MuonCnv_p1.cxx

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/*
  Copyright (C) 2002-2019 CERN for the benefit of the ATLAS collaboration
*/
 
// MuonCnv_p1.cxx 
// Implementation file for class MuonCnv_p1
// Author: K.Cranmer<cranmer@cern.ch>
// Author: S.Binet<binet@cern.ch>
 
 
// STL includes
 
// DataModelAthenaPool includes
#include "DataModelAthenaPool/ElementLinkCnv_p1.h"
 
// EventCommonTPCnv includes
#include "EventCommonTPCnv/P4ImplIPtCotThPhiMCnv_p1.h"
 
// ParticleEventTPCnv includes
#include "ParticleEventTPCnv/ParticleBaseCnv_p1.h"
 
// muonEvent includes
#include "muonEvent/Muon.h"
#include "muonEvent/MuonCaloEnergyContainer.h"
 
// RecTPCnv includes
#include "RecTPCnv/DepositInCaloCnv_p1.h"
#include "RecTPCnv/MuonCnv_p1.h"
 
typedef ElementLinkCnv_p1<ElementLink<Rec::TrackParticleContainer> > TrackLinkCnv_t;
typedef ElementLinkCnv_p1<ElementLink<CaloClusterContainer> > ClusterLinkCnv_t;
 
// pre-allocate converters
static const P4ImplIPtCotThPhiMCnv_p1   momCnv;
static const ParticleBaseCnv_p1     partBaseCnv;
static const TrackLinkCnv_t         trackCnv;
static const ClusterLinkCnv_t       clusterCnv;
static const DepositInCaloCnv_p1    depositCnv;
 
 
void MuonCnv_p1::persToTrans( const Muon_p1* pers,
                  Analysis::Muon* trans, 
                  MsgStream& msg ) const
{
//   msg << MSG::DEBUG << "Loading Muon from persistent state..."
//       << endmsg;
  
  // base classes
  momCnv.persToTrans     ( &pers->m_momentum,     &trans->momentumBase(), msg );
  partBaseCnv.persToTrans( &pers->m_particleBase, &trans->particleBase(), msg );
 
  // element links
  ElementLink<Rec::TrackParticleContainer> inDetTrackLink;
  trackCnv.persToTrans( &pers->m_inDetTrackParticle,
                        &inDetTrackLink,
                        msg );
  trans->setInDetTrackLink (inDetTrackLink);
 
  ElementLink<Rec::TrackParticleContainer> muonSpectrometerTrackLink;
  trackCnv.persToTrans( &pers->m_muonSpectrometerTrackParticle,
            &muonSpectrometerTrackLink,
            msg );
  trans->setMuonSpectrometerTrackLink (muonSpectrometerTrackLink);
 
  ElementLink<Rec::TrackParticleContainer> muonExtrapTrackLink;
  trackCnv.persToTrans( &pers->m_muonExtrapolatedTrackParticle,
            &muonExtrapTrackLink,
            msg );
  trans->setMuonExtrapTrackLink (muonExtrapTrackLink,
                                 pers->m_hasMuonExtrapolatedTrackParticle);
 
  ElementLink<Rec::TrackParticleContainer> innerExtrapTrackLink;
  trackCnv.persToTrans( &pers->m_innerExtrapolatedTrackParticle,
            &innerExtrapTrackLink,
            msg );
  trans->setInnerExtrapTrackLink (innerExtrapTrackLink);
 
  ElementLink<Rec::TrackParticleContainer> combinedTrackLink;
  trackCnv.persToTrans( &pers->m_combinedMuonTrackParticle,
            &combinedTrackLink,
            msg );
  trans->setCombinedTrackLink (combinedTrackLink,
                               pers->m_hasCombinedMuonTrackParticle);
 
  ElementLink<CaloClusterContainer> clusterLink;
  clusterCnv.persToTrans( &pers->m_cluster,
              &clusterLink,
              msg );
  trans->setClusterLink (clusterLink);
 
 
  // muon parameters
    const std::vector<float>& params = pers->m_parameters;
    trans->set_parameter(MuonParameters::etcone10, params[ 0] );
    trans->set_parameter(MuonParameters::etcone20, params[ 1] );
    trans->set_parameter(MuonParameters::etcone30, params[ 2] );
    trans->set_parameter(MuonParameters::etcone40, params[ 3] );
                              
    trans->set_parameter(MuonParameters::nucone10, params[ 8] );
    trans->set_parameter(MuonParameters::nucone20, params[ 9] );
    trans->set_parameter(MuonParameters::nucone30, params[10] );
    trans->set_parameter(MuonParameters::nucone40, params[11] );
    
    trans->set_parameter(MuonParameters::segmentDeltaEta,    params[16] );
    trans->set_parameter(MuonParameters::segmentDeltaPhi,    params[17] );
    trans->set_parameter(MuonParameters::segmentChi2OverDoF, params[18] );
    trans->set_parameter(MuonParameters::annBarrel,          params[19] );
    trans->set_parameter(MuonParameters::annEndCap,          params[20] );
    trans->set_parameter(MuonParameters::innAngle,           params[21] );
    trans->set_parameter(MuonParameters::midAngle,           params[22] );
 
    // author
    trans->set_author (static_cast<MuonParameters::Author>(pers->m_author));
    trans->set_allAuthors (0);
    trans->add_author ( trans->author() );
 
    // chi2 of the track matching
    trans->set_matchChi2 (pers->m_matchChi2);
 
    // Low Pt muon stuff
    trans->set_numberOfAssociatedEtaDigits (pers->m_associatedEtaDigits);
    trans->set_numberOfAssociatedPhiDigits (pers->m_associatedPhiDigits);
 
    trans->set_bestMatch (pers->m_bestMatch);
    trans->set_matchNumberDoF (pers->m_matchNumberDoF);
 
    // this muon is also found by the lowPT reconstruction algorithm
    trans->set_isAlsoFoundByLowPt (pers->m_isAlsoFoundByLowPt);
 
    // this muon is also found by the Calo Muon ID reconstruction algorithm
    trans->set_isAlsoFoundByCaloMuonId (pers->m_isAlsoFoundByCaloMuonId);
 
 
    MuonCaloEnergyContainer * caloEnergyContainer = 0;
    if (m_storeGate->retrieve(caloEnergyContainer, m_muonCaloEnergyContainerName).isFailure() || caloEnergyContainer == NULL) {
      msg << MSG::WARNING << "Cannot retrieve MuonCaloEnergyContainer" << m_muonCaloEnergyContainerName 
          <<  endmsg;
    } else {
      float deltaE = pers->m_caloEnergyLoss.m_energyDeposit;
      float sigmaM = pers->m_caloEnergyLoss.m_energySigmaMinus;
      float sigmaP = pers->m_caloEnergyLoss.m_energySigmaPlus;
      float sigma  = (sigmaM+sigmaP)/2.0;
      unsigned short elossT = static_cast<unsigned short> (pers->m_caloEnergyLoss.m_energyLossType);
      float caloLR          = pers->m_caloEnergyLoss.m_caloLRLikelihood;
      unsigned short tag    = static_cast<unsigned short>(pers->m_caloEnergyLoss.m_fsrCandidateEnergy);
      float fsrEnergy       = pers->m_caloEnergyLoss.m_fsrCandidateEnergy;
      
      CaloEnergy * caloEnergy  = new CaloEnergy(deltaE, sigma, sigmaM, sigmaP, elossT, caloLR, tag) ;
      caloEnergy->set_fsrCandidateEnergy ( fsrEnergy );
      std::vector<DepositInCalo> deposits;
      deposits.reserve( pers->m_caloEnergyLoss.m_deposits.size() );
      typedef std::vector<DepositInCalo_p1> Deposits_t;
      for ( Deposits_t::const_iterator 
            itr  = pers->m_caloEnergyLoss.m_deposits.begin(),
            iEnd = pers->m_caloEnergyLoss.m_deposits.end();
            itr != iEnd;
            ++itr ) {
         deposits.push_back( DepositInCalo() );
         depositCnv.persToTrans( &*itr, &deposits.back(), msg );
       }
       caloEnergy->set_deposits( deposits );
       caloEnergyContainer->push_back( caloEnergy );
       ElementLink<MuonCaloEnergyContainer> caloEnergyLink;
       caloEnergyLink.toContainedElement(*caloEnergyContainer, caloEnergy);
       trans->setCaloEnergyLink (caloEnergyLink);
    } 
 
//   msg << MSG::DEBUG << "Loaded Muon from persistent state [OK]"
//       << endmsg;
 
    return;
}
 
void MuonCnv_p1::transToPers( const Analysis::Muon* trans, 
                  Muon_p1* pers, 
                  MsgStream& msg ) const
{
  msg << MSG::ERROR << "Analysis::Muon at " << trans << " Persistent Muon_p1 at " << pers << " Cannot write to Muon_p1" << endmsg;
  throw std::runtime_error("Writing to Muon_p1 is not supported - MuonCnv_p1::transToPers(...)");
  return;
}