, EcalDumpRaw::ebmTcc_, EcalDumpRaw::ebpTcc_, EcalDumpRaw::eeInnerTcc_, EcalDumpRaw::eeOuterTcc_, EcalDumpRaw::feBx_, EcalDumpRaw::fedId_, EcalDumpRaw::fedStart_, EcalDumpRaw::feL1a_, EcalDumpRaw::feRuId_, lumiContext::fill, g, i, EcalDumpRaw::iRu_, EcalDumpRaw::iSrWord64_, EcalDumpRaw::iTcc_, EcalDumpRaw::iTccWord64_, EcalDumpRaw::iTowerWord64_, EcalDumpRaw::l1a_, EcalDumpRaw::lastOrbit_, EcalDumpRaw::max(), max(), EcalDumpRaw::maxTccsPerDcc_, EcalDumpRaw::maxTpgsPerTcc_, mgpaGainFactors, EcalDumpRaw::min(), EcalDumpRaw::nDccs_, EcalDumpRaw::nRu_, EcalDumpRaw::nTpgs_, EcalDumpRaw::nTts_, EcalDumpRaw::orbit0_, EcalDumpRaw::orbit0Set_, EcalDumpRaw::orbit_, alignCSCRings::s, EcalDumpRaw::side_, EcalDumpRaw::sideOfRu(), EcalDumpRaw::simpleTrigType_, EcalDumpRaw::srpBx_, EcalDumpRaw::srpL1a_, EcalDumpRaw::srRange(), EcalDumpRaw::tccBlockLen64_, EcalDumpRaw::tccId_, EcalDumpRaw::tccL1a_, EcalDumpRaw::tccType_, EcalDumpRaw::towerBlockLength_, EcalDumpRaw::tpg_, EcalDumpRaw::tpgTag(), trigNames, EcalDumpRaw::ttfTag(), and ttsNames.
Referenced by digitalToAnalog().
{
bool rc = true;
const bool d = dump_;
if(iWord64==0){//start of event
iSrWord64_ = 0;
iTccWord64_ = 0;
iTowerWord64_ = 0;
}
int dataType = (data[1] >>28) & 0xF;
const int boe = 5;
const int eoe = 10;
if(dataType==boe){//Begin of Event header
/**********************************************************************
* DAQ header
*
**********************************************************************/
simpleTrigType_ = (data[1] >>24) & 0xF;
l1a_ = (data[1]>>0 ) & 0xFFffFF;
bx_ = (data[0] >>20) & 0xFFF;
fedId_ = (data[0] >>8 ) & 0xFFF;
if(d) out << "Trigger type: " << simpleTrigType_
<< "(" << trigNames[(data[1]>>24) & 0xF] << ")"
<< " L1A: " << l1a_
<< " BX: " << bx_
<< " FED ID: " << fedId_
<< " FOV: " << ((data[0] >>4 ) & 0xF)
<< " H: " << ((data[0] >>3 ) & 0x1);
} else if((dataType>>2)==0){//DCC header
/**********************************************************************
* ECAL DCC header
*
**********************************************************************/
int dccHeaderId = (data[1] >>24) & 0x3F;
switch(dccHeaderId){
case 1:
if(d) out << "Run #: " << ((data[1] >>0 ) & 0xFFFFFF)
<< " DCC Err: " << ((data[0] >>24) & 0xFF)
<< " Evt Len: " << ((data[0] >>0 ) & 0xFFFFFF);
break;
case 2:
side_ = (data[1] >>11) & 0x1;
detailedTrigType_ = (data[1] >>8 ) & 0x7;
dccId_ = (data[1] >>0 ) & 0x3F;
if(d) out << "DCC FOV: " << ((data[1] >>16) & 0xF)
<< " Side: " << side_
<< " Trig.: " << detailedTrigType_
<< " (" << detailedTrigNames[(data[1]>>8)&0x7] << ")"
<< " Color: " << ((data[1] >>6 ) & 0x3)
<< " (" << colorNames[(data[1]>>6)&0x3] << ")"
<< " DCC ID: " << dccId_;
break;
case 3:
{
if(d) out << "TCC Status ch<4..1>: 0x"
<< hex << ((data[1]>>8) & 0xFFFF) << dec
<< " SR status: " << ((data[1] >>4 ) & 0xF)
<< " TZS: " << ((data[1] >>2 ) & 0x1)
<< " ZS: " << ((data[1] >>1 ) & 0x1)
<< " SR: " << ((data[1] >>0 ) & 0x1);
orbit_ = data[0];
if(d) out << " Orbit: " << orbit_;
if(!orbit0Set_){
orbit0_ = orbit_;
orbit0Set_ = true;
}
int iDcc0 = fedId_-fedStart_;
if((unsigned)iDcc0<nDccs_){
if(lastOrbit_[iDcc0]!=numeric_limits<uint32_t>::max()){
if(d) out << " (+" << (int)orbit_-(int)lastOrbit_[iDcc0] <<")";
}
lastOrbit_[iDcc0] = orbit_;
}
}
break;
case 4:
case 5:
case 6:
case 7:
case 8:
{
int chOffset = (dccHeaderId-4)*14;
dccChStatus_[13+chOffset] = ((data[1] >>20) & 0xF);
dccChStatus_[12+chOffset] = ((data[1] >>16) & 0xF);
dccChStatus_[11+chOffset] = ((data[1] >>12) & 0xF);
dccChStatus_[10+chOffset] = ((data[1] >>8 ) & 0xF);
dccChStatus_[ 9+chOffset] = ((data[1] >>4 ) & 0xF);
dccChStatus_[ 8+chOffset] = ((data[1] >>0) & 0xF);
dccChStatus_[ 7+chOffset] = ((data[0] >>28) & 0xF);
dccChStatus_[ 6+chOffset] = ((data[0] >>24) & 0xF);
dccChStatus_[ 5+chOffset] = ((data[0] >>20) & 0xF);
dccChStatus_[ 4+chOffset] = ((data[0] >>16) & 0xF);
dccChStatus_[ 3+chOffset] = ((data[0] >>12) & 0xF);
dccChStatus_[ 2+chOffset] = ((data[0] >>8 ) & 0xF);
dccChStatus_[ 1+chOffset] = ((data[0] >>4 ) & 0xF);
dccChStatus_[ 0+chOffset] = ((data[0] >>0 ) & 0xF);
if(d){
out << "FE CH status:";
for(int i = chOffset; i < chOffset + 14; ++i){
out << " #" << (i+1) << ":" << dccChStatus_[i];
}
}
}
break;
default:
if(d) out << " bits<63..62>=0 (DCC header) bits<61..56>=" << dccHeaderId
<< "(unknown=>ERROR?)";
}
} else if((dataType>>1)==3){//TCC block
/**********************************************************************
* TCC block
*
**********************************************************************/
if(iTccWord64_==0){
//header
tccL1a_ = (data[1] >>0 ) & 0xFFF;
tccId_ = ((data[0] >>0 ) & 0xFF);
nTts_ = ((data[1] >>16) & 0x7F);
if(iTcc_ < maxTccsPerDcc_) nTpgs_[iTcc_] = nTts_;
++iTcc_;
if(d) out << "LE1: " << ((data[1] >>28) & 0x1)
<< " LE0: " << ((data[1] >>27) & 0x1)
<< " N_samples: " << ((data[1] >>23) & 0x1F)
<< " N_TTs: " << nTts_
<< " E1: " << ((data[1] >>12) & 0x1)
<< " L1A: " << tccL1a_
<< " '3': " << ((data[0] >>29) & 0x7)
<< " E0: " << ((data[0] >>28) & 0x1)
<< " Bx: " << ((data[0] >>16) & 0xFFF)
<< " TTC ID: " << tccId_;
if(nTts_==68){ //EB TCC (TCC68)
if(fedId_ < 628) tccType_ = ebmTcc_;
else tccType_ = ebpTcc_;
} else if(nTts_ == 16){//Inner EE TCC (TCC48)
tccType_ = eeOuterTcc_;
} else if(nTts_ == 28){//Outer EE TCC (TCC48)
tccType_ = eeInnerTcc_;
} else {
cout << flush;
cerr << "Error in #TT field of TCC block."
"This field is normally used to determine type of TCC "
"(TCC48 or TCC68). Type of TCC will be deduced from the TCC ID.\n";
if(tccId_ < 19) tccType_ = eeInnerTcc_;
else if(tccId_ < 37) tccType_ = eeOuterTcc_;
else if(tccId_ < 55) tccType_ = ebmTcc_;
else if(tccId_ < 73) tccType_ = ebpTcc_;
else if(tccId_ < 91) tccType_ = eeOuterTcc_;
else if(tccId_ < 109) tccType_ = eeInnerTcc_;
else{
cerr << "TCC ID is also invalid. EB- TCC type will be assumed.\n";
tccType_ = ebmTcc_;
}
cerr << flush;
}
tccBlockLen64_ = (tccType_==ebmTcc_ || tccType_==ebpTcc_) ? 18 : 9;
} else{// if(iTccWord64_<18){
int tpgOffset = (iTccWord64_-1)*4;
if(iTcc_ > maxTccsPerDcc_){
out << "Too many TCC blocks";
} else if(tpgOffset > (maxTpgsPerTcc_ - 4)){
out << "Too many TPG in one TCC block";
} else{
tpg_[iTcc_-1][3+tpgOffset] = (data[1] >>16) & 0x1FF;
tpg_[iTcc_-1][2+tpgOffset] = (data[1] >>0 ) & 0x1FF;
tpg_[iTcc_-1][1+tpgOffset] = (data[0] >>16) & 0x1FF;
tpg_[iTcc_-1][0+tpgOffset] = (data[0] >>0 ) & 0x1FF;
//int n[2][4] = {{1,2,3,4},
// {4,3,2,1}};
//int iorder = (628<=fedId_ && fedId_<=645)?1:0;
if(d) out << ttfTag(tccType_, 3+tpgOffset) << ":" //"TTF# " << setw(2) << ttId_[3 + tpgOffset] << ":"
<< ((data[1] >>25) & 0x7) << " "
<< tpgTag(tccType_, 3+tpgOffset) << ":" //" TPG# "<< setw(2) << ttId_[3 + tpgOffset] << ":"
<< setw(3) << tpg_[iTcc_-1][3+tpgOffset] << " "
<< ttfTag(tccType_, 2+tpgOffset) << ":" //" TTF# "<< setw(2) << ttId_[2 + tpgOffset] << ":"
<< ((data[1] >>9 ) & 0x7) << " "
<< tpgTag(tccType_, 2+tpgOffset) << ":" //" TPG# "<< setw(2) << ttId_[2 + tpgOffset] << ":"
<< setw(3) << tpg_[iTcc_-1][2+tpgOffset] << " "
<< " '3': " << ((data[0] >>29) & 0x7) << " "
<< ttfTag(tccType_, 1+tpgOffset) << ":" //" TTF# "<< setw(2) << ttId_[1 + tpgOffset] << ":"
<< ((data[0] >>25) & 0x7) << " "
<< setw(3) << tpgTag(tccType_, 1+tpgOffset) << ": "//" TPG# "<< setw(2) << ttId_[1 + tpgOffset] << ":"
<< tpg_[iTcc_-1][1+tpgOffset] << " "
<< ttfTag(tccType_, 0+tpgOffset) << ":" //" TTF# "<< setw(2) << ttId_[0 + tpgOffset] << ":"
<< ((data[0] >>9 ) & 0x7) << " "
<< setw(3) << tpgTag(tccType_, 0+tpgOffset) << ":" //" TPG# "<< setw(2) << ttId_[0 + tpgOffset] << ":"
<< tpg_[iTcc_-1][0+tpgOffset];
}
}// else{
// if(d) out << "ERROR";
//}
++iTccWord64_;
if(iTccWord64_ >= (unsigned)tccBlockLen64_) iTccWord64_ = 0;
} else if((dataType>>1)==4){//SRP block
/**********************************************************************
* SRP block
*
**********************************************************************/
if(iSrWord64_==0){//header
srpL1a_ = (data[1] >>0 ) & 0xFFF;
srpBx_ = (data[0] >>16) & 0xFFF;
if(d) out << "LE1: " << ((data[1] >>28) & 0x1)
<< " LE0: " << ((data[1] >>27) & 0x1)
<< " N_SRFs: " << ((data[1] >>16) & 0x7F)
<< " E1: " << ((data[1] >>12) & 0x1)
<< " L1A: " << srpL1a_
<< " '4': " << ((data[0] >>29) & 0x7)
<< " E0: " << ((data[0] >>28) & 0x1)
<< " Bx: " << srpBx_
<< " SRP ID: " << ((data[0] >>0 ) & 0xFF);
} else if(iSrWord64_<6){
int ttfOffset = (iSrWord64_-1)*16;
if(d){
if(iSrWord64_<5){
out <<"SRF# " << setw(6) << right << srRange(12+ttfOffset)/*16+ttfOffset << "..#" << 13+ttfOffset*/ << ": "
<< oct << ((data[1] >>16) & 0xFFF) << dec
<< " SRF# " << srRange(8+ttfOffset) /*12+ttfOffset << "..#" << 9+ttfOffset*/ << ": "
<< oct << ((data[1] >>0 ) & 0xFFF) << dec
<< " '4':" << ((data[0] >>29) & 0x7)
<< " SRF# " << srRange(4+ttfOffset) /*8+ttfOffset << "..#" << 5+ttfOffset*/ << ": "
<< oct << ((data[0] >>16) & 0xFFF) << dec;
} else{//last 64-bit word has only 4 SRFs.
out << " ";
}
out << " SRF# " << srRange(ttfOffset) /*4+ttfOffset << "..#" << 1+ttfOffset*/ << ": "
<< oct << ((data[0] >>0 ) & 0xFFF) << dec;
}
} else{
if(d) out << "ERROR";
}
++iSrWord64_;
} else if((dataType>>2)==3){//Tower block
/**********************************************************************
* "Tower" block (crystal channel data from a RU (=1 FE cards))
*
**********************************************************************/
if(iTowerWord64_==0){//header
towerBlockLength_ = (data[1]>>16) & 0x1FF;
int l1a;
int bx;
l1a = (data[1] >>0 ) & 0xFFF;
bx = (data[0] >>16) & 0xFFF;
dccCh_=(data[0] >>0 ) & 0xFF;
if(d) out << "Block Len: " << towerBlockLength_
<< " E1: " << ((data[1] >>12) & 0x1)
<< " L1A: " << l1a
<< " '3': " << ((data[0] >>30) & 0x3)
<< " E0: " << ((data[0] >>28) & 0x1)
<< " Bx: " << bx
<< " N_samples: " << ((data[0] >>8 ) & 0x7F)
<< " RU ID: " << dccCh_;
if(iRu_ < nRu_){
feL1a_[iRu_] = l1a;
feBx_[iRu_] = bx;
feRuId_[iRu_] = dccCh_;
++iRu_;
}
} else if((unsigned)iTowerWord64_<towerBlockLength_){
if(!dumpAdc_){
//no output.
rc = false;
}
const bool da = dumpAdc_ && dump_;
switch((iTowerWord64_-1)%3){
int s[4];
int g[4];
case 0:
s[0]=(data[0] >>16) & 0xFFF;
g[0]=(data[0] >>28) & 0x3;
s[1]=(data[1] >>0 ) & 0xFFF;
g[1]=(data[1] >>12) & 0x3;
s[2]=(data[1] >>16) & 0xFFF;
g[2]=(data[1] >>28) & 0x3;
fill(adc_.begin(), adc_.end(), 0.);
if(da) out << "GMF: " << ((data[0] >>11) & 0x1)
<< " SMF: " << ((data[0] >>9 ) & 0x1)
<< " M: " << ((data[0] >>8 ) & 0x1)
<< " XTAL: " << ((data[0] >>4 ) & 0x7)
<< " STRIP: " << ((data[0] >>0 ) & 0x7)
<< " " << setw(4) << s[0]
<< "G" << g[0]
<< " " << setw(4) << s[1]
<< "G" << g[1]
<< " " << setw(4) << s[2]
<< "G" << g[2];
for(int i=0; i<3; ++i) adc_[i] = s[i]*mgpaGainFactors[g[i]];
break;
case 1:
s[0]=(data[0] >>0 ) & 0xFFF;
g[0]=(data[0] >>12) & 0x3;
s[1]=(data[0] >>16) & 0xFFF;
g[1]=(data[0] >>28) & 0x3;
s[2]=(data[1] >>0 ) & 0xFFF;
g[2]=(data[1] >>12) & 0x3;
s[3]=(data[1] >>16) & 0xFFF;
g[3]=(data[1] >>28) & 0x3;
if(da) out << " "
<< " " << setw(4) << s[0]
<< "G" << g[0]
<< " " << setw(4) << s[1]
<< "G" << g[1]
<< " " << setw(4) << s[2]
<< "G" << g[2]
<< " " << setw(4) << s[3]
<< "G" << g[3];
for(int i=0; i<4; ++i) adc_[i+3] = s[i]*mgpaGainFactors[g[i]];
break;
case 2:
if(da) out << "TZS: " << ((data[1] >>14) & 0x1);
s[0]=(data[0] >>0 ) & 0xFFF;
g[0]=(data[0] >>12) & 0x3;
s[1]=(data[0] >>16) & 0xFFF;
g[1]=(data[0] >>28) & 0x3;
s[2]=(data[1] >>0 ) & 0xFFF;
g[2]=(data[1] >>12) & 0x3 ;
for(int i=0; i<3; ++i) adc_[i+7] = s[i]*mgpaGainFactors[g[i]];
if(dccCh_<=68){
unsigned bom0; //Bin of Maximum, starting counting from 0
double ampl = max(adc_, bom0)-min(adc_);
if(da) out << " Ampl: " << setw(4) << ampl
<< (ampl>amplCut_?"*":" ")
<< " BoM:" << setw(2) << (bom0+1)
<< " ";
if(fedId_ == dccId_ + 600 //block of the read-out SM
//if laser, only one side:
&& (detailedTrigType_!=4 || sideOfRu(dccCh_)==(int)side_)
){
}
} else{
if(da) out << setw(29) << "";
}
if(da) out << " " << setw(4) << s[0]
<< "G" << g[0]
<< " " << setw(4) << s[1]
<< "G" << g[1]
<< " " << setw(4) << s[2]
<< "G" << g[2];
break;
default:
assert(false);
}
} else {
if(d) out << "ERROR";
}
++iTowerWord64_;
if(iTowerWord64_>=towerBlockLength_){
iTowerWord64_-=towerBlockLength_;
++dccCh_;
}
} else if(dataType==eoe){//End of event trailer
/**********************************************************************
* Event DAQ trailer
*
**********************************************************************/
int tts = (data[0] >>4) & 0xF;
if(d) out << "Evt Len.: " << ((data[1] >>0 ) & 0xFFFFFF)
<< " CRC16: " << ((data[0] >>16) & 0xFFFF)
<< " Evt Status: " << ((data[0] >>8 ) & 0xF)
<< " TTS: " << tts
<< " (" << ttsNames[tts] << ")"
<< " T:" << ((data[0] >>3) & 0x1);
} else{
if(d) out << " incorrect 64-bit word type marker (see MSBs)";
}
return rc;
}
| void ESElectronicsSim::digitalToAnalog | ( | const ESDataFrame & | df, |
| CaloSamples & | cs | ||
| ) | const [virtual] |
Definition at line 32 of file ESElectronicsSim.cc.
References decode(), i, ESDataFrame::id(), and ESDataFrame::size().
| std::vector< ESSample > ESElectronicsSim::encode | ( | const CaloSamples & | timeframe | ) | const [private] |
Definition at line 42 of file ESElectronicsSim.cc.
References ecalMGPA::adc(), addNoise_, Exception, ESCondObjectContainer< T >::find(), ESCondObjectContainer< T >::getMap(), i, CaloSamples::id(), edm::Service< T >::isAvailable(), MAXADC, MINADC, mips_, MIPToGeV_, peds_, python::entryComment::results, and CaloSamples::size().
Referenced by analogToDigital().
{
edm::Service<edm::RandomNumberGenerator> rng;
if ( ! rng.isAvailable()) {
throw cms::Exception("Configuration")
<< "ESElectroncSim requires the RandomNumberGeneratorService\n"
"which is not present in the configuration file. You must add the service\n"
"in the configuration file or remove the modules that require it.";
}
std::vector<ESSample> results;
results.reserve(timeframe.size());
ESPedestals::const_iterator it_ped = peds_->find(timeframe.id());
ESIntercalibConstantMap::const_iterator it_mip = mips_->getMap().find(timeframe.id());
int baseline_ = (int) it_ped->getMean();
double sigma_ = (double) it_ped->getRms();
double MIPADC_ = (double) (*it_mip);
int adc = 0;
double ADCGeV = MIPADC_/MIPToGeV_;
for (int i=0; i<timeframe.size(); i++) {
double noi = 0;
double signal = 0;
if (addNoise_) {
CLHEP::RandGaussQ gaussQDistribution(rng->getEngine(), 0., sigma_);
noi = gaussQDistribution.fire();
}
signal = timeframe[i]*ADCGeV + noi + baseline_;
if (signal>0)
signal += 0.5;
else if (signal<0)
signal -= 0.5;
adc = int(signal);
if (adc>MAXADC) adc = MAXADC;
if (adc<MINADC) adc = MINADC;
results.push_back(ESSample(adc));
}
return results;
}
| void ESElectronicsSim::newEvent | ( | ) | [inline] |
| void ESElectronicsSim::setGain | ( | const int | gain | ) | [inline] |
Definition at line 21 of file ESElectronicsSim.h.
References gain_.
Referenced by EcalDigiProducer::checkCalibrations().
{ gain_ = gain; }
| void ESElectronicsSim::setMIPs | ( | const ESIntercalibConstants * | mips | ) | [inline] |
Definition at line 23 of file ESElectronicsSim.h.
References mips_.
Referenced by EcalDigiProducer::checkCalibrations().
{ mips_ = mips; }
| void ESElectronicsSim::setMIPToGeV | ( | const double | MIPToGeV | ) | [inline] |
Definition at line 24 of file ESElectronicsSim.h.
References MIPToGeV_.
Referenced by EcalDigiProducer::checkCalibrations().
{ MIPToGeV_ = MIPToGeV; }
| void ESElectronicsSim::setPedestals | ( | const ESPedestals * | peds | ) | [inline] |
Definition at line 22 of file ESElectronicsSim.h.
References peds_.
Referenced by EcalDigiProducer::checkCalibrations().
{ peds_ = peds; }
bool ESElectronicsSim::addNoise_ [private] |
Definition at line 34 of file ESElectronicsSim.h.
Referenced by encode().
int ESElectronicsSim::gain_ [private] |
Definition at line 35 of file ESElectronicsSim.h.
Referenced by setGain().
const ESIntercalibConstants* ESElectronicsSim::mips_ [private] |
Definition at line 37 of file ESElectronicsSim.h.
double ESElectronicsSim::MIPToGeV_ [private] |
Definition at line 38 of file ESElectronicsSim.h.
Referenced by encode(), and setMIPToGeV().
const ESPedestals* ESElectronicsSim::peds_ [private] |
Definition at line 36 of file ESElectronicsSim.h.
Referenced by encode(), and setPedestals().
1.7.3