CaloCluster_v1.cxx

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/*
  Copyright (C) 2002-2021 CERN for the benefit of the ATLAS collaboration
*/
 
// System include(s):
#include <cmath>
#include <iostream>
#include <array>
#include <numeric>
 
// EDM include(s):
#include "CaloGeoHelpers/CaloPhiRange.h"
#include "xAODCore/AuxStoreAccessorMacros.h"
#include "AthLinks/ElementLink.h"
 
// Local include(s):
#include "xAODCaloEvent/versions/CaloCluster_v1.h"
#include "xAODCaloEvent/CaloClusterContainer.h"
#include "CaloClusterAccessors_v1.h"
 
namespace xAOD {
 
   CaloCluster_v1::CaloCluster_v1()
     : IParticle(),
       m_samplingPattern(0),
       m_cellLinks(nullptr)
   {
     setSignalState(CALIBRATED);
   }
 
 
  CaloCluster_v1::CaloCluster_v1(const CaloCluster_v1& other)
    : IParticle(other),
      m_samplingPattern(other.samplingPattern()),
      m_cellLinks(nullptr),
      m_recoStatus(other.m_recoStatus),
      m_secondTime(other.m_secondTime) {
    setSignalState(other.signalState());
    this->makePrivateStore(other);
#if !(defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS))
    const CaloClusterCellLink* links=other.getCellLinks();
    if (links) {
      this->addCellLink(std::make_unique<CaloClusterCellLink>(*links));
    }
    static const Accessor<ElementLink<CaloClusterCellLinkContainer> > accCellLinks("CellLink");
    if (accCellLinks.isAvailable(*this)) { //In case an element link was copied by makePrivateStore, invalidate it
      accCellLinks(*this).reset();
    } //end if have element link to CaloClusterCellLink
#endif // not defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS)
  }
 
 
  CaloCluster_v1& CaloCluster_v1::operator=(const xAOD::CaloCluster_v1& other) {
    if (this == &other) {
      return *this;
    }
 
    SG::AuxElement::operator=( other ); //Call assignment operator of base-class
    m_recoStatus=other.m_recoStatus;
    setSignalState(other.signalState());
    m_samplingPattern=other.m_samplingPattern;
    m_secondTime = other.m_secondTime;
 
#if !(defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS))
     const CaloClusterCellLink* links=other.getCellLinks();
     if (links) {
       this->addCellLink(std::make_unique<CaloClusterCellLink>(*links));
     }
     static const Accessor<ElementLink<CaloClusterCellLinkContainer> > accCellLinks("CellLink");
     if (accCellLinks.isAvailable(*this)) { //In case an element link was copied by  SG::AuxElement::operator=, invalidate it
       accCellLinks(*this).reset();
     } //end if have element link to CaloClusterCellLink
#endif // not defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS)
     return *this;
  }
 
 
   CaloCluster_v1::~CaloCluster_v1() {
   }
 
  void CaloCluster_v1::setSamplingPattern( const unsigned sp, const bool clearSamplingVars) {
 
      // Check sampling variables ....
      static const Accessor< std::vector< float > > etaAcc( "eta_sampl" );
      static const Accessor< std::vector< float > > phiAcc( "phi_sampl" );
      static const Accessor< std::vector< float > > eAcc( "e_sampl" );
      static const Accessor< std::vector< float > > emaxAcc( "emax_sampl" );
      static const Accessor< std::vector< float > > etamaxAcc( "etamax_sampl" );
      static const Accessor< std::vector< float > > phimaxAcc( "phimax_sampl" );
      static const Accessor< std::vector< float > > etasizeAcc( "etasize_sampl" );
      static const Accessor< std::vector< float > > phisizeAcc( "phisize_sampl" );
 
      static const std::array< const Accessor< std::vector< float > >*, 8 > allAcc = {
         { &etaAcc, &phiAcc, &eAcc, &emaxAcc, &phimaxAcc, &etamaxAcc, &etasizeAcc,
           &phisizeAcc } };
      for( const auto *a : allAcc ) {
         if( a->isAvailable( *this ) ) {
           if (!(*a)(*this).empty()) {
             if (clearSamplingVars){
               (*a)(*this).clear();
             }
             else{
               std::cerr << "CaloCluster_v1 ERROR Attempt update sampling "
                         << "pattern while sampling variables are already set!"
                         << std::endl;
             }
          //std::abort();
           }
         }
      }
 
      m_samplingPattern=sp;
   }
 
 
  double CaloCluster_v1::pt(const State s) const {
    // Calculate the momentum of the object:
    double theE = 0;
    double theM = 0;
    switch (s) {
    case CALIBRATED:
      theE=calE();
      theM=calM();
      break;
    case UNCALIBRATED:
      theE=rawE();
      theM=rawM();
      break;
    case ALTCALIBRATED:
      theE=altE();
      theM=altM();
      break;
    default:
      break;
    }
 
    double p = 0.0;
    if( std::abs( theM ) < 0.00001 ) {
      p = theE;
    } else {
      p = std::sqrt( theE * theE - theM * theM );
      if( theE < 0 ) {
        p = -p;
      }
    }
 
    // Calculate sinTh:
    double aEta = std::abs( eta(s) );
    if( aEta > 710.0 ) {
      aEta = 710.0;
    }
    const double sinTh = 1.0 / std::cosh( aEta );
 
    // Calculate pT from these two:
    return p * sinTh;
  }
 
  double CaloCluster_v1::e(const State s) const
  {
    switch (s) {
    case CALIBRATED:
      return calE();
      break;
    case UNCALIBRATED:
      return rawE();
      break;
    case ALTCALIBRATED:
      return altE();
      break;
    default:
      return 0;
    }
  }
 
  double CaloCluster_v1::eta(const State s) const
  {
    switch (s) {
    case CALIBRATED:
      return calEta();
      break;
    case UNCALIBRATED:
      return rawEta();
      break;
    case ALTCALIBRATED:
      return altEta();
      break;
    default:
      return -999;
    }
  }
 
 
  double CaloCluster_v1::phi(const State s) const
  {
    switch (s) {
    case CALIBRATED:
      return calPhi();
      break;
    case UNCALIBRATED:
      return rawPhi();
      break;
    case ALTCALIBRATED:
      return altPhi();
      break;
    default:
      return -999;
    }
  }
 double CaloCluster_v1::m(const State s) const {
    switch (s) {
    case CALIBRATED:
      return calM();
      break;
    case UNCALIBRATED:
      return rawM();
      break;
    case ALTCALIBRATED:
      return altM();
      break;
    default:
      return -999;
      }
   }
 
 
  double CaloCluster_v1::pt() const {
    return pt(m_signalState);
  }
 
  double CaloCluster_v1::eta() const
  {
    return eta (m_signalState);
  }
 
  double CaloCluster_v1::phi() const
  {
    return phi (m_signalState);
  }
 
  double CaloCluster_v1::m() const {
    return m(m_signalState);
   }
 
   double CaloCluster_v1::e() const {
    return e(m_signalState);
   }
 
 
  AUXSTORE_PRIMITIVE_SETTER_AND_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  eta0, setEta0 )
  AUXSTORE_PRIMITIVE_SETTER_AND_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  phi0, setPhi0 )
  AUXSTORE_PRIMITIVE_SETTER_AND_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  time, setTime )
 
  void CaloCluster_v1::setBadChannelList(const CaloClusterBadChannelList& bcl) {
    static const Accessor<xAOD::CaloClusterBadChannelList> accBCL("BadChannelList");
    accBCL(*this)=bcl;
 }
 
   const CaloClusterBadChannelList& CaloCluster_v1::badChannelList() const {
    static const Accessor<xAOD::CaloClusterBadChannelList> accBCL("BadChannelList");
    return accBCL(*this);
  }
 
  void CaloCluster_v1::setRawE(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accRawE("rawE");
    accRawE(*this)=value;
  }
 
  void CaloCluster_v1::setRawEta(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accRawEta("rawEta");
    accRawEta(*this)=value;
  }
 
  void CaloCluster_v1::setRawPhi(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accRawPhi("rawPhi");
    accRawPhi(*this)=value;
  }
 
  void CaloCluster_v1::setRawM(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accRawM("rawM");
    accRawM(*this)=value;
  }
 
  //----------------------------------------------------------------
 
  void CaloCluster_v1::setCalE(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accCalE("calE");
    accCalE(*this)=value;
  }
 
  void CaloCluster_v1::setCalEta(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accCalEta("calEta");
    accCalEta(*this)=value;
  }
 
  void CaloCluster_v1::setCalPhi(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accCalPhi("calPhi");
    accCalPhi(*this)=value;
  }
 
  void CaloCluster_v1::setCalM(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accCalM("calM");
    accCalM(*this)=value;
  }
 
  //----------------------------------------------------------------
 
  void CaloCluster_v1::setAltE(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accAltE("altE");
    accAltE(*this)=value;
  }
 
  void CaloCluster_v1::setAltEta(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accAltEta("altEta");
    accAltEta(*this)=value;
  }
 
  void CaloCluster_v1::setAltPhi(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accAltPhi("altPhi");
    accAltPhi(*this)=value;
  }
 
  void CaloCluster_v1::setAltM(const CaloCluster_v1::flt_t value) {
    static const Accessor<CaloCluster_v1::flt_t> accAltM("altM");
    accAltM(*this)=value;
  }
 
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  rawE)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  rawEta)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  rawPhi)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  rawM)
 
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  altE)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  altEta)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  altPhi)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  altM)
 
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  calE)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  calEta)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  calPhi)
  AUXSTORE_PRIMITIVE_GETTER( CaloCluster_v1, CaloCluster_v1::flt_t,  calM)
 
 
  CaloCluster_v1::ClusterSize  CaloCluster_v1::clusterSize() const {
    static const Accessor<unsigned> acc("clusterSize");
    return (CaloCluster_v1::ClusterSize)acc(*this);
  }
 
  void  CaloCluster_v1::setClusterSize(CaloCluster_v1::ClusterSize sc) {
    static const Accessor<unsigned> acc("clusterSize");
    acc(*this)=sc;
  }
 
 
  void CaloCluster_v1::setE(CaloCluster_v1::flt_t theE) {
    switch (m_signalState) {
    case CALIBRATED:
      return setCalE(theE);
      break;
    case UNCALIBRATED:
      return setRawE(theE);
       break;
     case ALTCALIBRATED:
       return setAltE(theE);
       break;
     default:
       break;
     }
     }
 
  void CaloCluster_v1::setEta(CaloCluster_v1::flt_t theEta) {
    switch (m_signalState) {
    case CALIBRATED:
      return setCalEta(theEta);
      break;
    case UNCALIBRATED:
      return setRawEta(theEta);
       break;
     case ALTCALIBRATED:
       return setAltEta(theEta);
       break;
     default:
       break;
     }
     }
 
  void CaloCluster_v1::setPhi(CaloCluster_v1::flt_t thePhi) {
    switch (m_signalState) {
    case CALIBRATED:
      return setCalPhi(thePhi);
      break;
    case UNCALIBRATED:
      return setRawPhi(thePhi);
       break;
     case ALTCALIBRATED:
       return setAltPhi(thePhi);
       break;
     default:
       break;
     }
     }
 
 
  void CaloCluster_v1::setM(CaloCluster_v1::flt_t theM) {
    switch (m_signalState) {
    case CALIBRATED:
      return setCalM(theM);
      break;
    case UNCALIBRATED:
      return setRawM(theM);
       break;
     case ALTCALIBRATED:
       return setAltM(theM);
       break;
     default:
       break;
     }
     }
 
  bool CaloCluster_v1::setSignalState( CaloCluster_v1::State s)  {
    m_signalState=s;
    return true;
  }
 
  CaloCluster_v1::GenVecFourMom_t CaloCluster_v1::genvecP4(const CaloCluster_v1::State s) const {
    switch (s) {
    case CALIBRATED:
      return GenVecFourMom_t(pt(s),calEta(),calPhi(),calM());
    case UNCALIBRATED:
      return GenVecFourMom_t(pt(s),rawEta(),rawPhi(), rawM());
    case ALTCALIBRATED:
      return GenVecFourMom_t(pt(s),altEta(),altPhi(), altM());
    default:
      return GenVecFourMom_t();
    }
  }
  CaloCluster_v1::GenVecFourMom_t CaloCluster_v1::genvecP4() const {
    return genvecP4(m_signalState);
  }
 
  double CaloCluster_v1::rapidity() const {
    return genvecP4().Rapidity();
  }
 
  CaloCluster_v1::FourMom_t CaloCluster_v1::p4() const {
    return p4(m_signalState);
  }
 
 
  CaloCluster_v1::FourMom_t  CaloCluster_v1::p4(const CaloCluster_v1::State s) const  {
    CaloCluster_v1::FourMom_t p4;
    switch(s) {
    case CALIBRATED:
      p4.SetPtEtaPhiM(pt(s),calEta(),calPhi(),calM());
      break;
    case UNCALIBRATED:
      p4.SetPtEtaPhiM(pt(s),rawEta(),rawPhi(), rawM());
      break;
    case ALTCALIBRATED:
      p4.SetPtEtaPhiM(pt(s),altEta(),altPhi(), altM());
      break;
    default:
      break;
    }
    return p4;
  }
 
 
  Type::ObjectType CaloCluster_v1::type() const {
    return Type::CaloCluster;
  }
 
 
  float CaloCluster_v1::getSamplVarFromAcc(const Accessor< std::vector <float > >& acc , const CaloSample sampling, const float errorvalue) const {
    return CaloClusterDetails::getSamplVar(sampling,m_samplingPattern,acc(*this),errorvalue);
  }
 
  bool CaloCluster_v1::setSamplVarFromAcc(const Accessor< std::vector <float > >& acc, const CaloSample sampling, const float value) {
    const unsigned idx=sampVarIdx(sampling);
    std::vector<float>& vec=acc(*this);
    //std::cout << "Set sampling var. Sampling " << sampling << ", index=" << idx << " size=" << vec.size() << std::endl;
    if (idx==CaloSampling::Unknown) {
      std::cout << "ERROR: Sampling #" << sampling << " is not part of this cluster!" << std::endl;
      return false;
    }
 
    if (vec.size()<nSamples())
      vec.resize(nSamples());
    vec[idx]=value;
    return true;
  }
 
 
  float CaloCluster_v1::eSample( CaloSample sampling ) const {
    static const Accessor< std::vector <float > > eAcc("e_sampl");
    return getSamplVarFromAcc(eAcc,sampling,0.0); //Return energy 0 in case of failure (eg. sampling not set)
  }
 
  bool CaloCluster_v1::setEnergy(const CaloSample sampling, const float theEnergy) {
    static const Accessor< std::vector <float > > eAcc("e_sampl");
    return setSamplVarFromAcc(eAcc,sampling,theEnergy);
  }
 
 
  float CaloCluster_v1::etaSample(const CaloSample sampling) const {
    static const Accessor< std::vector <float > > etaAcc("eta_sampl");
    if (!etaAcc.isAvailable( *this )){
      return -999;
    }
 
      return getSamplVarFromAcc(etaAcc,sampling);
  }
 
  bool CaloCluster_v1::setEta(const CaloSample sampling, const float eta) {
    static const Accessor< std::vector <float > > etaAcc("eta_sampl");
    return setSamplVarFromAcc(etaAcc,sampling,eta);
   }
 
 
  float CaloCluster_v1::phiSample(const CaloSample sampling) const {
    static const Accessor< std::vector <float > > phiAcc("phi_sampl");
    if (!phiAcc.isAvailable( *this )){
      return -999;
    }
 
      return getSamplVarFromAcc(phiAcc,sampling);
  }
 
  bool CaloCluster_v1::setPhi(const CaloSample sampling, const float phi) {
    static const Accessor< std::vector <float > > phiAcc("phi_sampl");
    return setSamplVarFromAcc(phiAcc,sampling,phi);
  }
 
 
 
  float CaloCluster_v1::energy_max(const CaloSample sampling) const {
    static const Accessor< std::vector <float > > emaxAcc("emax_sampl");
    if (!emaxAcc.isAvailable( *this )){
      return 0.0;
    }
      return getSamplVarFromAcc(emaxAcc,sampling,0.0); //Return energy 0 in case of failure (eg. sampling not set)
  }
 
  bool CaloCluster_v1::setEmax(const CaloSample sampling, const float eMax ) {
    static const Accessor< std::vector <float > > emaxAcc("emax_sampl");
    return setSamplVarFromAcc(emaxAcc,sampling,eMax);
  }
 
  float CaloCluster_v1::etamax(const CaloSample sampling) const {
    static const Accessor< std::vector <float > > etamaxAcc("etamax_sampl");
    if (!etamaxAcc.isAvailable( *this )){
      return -999;
    }
      return getSamplVarFromAcc(etamaxAcc,sampling);
  }
 
  bool CaloCluster_v1::setEtamax(const CaloSample sampling, const float etaMax ) {
    static const Accessor< std::vector <float > > etamaxAcc("etamax_sampl");
    return setSamplVarFromAcc(etamaxAcc,sampling,etaMax);
  }
 
  float CaloCluster_v1::phimax(const CaloSample sampling) const {
    static const Accessor< std::vector <float > > phimaxAcc("phimax_sampl");
    if (!phimaxAcc.isAvailable( *this )){
      return -999;
    }
      return getSamplVarFromAcc(phimaxAcc,sampling);
  }
 
  bool CaloCluster_v1::setPhimax(const CaloSample sampling, const float phiMax ) {
    static const Accessor< std::vector <float > > phimaxAcc("phimax_sampl");
    return setSamplVarFromAcc(phimaxAcc,sampling,phiMax);
  }
 
 
  float CaloCluster_v1::etasize(const CaloSample sampling) const {
    static const Accessor< std::vector <float > > etasizeAcc("etasize_sampl");
    if (!etasizeAcc.isAvailable( *this )){
      return -999;
    }
    return getSamplVarFromAcc(etasizeAcc, sampling);
  }
 
  bool CaloCluster_v1::setEtasize(const CaloSample sampling, const float etaSize ) {
    static const Accessor< std::vector <float > > etasizeAcc("etasize_sampl");
    return setSamplVarFromAcc(etasizeAcc,sampling,etaSize);
  }
 
  float CaloCluster_v1::phisize(const CaloSample sampling) const {
    static const Accessor< std::vector <float > > phisizeAcc("phisize_sampl");
    if (!phisizeAcc.isAvailable( *this )){
      return -999;
    }
      return getSamplVarFromAcc(phisizeAcc,sampling);
  }
 
  bool CaloCluster_v1::setPhisize(const CaloSample sampling, const float phiSize ) {
    static const Accessor< std::vector <float > > phisizeAcc("phisize_sampl");
    return setSamplVarFromAcc(phisizeAcc,sampling,phiSize);
  }
 
 
  float CaloCluster_v1::energyBE(const unsigned sample) const {
    static const Accessor< std::vector <float > > eAcc("e_sampl");
    return CaloClusterDetails::energyBE(sample,m_samplingPattern,eAcc(*this));
  }
 
  float CaloCluster_v1::etaBE(const unsigned sample) const {
    static const Accessor< std::vector <float > > eAcc("e_sampl");
    static const Accessor< std::vector <float > > etaAcc("eta_sampl");
    return CaloClusterDetails::etaBE(sample,m_samplingPattern,eAcc(*this),etaAcc(*this));
  }
 
 float CaloCluster_v1::phiBE(const unsigned sample) const {
    static const Accessor< std::vector <float > > eAcc("e_sampl");
    static const Accessor< std::vector <float > > phiAcc("phi_sampl");
    return CaloClusterDetails::phiBE(sample,m_samplingPattern,eAcc(*this),phiAcc(*this));
  }
 
 
   void  CaloCluster_v1::clearSamplingData() {
 
      static const Accessor< std::vector< float > > etaAcc( "eta_sampl" );
      static const Accessor< std::vector< float > > phiAcc( "phi_sampl" );
      static const Accessor< std::vector< float > > eAcc( "e_sampl" );
      static const Accessor< std::vector< float > > emaxAcc( "emax_sampl" );
      static const Accessor< std::vector< float > > etamaxAcc( "etamax_sampl" );
      static const Accessor< std::vector< float > > phimaxAcc( "phimax_sampl" );
      static const Accessor< std::vector< float > > etasizeAcc( "etasize_sampl" );
      static const Accessor< std::vector< float > > phisizeAcc( "phisize_sampl" );
 
      static const std::array< const Accessor< std::vector< float > >*, 8 > allAcc = {
        { &etaAcc, &phiAcc, &eAcc, &emaxAcc, &phimaxAcc, &etamaxAcc,
          &etasizeAcc, &phisizeAcc } };
      for (const auto *a : allAcc) {
        if (a->isAvailableWritable(*this)) {
          (*a)(*this).clear();
        }
      }
   }
 
  bool CaloCluster_v1::retrieveMoment( MomentType type, double& value ) const {
 
      // Get the moment accessor:
      const Accessor< float >* acc = momentAccessorV1( type );
      if (!acc){
        return false;
      }
      // Check if the moment is available:
      if( ! acc->isAvailable( *this ) ) {
         return false;
      }
      // Retrieve the moment:
      value = ( *acc )( *this );
      return true;
   }
 
  void CaloCluster_v1::insertMoment( MomentType type, double value ) {
    const Accessor<float>* acc = momentAccessorV1(type); 
    if ( acc != nullptr ) { (*acc)(*this) = value; } // new protection needed non-scalar moment type!
  }
 
  void CaloCluster_v1::insertMoment( MomentType type, const ncells_store_t& values) {  
    const Accessor<ncells_store_t>* acc = momentContainerAccessorV1(type);
    // only implemented for one moment
    if ( acc != nullptr ) { (*acc)(*this) = values; }
  }
 
  bool CaloCluster_v1::retrieveMoment( MomentType type, ncells_store_t& values ) const { 
    const Accessor<ncells_store_t>* acc = momentContainerAccessorV1(type); 
    // only known moments of this type
    if ( acc == nullptr || !acc->isAvailable(*this)  ) { return false; }
    // retrieve data
    values = (*acc)(*this); 
    return true; 
  }
 
  // Set the number of cells in a given sampling
  void CaloCluster_v1::setNumberCellsInSampling(CaloSampling::CaloSample samp,int ncells,bool isInnerWheel) { 
    const Accessor<ncells_store_t>* acc = momentContainerAccessorV1(NCELL_SAMPLING); // should always be valid!
    // cast to cell counter type and limit value range
    ncells_t nc(adjustToRange<int,ncells_t>(ncells)); 
    // check index and extend store if needed
    size_t idx((size_t)samp); 
    if ( idx >= (*acc)(*this).size() ) { (*acc)(*this).resize(idx+1,0); }
    // set counts
    (*acc)(*this)[idx] = isInnerWheel ? setUpperCount<ncells_t>((*acc)(*this)[idx],nc) : setLowerCount<ncells_t>((*acc)(*this)[idx],nc);   
  }
 
  // Retrieve the number of cells in a given sampling
  int CaloCluster_v1::numberCellsInSampling(CaloSampling::CaloSample samp,bool isInnerWheel) const { 
    const Accessor<ncells_store_t>* acc = momentContainerAccessorV1(NCELL_SAMPLING); 
    //
    if ( acc != nullptr && acc->isAvailable(*this) ) { 
      size_t idx((size_t)samp); 
      return ( idx < (*acc)(*this).size() )             // valid sampling 
    ? isInnerWheel                                  // check if inner wheel cell count is requested
    ? extractUpperCount<int>((*acc)(*this)[idx])
    : extractLowerCount<int>((*acc)(*this)[idx])
    : 0; 
    } else { 
      return 0;
    }
  }
 
  // Get number of all cells
  int CaloCluster_v1::numberCells() const { 
    std::vector<int> ncells; 
    return getNumberCellsInSampling<std::vector<int> >(ncells) ? std::accumulate(ncells.begin(),ncells.end(),0) : 0; 
  }
 
  unsigned int CaloCluster_v1::getClusterEtaSize() const{
    const unsigned clustersize=clusterSize();
    unsigned int size = 0;
    if(clustersize==SW_55ele ||
       clustersize==SW_55gam ||
       clustersize==SW_55Econv){
      size = 5;
    }else if(clustersize==SW_35ele ||
         clustersize==SW_37ele ||
         clustersize==SW_35gam ||
         clustersize==SW_37gam ||
         clustersize==SW_35Econv ||
         clustersize==SW_37Econv){
      size = 3;
    }else if(clustersize==SW_7_11){
      size = 7;
    }
 
    return size;
 
  }
 
  unsigned int CaloCluster_v1::getClusterPhiSize() const{
    const ClusterSize clustersize=clusterSize();
    unsigned int size = 0;
    if(clustersize==SW_55ele ||
       clustersize==SW_55gam ||
       clustersize==SW_55Econv ||
       clustersize==SW_35ele ||
       clustersize==SW_35gam ||
       clustersize==SW_35Econv){
      size = 5;
    }else if(
         clustersize==SW_37ele ||
         clustersize==SW_37gam ||
         clustersize==SW_37Econv){
      size = 7;
    }else if(clustersize==SW_7_11){
      size = 11;
    }
    return size;
  }
 
 
 
 
 
 
#if !(defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS))
 bool CaloCluster_v1::setLink(CaloClusterCellLinkContainer* cccl,
                               IProxyDict* sg /*= nullptr*/)
  {
    if (!m_cellLinks || !cccl){
      return false;
    }
    cccl->push_back(m_cellLinks.release());//The links are now owned by the container
    const size_t idx=cccl->size()-1; //Use index for speed
    static const Accessor<ElementLink<CaloClusterCellLinkContainer> > accCellLinks("CellLink");
    const CaloClusterCellLinkContainer& ref=*cccl;
    ElementLink<CaloClusterCellLinkContainer> el(ref,idx,sg);
    accCellLinks(*this)=el;
    return true;
  }
  bool
  CaloCluster_v1::setLink(CaloClusterCellLinkContainer* cccl,
                          const EventContext& ctx)
  {
    if (!m_cellLinks || !cccl) {
      return false;
    }
    // The links are now owned by the container
    cccl->push_back(m_cellLinks.release());
    const size_t idx = cccl->size() - 1; // Use index for speed
    static const Accessor<ElementLink<CaloClusterCellLinkContainer>>
      accCellLinks("CellLink");
    const CaloClusterCellLinkContainer& ref = *cccl;
    ElementLink<CaloClusterCellLinkContainer> el(ref, idx, ctx);
    accCellLinks(*this) = el;
    return true;
  }
 
  const CaloClusterCellLink*
  CaloCluster_v1::getCellLinks() const
  {
    if (m_cellLinks) {
      return m_cellLinks.get();
    }
    static const Accessor<ElementLink<CaloClusterCellLinkContainer> > accCellLinks("CellLink");
    if (!accCellLinks.isAvailable(*this)){
      return nullptr;
    }
 
    const ElementLink<CaloClusterCellLinkContainer>& el=accCellLinks(*this);
    if (el.isValid()){
      return *el;
    }
 
      return nullptr;
  }
 
  bool CaloCluster_v1::removeCell(const CaloCell* ptrToDelete) {
    //1. Get a ptr to the CaloClusterCellLink
    CaloClusterCellLink* cccl=getOwnCellLinks();
    if (!cccl){
      return false; // No link found (expected for TopoClusters in xAOD files)
    }
    // 2. Remove cell
    return cccl->removeCell(ptrToDelete);
  }
 
 
#endif // not defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS)
 
   void CaloCluster_v1::toPersistent() {
 
#if !(defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS))
      static const Accessor< ElementLink< CaloClusterCellLinkContainer > >
         accCellLinks( "CellLink" );
      if( accCellLinks.isAvailableWritable( *this ) ) {
         accCellLinks( *this ).toPersistent();
      }
#endif // not defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS)
 
      static const Accessor< ElementLink< xAOD::CaloClusterContainer_v1 > > accSisterCluster("SisterCluster");
      if( accSisterCluster.isAvailableWritable( *this ) ) {
         accSisterCluster( *this ).toPersistent();
      }
 
      // Return gracefully:
        }
 
  const CaloCluster_v1* CaloCluster_v1::getSisterCluster() const {
    static const Accessor< ElementLink< xAOD::CaloClusterContainer_v1 > > accSisterCluster("SisterCluster");
    if (!accSisterCluster.isAvailable(*this)){
      return nullptr;
    }
    const ElementLink<CaloClusterContainer_v1>& el = accSisterCluster(*this);
    if (el.isValid()) {
      return *el;
    }
      return nullptr;
  }
 
  const ElementLink<xAOD::CaloClusterContainer_v1>& CaloCluster_v1::getSisterClusterLink() const {
    static const Accessor< ElementLink< xAOD::CaloClusterContainer_v1 > > accSisterCluster("SisterCluster");
    static const ElementLink<xAOD::CaloClusterContainer_v1> empty;
    if (!accSisterCluster.isAvailable(*this)){
      return empty;
    }
    return accSisterCluster(*this);
  }
 
  bool CaloCluster_v1::setSisterClusterLink(const ElementLink<xAOD::CaloClusterContainer_v1>& sister)
  {
    static const Accessor< ElementLink<xAOD::CaloClusterContainer_v1 > > accSisterCluster("SisterCluster");
    accSisterCluster(*this)=sister;
    return true;
  }
 
  void  CaloCluster_v1::setSecondTime(CaloCluster_v1::flt_t stime) { m_secondTime = stime; }
 
  CaloCluster_v1::flt_t CaloCluster_v1::secondTime() const {
    if ( m_secondTime < 0. ) { 
      double stime(0.); return this->retrieveMoment(SECOND_TIME,stime) ? stime : 0.; 
    } else { 
      return m_secondTime; 
    }
  }
 
#if !(defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS))
size_t CaloCluster_v1::size() const {
    const CaloClusterCellLink* cl= getCellLinks();
    if (!cl) return 0;
    return cl->size();
  }
#endif // not defined(SIMULATIONBASE) || defined(XAOD_ANALYSIS)
 
} // namespace xAOD