LArRawChannelSimpleBuilder.cxx

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/*
  Copyright (C) 2002-2021 CERN for the benefit of the ATLAS collaboration
*/
 
#include "LArRawChannelSimpleBuilder.h"
#include "LArRawEvent/LArDigitContainer.h"
#include "CLHEP/Units/SystemOfUnits.h"
#include "CaloIdentifier/CaloCell_ID.h"
#include "LArIdentifier/LArOnlID_Exception.h"
#include "LArIdentifier/LArOnlineID.h"
#include "StoreGate/ReadHandle.h"
#include "StoreGate/ReadCondHandle.h"
#include "StoreGate/WriteHandle.h"
 
#include "LArElecCalib/ILArPedestal.h"
 
#include <cmath>
 
using CLHEP::nanosecond;
using CLHEP::ns;
using CLHEP::MeV;
 
LArRawChannelSimpleBuilder::LArRawChannelSimpleBuilder (const std::string& name, ISvcLocator* pSvcLocator):
  AthReentrantAlgorithm(name, pSvcLocator),
  m_emId(nullptr),
  m_fcalId(nullptr),
  m_hecId(nullptr),
  m_onlineHelper(nullptr),
  m_peakParabolaTool("LArParabolaPeakTool"),
  m_iPedestal(0)// jobO ?
{
   //m_useIntercept={false,false,false,false};
 declareProperty("maxSamp",m_imaxSamp=8);
 declareProperty("RecoMode",m_mode="CUBIC");
 declareProperty("CubicRecoTimeModeFCAL",m_FCALmodeTime="LINEAR");
 declareProperty("CubicAdcCut",m_cubicAdcCut=15.0);
 declareProperty("PedestalSample",m_iPedestal=0);
 declareProperty("UsePedestalDB",m_usePedestalDB=false);
 declareProperty("UseRampDB",m_useRampDB=false);
 declareProperty("AverageSamplesEM",m_averageSamplesEM=5); 
 declareProperty("AverageSamplesHEC",m_averageSamplesHEC=5); 
 declareProperty("AverageSamplesFCAL",m_averageSamplesFCAL=3); 
 declareProperty("AverageScaleEM",m_averageScaleEM=2.6); 
 declareProperty("AverageScaleHEC",m_averageScaleHEC=2.6); 
 declareProperty("AverageScaleFCAL",m_averageScaleFCAL=1.8); 
 
 // m_peakParabolaTool = NULL ; // FIXME RS use empty ToolHandle - python
 
  m_ADCtoMeVFCAL[0]      =   87.0 * MeV;  // FCAL1 High gain
  m_ADCtoMeVFCAL[1]      =  117.0 * MeV;  // FCAL2 High gain
  m_ADCtoMeVFCAL[2]      =  193.0 * MeV;  // FCAL3 High gain
  m_ADCtoMeVHEC[0]       =  136.0 / 9.8 * MeV;  // HEC 1 Medium gain from Monika.  Need / 9.8  ?? 
  m_ADCtoMeVHEC[1]       =  136.0 / 9.8 * MeV;  // HEC 2 Medium gain from Monika.  Need / 9.8  ?? 
  // m_ADCtoMeVEMECInner[0] =   25.22 * MeV; // EMEC  High gain from Pascal, approximate
  // m_ADCtoMeVEMECInner[1] =   19.4  * MeV;  // EMEC  High gain from Pascal, approximate
  m_ADCtoMeVEMECInner[0] =   20.0 * MeV;  // EMEC IW s=1  High gain : fixed 18/8/2004 RMcP
  m_ADCtoMeVEMECInner[1] =   20.0 * MeV;  // EMEC IW s=2 High gain : fixed 18/8/2004 RMcP
  m_ADCtoMeVEMECOuter[0] =   16.0 * MeV;  // EMEC OW pre, s=0 
  m_ADCtoMeVEMECOuter[1] =   16.0 * MeV;  // EMEC OW s=1 High gain from Monika, approximate
  m_ADCtoMeVEMECOuter[2] =   16.0 * MeV;  // EMEC OW s=2 High gain from Monika, approximate
  m_ADCtoMeVEMECOuter[3] =   16.0 * MeV;  // EMEC OW s=3 High gain from Monika, approximate
  m_ADCtoMeVEMB[0]       =   7.0  * MeV;  // EMB pre, s=0 High gain from Isabelle, approximate
  m_ADCtoMeVEMB[1]       =   2.5  * MeV;  // EMB s=1 High gain from Isabelle, approximate
  m_ADCtoMeVEMB[2]       =   18.0 * MeV;  // EMB s=2 High gain from Isabelle, approximate
  m_ADCtoMeVEMB[3]       =   9.0  * MeV;  // EMB s=3 High gain from Isabelle, approximate
 
 
}
 
StatusCode LArRawChannelSimpleBuilder::initialize()
{
  ATH_MSG_DEBUG( "In Initialize."  );
 
  ATH_CHECK( m_adc2mevKey.initialize (m_useRampDB) );
  
  if ( m_mode == "PARABOLA"){
    if (m_peakParabolaTool.retrieve().isFailure())
    {
      ATH_MSG_ERROR( "Can't get LArParabolaPeakRecoTool"  );
      return StatusCode::SUCCESS;
    }
    ATH_MSG_DEBUG( "LArParabolaPeakRecoTool retrieved with success!"  );
  }
 
  const CaloCell_ID* idHelper = nullptr;
  ATH_CHECK( detStore()->retrieve (idHelper, "CaloCell_ID") );
  m_emId=idHelper->em_idHelper();
  m_fcalId=idHelper->fcal_idHelper();
  m_hecId=idHelper->hec_idHelper();
 
  ATH_CHECK(m_cablingKey.initialize());
 
  ATH_CHECK( detStore()->retrieve(m_onlineHelper, "LArOnlineID") );
 
 
  ATH_CHECK( m_DataLocation.initialize() );
  ATH_CHECK( m_ChannelContainerName.initialize() );
  return StatusCode::SUCCESS;
}
 
 
 
StatusCode LArRawChannelSimpleBuilder::execute (const EventContext& ctx) const
{
  ATH_MSG_DEBUG( "In execute"  );
  
  //Retrieve Digit Container
  ATH_MSG_DEBUG( "About to retrieve LArDigitContainer with key " << m_DataLocation  );
  SG::ReadHandle<LArDigitContainer> digitContainer (m_DataLocation, ctx);
  ATH_MSG_DEBUG( "1) LArDigitContainer container size = " <<  digitContainer->size()  );
 
  ATH_MSG_DEBUG( "2) LArDigitContainer container size = " <<  digitContainer->size()  );
  if( digitContainer->empty() ) {
    ATH_MSG_INFO( "Empty LArDigitContainer container."  );
    return StatusCode::SUCCESS;
  }
  
  auto larRawChannelContainer = std::make_unique<LArRawChannelContainer>();
 
  //Pointer to conditions data objects 
  const ILArPedestal* larPedestal=nullptr;
  if (m_usePedestalDB) {
    if (detStore()->retrieve(larPedestal).isFailure()) {
      larPedestal=nullptr;
      ATH_MSG_DEBUG( "No pedestal found in database. Use default values."  );
    }
  }
 
  SG::ReadCondHandle<LArOnOffIdMapping> cablingHdl{m_cablingKey, ctx};
  const LArOnOffIdMapping* cabling{*cablingHdl};
  if(!cabling) {
     ATH_MSG_ERROR("Do not have mapping object " << m_cablingKey.key() );
     return StatusCode::FAILURE;
  }
 
  const LArADC2MeV* adc2mev = nullptr;
  if (m_useRampDB) {
    SG::ReadCondHandle<LArADC2MeV> adc2mevH (m_adc2mevKey, ctx);
    adc2mev = *adc2mevH;
  }
 
  //loop twice over the digits. In the first pass the best window is
  //found for the averaged signal. In the second pass the full raw
  //channel is created and the averaging in the window found in the
  //first path is used in case the cubic fit fails or the max ADC is
  //below threshold
 
  int nMinEM(0),nMinHEC(0),nMinFCAL(0);
  std::vector<float> fSumEM,fSumHEC,fSumFCAL;
  std::vector<float> *pSum = nullptr;
  
  fSumEM.resize(0);
  fSumHEC.resize(0);
  fSumFCAL.resize(0);
 
  for(int iloop=0;iloop<2;iloop++) {
   
    //Now all data is available, start loop over Digit Container
    ATH_MSG_DEBUG( "Loop over Digit Container "  );
 
    for (const LArDigit* digit : *digitContainer) {
    
      //Get data from LArDigit
      const std::vector<short>& samples  = digit->samples();
      unsigned int              nSamples = samples.size(); 
      const HWIdentifier        chid     = digit->channelID();
      const CaloGain::CaloGain  gain     = digit->gain();
      
      
      float thePedestal=-1;    
      if (larPedestal) {
    float DBpedestal =larPedestal->pedestal(chid,gain);
    if (DBpedestal <= (1.+LArElecCalib::ERRORCODE))
      thePedestal=DBpedestal;
      }
      if (thePedestal<0) {
    thePedestal = (float)samples[m_iPedestal];
    ATH_MSG_DEBUG( "No pedestal found for this cell. Use default value " << thePedestal  );
      }
      //>>>> PL June 20, 2004: subtract pedestal first, assume first sample ->JO?
      std::vector<float> mySamples;
      mySamples.resize(samples.size());
      // FIXME!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! only for 5 leading noise samples!
      
      //    log << MSG::INFO
      //  << "pedestal " << thePedestal << endmsg;
      for ( unsigned int i=0; i<samples.size(); i++ )
    {
      mySamples[i] = ((float)samples[i]) - thePedestal;
    }
      //<<<<
      
      float GainFactor;
      if( gain == CaloGain::LARLOWGAIN ) {
    GainFactor = 9.8*9.8;
      } else if (gain == CaloGain::LARMEDIUMGAIN ) {
    GainFactor = 9.8;
      } else if (gain == CaloGain::LARHIGHGAIN ) {
    GainFactor = 1.0;
      } else {
    GainFactor = 1.0;
    ATH_MSG_ERROR( "Channel " << chid << "unknown gain: " << gain  );
      }
      
      // Get hardware identifier for later use.
      HWIdentifier FebID = m_onlineHelper->feb_Id(chid);
      unsigned int channel  = m_onlineHelper->channel(chid);
      ATH_MSG_DEBUG( std::hex << " FebID / chid / channel = " << FebID << " / " << chid << " / " << channel );
      
      // And note if this is an FCAL channel with fast pulses (cubic fails)
      // EM and HEC are also tested to adjust the signal range for averaging
      bool isFCAL = false;
      bool isEM   = false;
      bool isHEC  = false;
      int nMin = 0;
      unsigned int nAverage = 1;
      float myScale = 1;
      try {
    const Identifier id = cabling->cnvToIdentifier(chid);    
    if (m_fcalId->is_lar_fcal(id)) {
      isFCAL = true;
      nMin = nMinFCAL;
      pSum = &fSumFCAL;
      nAverage = m_averageSamplesFCAL;
      myScale = m_averageScaleFCAL;
    }
    else if (m_emId->is_lar_em(id)) {
      isEM = true;
      nMin = nMinEM;
      pSum = &fSumEM;
      nAverage = m_averageSamplesEM;
      myScale = m_averageScaleEM;
    }
    else if (m_hecId->is_lar_hec(id)) {
      isHEC = true;
      nMin = nMinHEC;
      pSum = &fSumHEC;
      nAverage = m_averageSamplesHEC;
      myScale = m_averageScaleHEC;
    }
      }
      //catch( LArOnlID_Exception & except) 
      catch (LArID_Exception & execpt) {
    ATH_MSG_DEBUG (" is disconnected.");
        // The question now being:  do we want to skip this channel???
        // Probably yes, so do so.  RMcP 9 June 2006
        continue;
      }
      // In the unrealistic case, that pSum is still not defined
      if(!pSum) continue;
 
      // Find peak time sample and scaled average for selected sample range 
      // (i.e. poor man's digital filter)
 
      // sanity checks
      if ( nAverage > nSamples ) {
    ATH_MSG_WARNING( " Number of samples to average (" 
                         << nAverage << ") is larger than total number of samples (" 
                         << nSamples << ")! adjusting nAverage ... "  );
    nAverage = nSamples;
      }
 
 
      if ( iloop == 0 ) {
 
    if ( pSum->empty()) 
//    pSum->resize(nSamples-nAverage+1,0);
      pSum->resize(nSamples,0);
 
    for( unsigned i=0;i<nSamples-nAverage+1;i++ ) {
      for( unsigned j=0;j<nAverage;j++ ) {
        (*pSum)[i] += mySamples[i+j];
      }
    } 
      }
      else {
    float        maxADCPeak = 0.;
    unsigned int iPeakSamp  = 0;
    float        averagedADC = 0;
    for( unsigned i=0;i<nSamples;i++ ) {
      if ( maxADCPeak < mySamples[i] ) 
        {
          maxADCPeak = mySamples[i];
          iPeakSamp  = i;
        }
      if ( (int)i >= nMin && i < nMin+nAverage ) 
        averagedADC += mySamples[i];
    }
    averagedADC /= myScale;
 
    bool CubicFailed = false;
    float ADCPeak=0.;
    float time=0;
      
      
    // maximum amplitude/variable time slice method
    if( m_mode == "MAX" ) 
      {
        ADCPeak = maxADCPeak;
        time    = ((float)iPeakSamp) * 25.0 * nanosecond;
      }
      
      
    // other choices are different for FCAL and others
    else {
    
      // first, deal with FCAL: only one reconstruction is available
      if(isFCAL &&   m_mode == "CUBIC" &&
         ! ( CubicFailed = maxADCPeak <= m_cubicAdcCut ) ) {
      
        ATH_MSG_DEBUG( " Special reconstruction for FCAL."  );
          
        unsigned int it0;
      
        const float invT[3][3] 
          = { {    1,       0,       0 },
          { -1.5,       2,    -0.5 },
          {  0.5,      -1,     0.5 }  };
      
        // peak slice very early
        if ( iPeakSamp <= 1 ) {
          it0 = 1;
        } else if ( iPeakSamp >= nSamples - 1 ) {  // peak is late
          it0 = nSamples - 3;
        } else { // peak in safe region
          it0 = iPeakSamp - 1;
        }
      
        // Quadratic interpolation using
        // 3 samples to be used start at 0 <= t0 <= nsamples-3
        float A[3] = {0, 0, 0};
        float dtmax = 0.0;
        // S = TA -> A = inv(T)S
        for (int ia = 0; ia < 3; ia++) 
          for (int it = 0; it < 3; it++) 
        A[ia] += invT[ia][it] * mySamples[it0+it];
      
        // fit parameters
        if ( not ( CubicFailed = ( A[2] == 0 ) ) )   {
          dtmax = -1.0 * A[1] / 2.0 / A[2];
          if ( ! ( CubicFailed = ( dtmax < 0 || dtmax > 2 ) ) ) {
        //time = (float(it0) + dtmax) * 25.0 * nanosecond; // nsec
        time=dtmax*25.0*ns;
        for(int ia = 0; ia < 3; ia++)
          ADCPeak += A[ia] * pow(dtmax, ia);
          }
        }
      
        // Now use jobOptions to pick time and height of FCAL pulses
        if( m_FCALmodeTime == "LINEAR" ) {
          float weightSum = 0.;
          float timeSum   = 0.;
          for( int it=0; it<3; it++) {
        timeSum   += float(mySamples[it0+it]) * float(it);
        weightSum += float(mySamples[it0+it]);
          }
          time    = (float(it0) + timeSum / weightSum) * 25.0 * nanosecond;
          // ADCPeak = mySamples[iPeakSamp];
          ADCPeak = mySamples[m_imaxSamp];
          CubicFailed = false;
        }
      
        // then, deal with non-FCAL
      } else if(not isFCAL ||  m_mode != "CUBIC" ) {
      
        // bias-corrected parabola extrapolation for selected channels
        if ( m_mode == "PARABOLA" &&
         ! ( CubicFailed = maxADCPeak <= m_cubicAdcCut ) ) {
          if( m_peakParabolaTool) {
        int layer = 0;
        try {
          const Identifier id = cabling->cnvToIdentifier(chid);
          ATH_MSG_DEBUG( std::hex << "     id = " << id );
          if (m_emId->is_em_barrel(id)) {
            layer= m_emId->sampling(id);
          }
        }
        catch (LArID_Exception & execpt){
                  ATH_MSG_DEBUG( std::hex
                                 << " Cannot get offline identifier from online ID = " << chid );
        }
          
        std::vector<float> peak =m_peakParabolaTool->peak(samples,layer,thePedestal); 
        if(peak.size() >1){
          ADCPeak = peak[0]-thePedestal;
          if (peak.size()==2)time = peak[1];
          else time = peak[2];
        }else{
          ATH_MSG_DEBUG( "No pic is computed from Parabola. Use scaled average of selected samples"  );
          ADCPeak = averagedADC;
          time    = -99.;
        }
          }else{
        ATH_MSG_FATAL( "No parabola tool available ! Choose another mode"  );
          }
        }
      
        // cubic extrapolation for selected channels
        else if ( m_mode == "CUBIC" &&
              ! ( CubicFailed = maxADCPeak <= m_cubicAdcCut ) ) {
        
          unsigned int it0;
          const float invT[4][4] 
        = { {        1,       0,       0,        0},
            { -1.83333,       3,    -1.5, 0.333333},
            {        1,    -2.5,       2,     -0.5},
            {-0.166666,     0.5,    -0.5, 0.166666}  };
        
          // peak slice very early
          if ( iPeakSamp <= 1 ) {
        it0 = m_iPedestal + 1;
          } else if ( iPeakSamp >= nSamples - 2 ) {  // peak is late
        it0 = nSamples - 4;
          } else { // peak in safe region
        it0 = ( mySamples[iPeakSamp-2] > mySamples[iPeakSamp+2] )
          ? iPeakSamp - 2
          : iPeakSamp - 1;
          }
        
          // 4 samples to be used start at 0 <= t0 <= nsamples-4
          float A[4] = {0, 0, 0, 0};
          float dtmax = 0.0;
          float disc;
          // S = TA -> A = inv(T)S
          for (int ia = 0; ia < 4; ia++) 
        for (int it = 0; it < 4; it++) 
          A[ia] += invT[ia][it] * mySamples[it0+it];
        
          // fit parameters
          disc = A[2]*A[2] - 3*A[1]*A[3];
          if ( ! ( CubicFailed = ( disc < 0 || A[3] == 0 ) ) )   {
        dtmax = (-A[2]-std::sqrt(disc))/(A[3]*3);
        if ( ! ( CubicFailed = ( dtmax < 0 || dtmax > 3 ) ) ) {
          time = (float(it0) + dtmax) * 25.0 * nanosecond; // nsec
          for(int ia = 0; ia < 4; ia++)
            ADCPeak += A[ia] * pow(dtmax, ia);
        }
          }
        }
      }
    }
      
    // fixed time slice or insufficient signal for cubic fit : use scaled average of selected samples  
    if(m_mode == "FIXED" || CubicFailed ) {
      ADCPeak = averagedADC;
      time    = -99. ;
    }
      
    ATH_MSG_DEBUG( "Flag: "
                       << CubicFailed
                       << " Detector: "
                       << (isEM?"EM":(isHEC?"HEC":(isFCAL?"FCAL":"none")))
                       << " Mode: "
                       << m_mode
                       << " Signal: "
                       <<  ADCPeak
                       << " Peak: "
                       << maxADCPeak
                       << " PeakSample: "
                       << iPeakSamp
                       );
      
    float energy=-9999;
    if (m_useRampDB) {
      float ADCPeakPower=ADCPeak;
      //ADC2MeV (a.k.a. Ramp)   
      LArVectorProxy ramp = adc2mev->ADC2MEV(chid,gain);
      //Check ramp coefficents
      if (ramp.size()>1 && ramp[1]<500 && ramp[1]>0) {
        energy=0;
        for (unsigned i=1;i<ramp.size();i++)
          {energy+=ramp[i]*ADCPeakPower; //pow(ADCPeak,i);
          //std::cout << "Step "<< i <<":" << ramp[i] << " * " << pow(ADCPeak,i) << "Sum=" << energy << std::endl;
          ADCPeakPower*=ADCPeak;
          }
      }
    }
    if (energy==-9999) {
      ATH_MSG_DEBUG( "No Ramp found for this cell. Use default values"  );
      //Apply default values
      // Now must get subdetector ID and feed in here ...
      float ADCtoMeV      = 10.0;
    
      //     HWIdentifier FebID = m_onlineHelper->feb_Id(chid);
      //     unsigned int channel  = m_onlineHelper->channel(chid);
      //     MSG::hex(log) << MSG::DEBUG
      //                   << " FebID / chid / channel = " << FebID << " / " << chid << " / " << channel << endmsg;
    
      try {
        const Identifier id = cabling->cnvToIdentifier(chid);
      
        ATH_MSG_DEBUG( std::hex << "     id = " << id );
      
        if (m_emId->is_em_barrel(id)) {
          const int layer= m_emId->sampling(id);
          const int eta=m_emId->eta(id);
          ADCtoMeV = m_ADCtoMeVEMB[layer];
          if (layer==2 && eta<32)
        ADCtoMeV=ADCtoMeV*(12./18.); //Correct for lead thickness
          ATH_MSG_DEBUG( " in EMB s="<< layer <<", using ADCtoMeV = " << ADCtoMeV  );
        } else if (m_emId->is_em_endcap_inner(id)) {
          // m_emId->sampling(id);
          ADCtoMeV = m_ADCtoMeVEMECInner[m_emId->sampling(id)-1];
          ATH_MSG_DEBUG( " in EMEC inner s="<<m_emId->sampling(id)<<", using ADCtoMeV = " << ADCtoMeV  );
        } else if (m_emId->is_em_endcap_outer(id)) {
          // m_emId->sampling(id);
          // ADCtoMeV = m_ADCtoMeVEMECOuter[m_emId->sampling(id)-1];
              ADCtoMeV = m_ADCtoMeVEMECOuter[m_emId->sampling(id)];
          ATH_MSG_DEBUG( " in EMEC outer s="<<m_emId->sampling(id)<<", using ADCtoMeV = " << ADCtoMeV  );
        } else if (m_fcalId->is_lar_fcal(id)) {
          // m_fcalId->module(chid);
          ADCtoMeV = m_ADCtoMeVFCAL[m_fcalId->module(id)-1];
          ATH_MSG_DEBUG( " in FCAL m=" << m_fcalId->module(id)<<", using ADCtoMeV = " << ADCtoMeV  );
        } else if (m_hecId->is_lar_hec(id)) {
          // m_layer[m_cellIndex]=m_hecId->sampling(id);
          ADCtoMeV = m_ADCtoMeVHEC[0];
          ATH_MSG_DEBUG( " in HEC s="<<m_hecId->sampling(id)<<", using ADCtoMeV = " << ADCtoMeV  );
        }
      }
      //catch( LArOnlID_Exception & except) 
      catch (LArID_Exception & execpt)
        {
              ATH_MSG_DEBUG( " is disconnected. Set ADCtoMeV to 1" );
              ADCtoMeV=1;
        }
      energy  = ADCPeak * ADCtoMeV * GainFactor;
    }
        uint16_t iquality=0;
        uint16_t iprovenance=0;
      
    time*=1000; //Convert to picoseconds
    //Make LArRawChannel Object with new data
    LArRawChannel larRawChannel(chid,(int)energy,(int)time,iquality,iprovenance, gain);   
    larRawChannelContainer->add(larRawChannel); //Add to container
      }
    }// End loop over LArDigits
    if ( iloop == 0 ) {
      // select the best windows for the event
      unsigned int i;
      float tmpSum = 0;
 
      if ( !fSumEM.empty() ) {
        for(i=0;i<fSumEM.size();i++) {
      if (i == 0 || fSumEM[i] > tmpSum ) {
        nMinEM = i;
        tmpSum = fSumEM[i];
      }
        }
    ATH_MSG_DEBUG( "Found best EM window starting at sample <" << nMinEM << ">"  );
      }
 
      for(i=0;i<fSumHEC.size();i++) {
    if (i == 0 || fSumHEC[i] > tmpSum ) {
      nMinHEC = i;
      tmpSum = fSumHEC[i];
    }
      }
      if ( !fSumHEC.empty() ) {
    ATH_MSG_DEBUG( "Found best HEC window starting at sample <" << nMinHEC << ">"  );
      }
 
      for(i=0;i<fSumFCAL.size();i++) {
    if (i == 0 || fSumFCAL[i] > tmpSum ) {
      nMinFCAL = i;
      tmpSum = fSumFCAL[i];
    }
      }
      if ( !fSumFCAL.empty() ) {
    ATH_MSG_DEBUG( "Found best FCAL window starting at sample <" << nMinFCAL << ">"  );
      }
 
    }
  }// End of double loop over Digit containers
 
  ATH_MSG_DEBUG( "Finished loop over Digit Container "  );
 
  // Put this LArRawChannel container in the transient store
  ATH_CHECK( SG::makeHandle (m_ChannelContainerName, ctx).record (std::move (larRawChannelContainer)) );
 
  return StatusCode::SUCCESS;
}
 
StatusCode LArRawChannelSimpleBuilder::finalize()
{//Error and Warning Summary for this job:
  
  ATH_MSG_INFO( "LArRawChannelSimpleBuilder finished."  );
 
  return StatusCode::SUCCESS;
}