HcalSignalGenerator.cc

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#include "SimCalorimetry/HcalSimAlgos/interface/HcalSignalGenerator.h"

//specializations

template<>
bool HcalSignalGenerator<HcalQIE10DigitizerTraits>::validDigi(const HcalSignalGenerator<HcalQIE10DigitizerTraits>::DIGI & digi)
{
  int DigiSum = 0;
  for(int id = 0; id<digi.samples(); id++) {
    if(digi[id].adc() > 0) ++DigiSum;
  }
  return(DigiSum>0);
}

template<>
CaloSamples HcalSignalGenerator<HcalQIE10DigitizerTraits>::samplesInPE(const HcalSignalGenerator<HcalQIE10DigitizerTraits>::DIGI & digi){
  HcalDetId cell = digi.id();
  CaloSamples result = CaloSamples(cell,digi.samples());

  // first, check if there was an overflow in this fake digi:
  bool overflow = false;
  // find and list them

  for(int isample=0; isample<digi.samples(); ++isample) {
    //only check error bit for non-zero ADCs
    if(digi[isample].adc()>0 && !digi[isample].ok()) overflow = true; 
  }

  if(overflow) {  // do full conversion, go back and overwrite fake entries
    const HcalQIECoder* channelCoder = theConditions->getHcalCoder (cell);
    const HcalQIEShape* channelShape = theConditions->getHcalShape (cell);
    HcalCoderDb coder (*channelCoder, *channelShape);
    coder.adc2fC(digi, result);

    // overwrite with coded information
    for(int isample=0; isample<digi.samples(); ++isample) {
      if(digi[isample].ok()) result[isample] = float(digi[isample].adc())/HcalQIE10DigitizerTraits::PreMixFactor;
    }
  }
  else {  // saves creating the coder, etc., every time
    // use coded information
    for(int isample=0; isample<digi.samples(); ++isample) {
      result[isample] = float(digi[isample].adc())/HcalQIE10DigitizerTraits::PreMixFactor;
      if(digi[isample].soi()) result.setPresamples(isample);
    }
  }

  // translation done in fC, convert to pe: 
  fC2pe(result);

  return result;
}

template<>
void HcalSignalGenerator<HcalQIE10DigitizerTraits>::fillDigis(const HcalSignalGenerator<HcalQIE10DigitizerTraits>::COLLECTION * digis){
  // loop over digis, adding these to the existing maps
  for(typename COLLECTION::const_iterator it  = digis->begin(); it != digis->end(); ++it) 
  {
    QIE10DataFrame df(*it);
    // for the first signal, set the starting cap id
    if((it == digis->begin()) && theElectronicsSim)
    {
      int startingCapId = df[0].capid();
      theElectronicsSim->setStartingCapId(startingCapId);
    }
    if(validDigi(df)) {
      theNoiseSignals.push_back(samplesInPE(df));
    }
  }
}

template<>
bool HcalSignalGenerator<HcalQIE11DigitizerTraits>::validDigi(const HcalSignalGenerator<HcalQIE11DigitizerTraits>::DIGI & digi)
{
  int DigiSum = 0;
  for(int id = 0; id<digi.samples(); id++) {
    if(digi[id].adc() > 0) ++DigiSum;
  }
  return(DigiSum>0);
}

template<>
CaloSamples HcalSignalGenerator<HcalQIE11DigitizerTraits>::samplesInPE(const HcalSignalGenerator<HcalQIE11DigitizerTraits>::DIGI & digi){
  HcalDetId cell = digi.id();
  CaloSamples result = CaloSamples(cell,digi.samples());

  // first, check if there was an overflow in this fake digi:
  bool overflow = false;
  // find and list them

  for(int isample=0; isample<digi.samples(); ++isample) {
    if(digi[isample].tdc()==1){
      overflow = true; 
      break;
    }
  }

  if(overflow) {  // do full conversion, go back and overwrite fake entries
    const HcalQIECoder* channelCoder = theConditions->getHcalCoder (cell);
    const HcalQIEShape* channelShape = theConditions->getHcalShape (cell);
    HcalCoderDb coder (*channelCoder, *channelShape);
    coder.adc2fC(digi, result);

    // overwrite with coded information
    for(int isample=0; isample<digi.samples(); ++isample) {
      if(digi[isample].tdc()==0) result[isample] = float(digi[isample].adc())/HcalQIE11DigitizerTraits::PreMixFactor;
    }
  }
  else {  // saves creating the coder, etc., every time
    // use coded information
    for(int isample=0; isample<digi.samples(); ++isample) {
      result[isample] = float(digi[isample].adc())/HcalQIE11DigitizerTraits::PreMixFactor;
      if(digi[isample].soi()) result.setPresamples(isample);
    }
  }

  // translation done in fC, convert to pe: 
  fC2pe(result);

  return result;
}

template<>
void HcalSignalGenerator<HcalQIE11DigitizerTraits>::fillDigis(const HcalSignalGenerator<HcalQIE11DigitizerTraits>::COLLECTION * digis){
  // loop over digis, adding these to the existing maps
  for(typename COLLECTION::const_iterator it  = digis->begin(); it != digis->end(); ++it) 
  {
    QIE11DataFrame df(*it);
    // for the first signal, set the starting cap id
    if((it == digis->begin()) && theElectronicsSim)
    {
      int startingCapId = df[0].capid();
      theElectronicsSim->setStartingCapId(startingCapId);
    }
    if(validDigi(df)) {
      theNoiseSignals.push_back(samplesInPE(df));
    }
  }
}