#include <PFEGammaAlgo.h>

Classes
struct	PFEGConfigInfo

struct	ProtoEGObject

Public Types
typedef std::unordered_map< unsigned int, std::vector< unsigned int > >	AsscMap

typedef std::unordered_map< const PFClusterElement *, std::vector< PFClusterFlaggedElement > >	ClusterMap

typedef reco::PFCluster::EEtoPSAssociation	EEtoPSAssociation

typedef std::vector< std::pair< const reco::PFBlockElement , const reco::PFBlockElement > >	ElementMap

typedef std::unordered_map< const PFGSFElement *, std::vector< PFKFFlaggedElement > >	GSFToTrackMap

typedef std::unordered_map< const PFKFElement *, float >	KFValMap

typedef reco::PFBlockElementBrem	PFBremElement

typedef std::pair< const PFBremElement *, bool >	PFBremFlaggedElement

typedef reco::PFBlockElementCluster	PFClusterElement

typedef std::pair< const PFClusterElement *, bool >	PFClusterFlaggedElement

typedef std::pair< const reco::PFBlockElement *, bool >	PFFlaggedElement

typedef reco::PFBlockElementGsfTrack	PFGSFElement

typedef std::pair< const PFGSFElement *, bool >	PFGSFFlaggedElement

typedef reco::PFBlockElementTrack	PFKFElement

typedef std::pair< const PFKFElement *, bool >	PFKFFlaggedElement

typedef reco::PFBlockElementSuperCluster	PFSCElement

typedef std::pair< const PFSCElement *, bool >	PFSCFlaggedElement

Public Member Functions
void	buildAndRefineEGObjects (const pfEGHelpers::HeavyObjectCache *hoc, const reco::PFBlockRef &block)

reco::PFCandidateCollection &	getCandidates ()

reco::PFCandidateEGammaExtraCollection &	getEGExtra ()

reco::SuperClusterCollection &	getRefinedSCs ()

	PFEGammaAlgo (const PFEGConfigInfo &)

void	setAlphaGamma_ESplanes_fromDB (const ESEEIntercalibConstants *esEEInterCalib)

void	setEEtoPSAssociation (EEtoPSAssociation const &eetops)

void	setESChannelStatus (const ESChannelStatus *channelStatus)

void	setPhotonPrimaryVtx (const reco::Vertex &primary)

Private Member Functions
int	attachPSClusters (const PFClusterElement *, ClusterMap::mapped_type &)

reco::SuperCluster	buildRefinedSuperCluster (const ProtoEGObject &)

float	calculateEleMVA (const pfEGHelpers::HeavyObjectCache *hoc, const ProtoEGObject &, reco::PFCandidateEGammaExtra &) const

void	dumpCurrentRefinableObjects () const

float	evaluateSingleLegMVA (const pfEGHelpers::HeavyObjectCache *hoc, const reco::PFBlockRef &blockref, const reco::Vertex &primaryVtx, unsigned int trackIndex)

void	fillExtraInfo (const ProtoEGObject &, reco::PFCandidateEGammaExtra &)

void	fillPFCandidates (const pfEGHelpers::HeavyObjectCache *hoc, const std::list< ProtoEGObject > &, reco::PFCandidateCollection &, reco::PFCandidateEGammaExtraCollection &)

void	initializeProtoCands (std::list< ProtoEGObject > &)

bool	isMuon (const reco::PFBlockElement &)

bool	isPrimaryTrack (const reco::PFBlockElementTrack &KfEl, const reco::PFBlockElementGsfTrack &GsfEl)

void	linkKFTrackToECAL (const PFKFFlaggedElement &, ProtoEGObject &)

void	linkRefinableObjectBremTangentsToECAL (ProtoEGObject &)

void	linkRefinableObjectConvSecondaryKFsToSecondaryKFs (ProtoEGObject &)

void	linkRefinableObjectECALToSingleLegConv (const pfEGHelpers::HeavyObjectCache *hoc, ProtoEGObject &)

void	linkRefinableObjectGSFTracksToKFs (ProtoEGObject &)

void	linkRefinableObjectKFTracksToECAL (ProtoEGObject &)

void	linkRefinableObjectPrimaryGSFTrackToECAL (ProtoEGObject &)

void	linkRefinableObjectPrimaryGSFTrackToHCAL (ProtoEGObject &)

void	linkRefinableObjectPrimaryKFsToSecondaryKFs (ProtoEGObject &)

void	linkRefinableObjectSecondaryKFsToECAL (ProtoEGObject &)

void	mergeROsByAnyLink (std::list< ProtoEGObject > &)

void	removeOrLinkECALClustersToKFTracks ()

void	unlinkRefinableObjectKFandECALMatchedToHCAL (ProtoEGObject &, bool removeFreeECAL=false, bool removeSCECAL=false)

void	unlinkRefinableObjectKFandECALWithBadEoverP (ProtoEGObject &)

bool	unwrapSuperCluster (const reco::PFBlockElementSuperCluster *, std::vector< PFClusterFlaggedElement > &, ClusterMap &)

Private Attributes
reco::PFBlockRef	_currentblock

reco::PFBlock::LinkData	_currentlinks

std::list< ProtoEGObject >	_refinableObjects

std::vector< std::vector< PFFlaggedElement > >	_splayedblock

PFEGConfigInfo	cfg_

const ESChannelStatus *	channelStatus_

reco::PFCluster::EEtoPSAssociation const *	eetops_

const char *	mvaWeightFile_

reco::PFCandidateCollection	outcands_

reco::PFCandidateEGammaExtraCollection	outcandsextra_

reco::SuperClusterCollection	refinedscs_

Detailed Description

Definition at line 57 of file PFEGammaAlgo.h.

Member Typedef Documentation

typedef std::unordered_map<unsigned int, std::vector<unsigned int> > PFEGammaAlgo::AsscMap

Definition at line 71 of file PFEGammaAlgo.h.

typedef std::unordered_map<const PFClusterElement*, std::vector<PFClusterFlaggedElement> > PFEGammaAlgo::ClusterMap

Definition at line 77 of file PFEGammaAlgo.h.

typedef reco::PFCluster::EEtoPSAssociation PFEGammaAlgo::EEtoPSAssociation

Definition at line 59 of file PFEGammaAlgo.h.

typedef std::vector<std::pair<const reco::PFBlockElement*, const reco::PFBlockElement*> > PFEGammaAlgo::ElementMap

Definition at line 73 of file PFEGammaAlgo.h.

typedef std::unordered_map<const PFGSFElement*, std::vector<PFKFFlaggedElement> > PFEGammaAlgo::GSFToTrackMap

Definition at line 75 of file PFEGammaAlgo.h.

typedef std::unordered_map<const PFKFElement*, float > PFEGammaAlgo::KFValMap

Definition at line 79 of file PFEGammaAlgo.h.

typedef reco::PFBlockElementBrem PFEGammaAlgo::PFBremElement

Definition at line 61 of file PFEGammaAlgo.h.

typedef std::pair<const PFBremElement*,bool> PFEGammaAlgo::PFBremFlaggedElement

Definition at line 67 of file PFEGammaAlgo.h.

typedef reco::PFBlockElementCluster PFEGammaAlgo::PFClusterElement

Definition at line 64 of file PFEGammaAlgo.h.

typedef std::pair<const PFClusterElement*,bool> PFEGammaAlgo::PFClusterFlaggedElement

Definition at line 70 of file PFEGammaAlgo.h.

typedef std::pair<const reco::PFBlockElement*,bool> PFEGammaAlgo::PFFlaggedElement

Definition at line 65 of file PFEGammaAlgo.h.

typedef reco::PFBlockElementGsfTrack PFEGammaAlgo::PFGSFElement

Definition at line 62 of file PFEGammaAlgo.h.

typedef std::pair<const PFGSFElement*,bool> PFEGammaAlgo::PFGSFFlaggedElement

Definition at line 68 of file PFEGammaAlgo.h.

typedef reco::PFBlockElementTrack PFEGammaAlgo::PFKFElement

Definition at line 63 of file PFEGammaAlgo.h.

typedef std::pair<const PFKFElement*,bool> PFEGammaAlgo::PFKFFlaggedElement

Definition at line 69 of file PFEGammaAlgo.h.

typedef reco::PFBlockElementSuperCluster PFEGammaAlgo::PFSCElement

Definition at line 60 of file PFEGammaAlgo.h.

typedef std::pair<const PFSCElement*,bool> PFEGammaAlgo::PFSCFlaggedElement

Definition at line 66 of file PFEGammaAlgo.h.

Constructor & Destructor Documentation

PFEGammaAlgo::PFEGammaAlgo ( const PFEGConfigInfo & cfg )

Definition at line 582 of file PFEGammaAlgo.cc.

582 : cfg_(cfg)

583 {}

PFEGammaAlgo::cfg_

PFEGConfigInfo cfg_

Definition: PFEGammaAlgo.h:258

looper.cfg

cfg

Definition: looper.py:297

Member Function Documentation

int PFEGammaAlgo::attachPSClusters	(	const PFClusterElement *	,
		ClusterMap::mapped_type &
	)

private

Definition at line 1096 of file PFEGammaAlgo.cc.

References _splayedblock, a, b, docast, PFLayer::ECAL_BARREL, eetops_, edm::Ptr< T >::key(), reco::PFBlockElement::PS1, reco::PFBlockElement::PS2, edm::refToPtr(), and groupFilesInBlocks::temp.

Referenced by linkKFTrackToECAL(), linkRefinableObjectBremTangentsToECAL(), linkRefinableObjectPrimaryGSFTrackToECAL(), linkRefinableObjectSecondaryKFsToECAL(), and unwrapSuperCluster().

                                                    {  
    if( ecalclus->clusterRef()->layer() == PFLayer::ECAL_BARREL ) return 0;
    edm::Ptr<reco::PFCluster> clusptr = refToPtr(ecalclus->clusterRef());
    EEtoPSElement ecalkey(clusptr.key(),clusptr);
    auto assc_ps = std::equal_range(eetops_->cbegin(),
                    eetops_->cend(),
                    ecalkey,
                    [](const EEtoPSElement& a, const EEtoPSElement& b){return a.first < b.first;});
    for( const auto& ps1 : _splayedblock[reco::PFBlockElement::PS1] ) {
      edm::Ptr<reco::PFCluster> temp = refToPtr(ps1.first->clusterRef());
      for( auto pscl = assc_ps.first; pscl != assc_ps.second; ++pscl ) {
        if( pscl->second == temp ) {
      const ClusterElement* pstemp = 
        docast(const ClusterElement*,ps1.first);
      eslist.emplace_back(pstemp,true);
        }
      }
    }
    for( const auto& ps2 : _splayedblock[reco::PFBlockElement::PS2] ) {
      edm::Ptr<reco::PFCluster> temp = refToPtr(ps2.first->clusterRef());
      for( auto pscl = assc_ps.first; pscl != assc_ps.second; ++pscl ) {
        if( pscl->second == temp ) {
      const ClusterElement* pstemp = 
        docast(const ClusterElement*,ps2.first);
      eslist.emplace_back(pstemp,true);
        }
      }
    }
    return eslist.size();
  }

void PFEGammaAlgo::buildAndRefineEGObjects	(	const pfEGHelpers::HeavyObjectCache *	hoc,
		const reco::PFBlockRef &	block
	)

Definition at line 669 of file PFEGammaAlgo.cc.

Referenced by getRefinedSCs().

                                                                         {
   LOGVERB("PFEGammaAlgo") 
     << "Resetting PFEGammaAlgo for new block and running!" << std::endl;
   _splayedblock.clear();
   _refinableObjects.clear();
   _splayedblock.resize(13); // make sure that we always have the HGCAL entry
 
   _currentblock = block;
   _currentlinks = block->linkData();
   //LOGDRESSED("PFEGammaAlgo") << *_currentblock << std::endl;
   LOGVERB("PFEGammaAlgo") << "Splaying block" << std::endl;  
   //unwrap the PF block into a fast access map
   for( const auto& pfelement : _currentblock->elements() ) {
     if( isMuon(pfelement) ) continue; // don't allow muons in our element list
     if (pfelement.type() == PFBlockElement::HCAL && 
         pfelement.clusterRef()->flags() & reco::CaloCluster::badHcalMarker) continue; // skip also dead area markers for now
     const size_t itype = (size_t)pfelement.type();    
     if( itype >= _splayedblock.size() ) _splayedblock.resize(itype+1);    
     _splayedblock[itype].emplace_back(&pfelement,true);
   }
 
   // show the result of splaying the tree if it's really *really* needed
 #ifdef PFLOW_DEBUG
   std::stringstream splayout;
   for( size_t itype = 0; itype < _splayedblock.size(); ++itype ) {
     splayout << "\tType: " << itype << " indices: ";
     for( const auto& flaggedelement : _splayedblock[itype] ) {
       splayout << flaggedelement.first->index() << ' ';
     }
     if( itype != _splayedblock.size() - 1 ) splayout << std::endl;
   }
   LOGVERB("PFEGammaAlgo") << splayout.str();  
 #endif
 
   // precleaning of the ECAL clusters with respect to primary KF tracks
   // we don't allow clusters in super clusters to be locked out this way
   removeOrLinkECALClustersToKFTracks();
 
   initializeProtoCands(_refinableObjects); 
   LOGDRESSED("PFEGammaAlgo") 
     << "Initialized " << _refinableObjects.size() << " proto-EGamma objects"
     << std::endl;
   dumpCurrentRefinableObjects();
 
   //
   // now we start the refining steps
   //
   //
   
   // --- Primary Linking Step ---
   // since this is particle flow and we try to work from the pixels out
   // we start by linking the tracks together and finding the ECAL clusters
   for( auto& RO : _refinableObjects ) {
     // find the KF tracks associated to GSF primary tracks
     linkRefinableObjectGSFTracksToKFs(RO);
     // do the same for HCAL clusters associated to the GSF
     linkRefinableObjectPrimaryGSFTrackToHCAL(RO);
     // link secondary KF tracks associated to primary KF tracks
     linkRefinableObjectPrimaryKFsToSecondaryKFs(RO);
     // pick up clusters that are linked to the GSF primary
     linkRefinableObjectPrimaryGSFTrackToECAL(RO);
     // link associated KF to ECAL (ECAL part grabs PS clusters too if able)
     linkRefinableObjectKFTracksToECAL(RO);
     // now finally look for clusters associated to brem tangents
     linkRefinableObjectBremTangentsToECAL(RO);
   }
 
   LOGDRESSED("PFEGammaAlgo")
     << "Dumping after GSF and KF Track (Primary) Linking : " << std::endl;
   dumpCurrentRefinableObjects();
 
   // merge objects after primary linking
   mergeROsByAnyLink(_refinableObjects);
 
   LOGDRESSED("PFEGammaAlgo")
     << "Dumping after first merging operation : " << std::endl;
   dumpCurrentRefinableObjects();
 
   // --- Secondary Linking Step ---
   // after this we go through the ECAL clusters on the remaining tracks
   // and try to link those in...
   for( auto& RO : _refinableObjects ) {    
     // look for conversion legs
     linkRefinableObjectECALToSingleLegConv(hoc,RO);
     dumpCurrentRefinableObjects();
     // look for tracks that complement conversion legs
     linkRefinableObjectConvSecondaryKFsToSecondaryKFs(RO);
     // look again for ECAL clusters (this time with an e/p cut)
     linkRefinableObjectSecondaryKFsToECAL(RO);
   } 
 
   LOGDRESSED("PFEGammaAlgo")
     << "Dumping after ECAL to Track (Secondary) Linking : " << std::endl;
   dumpCurrentRefinableObjects();
 
   // merge objects after primary linking
   mergeROsByAnyLink(_refinableObjects);
 
   LOGDRESSED("PFEGammaAlgo")
     << "There are " << _refinableObjects.size() 
     << " after the 2nd merging step." << std::endl;
   dumpCurrentRefinableObjects();
 
   // -- unlinking and proto-object vetos, final sorting
   for( auto& RO : _refinableObjects ) {
     // remove secondary KFs (and possibly ECALs) matched to HCAL clusters
     unlinkRefinableObjectKFandECALMatchedToHCAL(RO, false, false);
     // remove secondary KFs and ECALs linked to them that have bad E/p_in 
     // and spoil the resolution
     unlinkRefinableObjectKFandECALWithBadEoverP(RO);
     // put things back in order after partitioning
     std::sort(RO.ecalclusters.begin(), RO.ecalclusters.end(),
         [](const PFClusterFlaggedElement& a,
            const PFClusterFlaggedElement& b) 
         { return ( a.first->clusterRef()->correctedEnergy() > 
                b.first->clusterRef()->correctedEnergy() ) ; });
     setROElectronCluster(RO);
   }
 
   LOGDRESSED("PFEGammaAlgo")
     << "There are " << _refinableObjects.size() 
     << " after the unlinking and vetos step." << std::endl;
   dumpCurrentRefinableObjects();
 
   // fill the PF candidates and then build the refined SC
   fillPFCandidates(hoc,_refinableObjects,outcands_,outcandsextra_);
 
 }

reco::SuperCluster PFEGammaAlgo::buildRefinedSuperCluster ( const ProtoEGObject & RO )

private

Definition at line 2101 of file PFEGammaAlgo.cc.

Referenced by fillExtraInfo(), and fillPFCandidates().

                                                               {
   if( RO.ecalclusters.empty() ) { 
     return reco::SuperCluster(0.0,math::XYZPoint(0,0,0));
   }
 
   bool isEE = false;
   edm::Ptr<reco::PFCluster> clusptr;
   // need the vector of raw pointers for a PF width class
   std::vector<const reco::PFCluster*> bare_ptrs;
   // calculate necessary parameters and build the SC
   double posX(0), posY(0), posZ(0),
     rawSCEnergy(0), corrSCEnergy(0), corrPSEnergy(0),
     PS1_clus_sum(0), PS2_clus_sum(0),
     ePS1(0), ePS2(0), ps1_energy(0.0), ps2_energy(0.0); 
   int condP1(1), condP2(1);
   for( auto& clus : RO.ecalclusters ) {
     ePS1 = 0;
     ePS2 = 0;
     isEE = PFLayer::ECAL_ENDCAP == clus.first->clusterRef()->layer();
     clusptr = 
       edm::refToPtr<reco::PFClusterCollection>(clus.first->clusterRef());
     bare_ptrs.push_back(clusptr.get());    
 
     const double cluseraw = clusptr->energy();
     double cluscalibe = clusptr->correctedEnergy();
     const math::XYZPoint& cluspos = clusptr->position();
     posX += cluseraw * cluspos.X();
     posY += cluseraw * cluspos.Y();
     posZ += cluseraw * cluspos.Z();
     // update EE calibrated super cluster energies
     if( isEE && RO.ecal2ps.count(clus.first)) {
       ePS1 = 0;
       ePS2 = 0;
       condP1 = condP2 = 1;
 
       const auto& psclusters = RO.ecal2ps.at(clus.first);
       
       for( auto i_ps = psclusters.begin(); i_ps != psclusters.end(); ++i_ps) {
     const PFClusterRef&  psclus = i_ps->first->clusterRef();
     
     auto const& recH_Frac = psclus->recHitFractions();  
     
     switch( psclus->layer() ) {
     case PFLayer::PS1:
       for (auto const& recH : recH_Frac){
         ESDetId strip1 = recH.recHitRef()->detId();
         if(strip1 != ESDetId(0)){
           ESChannelStatusMap::const_iterator status_p1 = channelStatus_->getMap().find(strip1);
           //getStatusCode() == 0 => active channel
           // apply correction if all recHits are dead
           if(status_p1->getStatusCode() == 0) condP1 = 0;
         }
       }
       break;
     case PFLayer::PS2:
       for (auto const& recH : recH_Frac){
         ESDetId strip2 = recH.recHitRef()->detId();
         if(strip2 != ESDetId(0)) {
           ESChannelStatusMap::const_iterator status_p2 = channelStatus_->getMap().find(strip2);
           if(status_p2->getStatusCode() == 0) condP2 = 0;
         }
       }
       break;
     default:
       break;
     }
       }
       
       auto sumPSEnergy = [](double a, const ClusterFlaggedElement& b, const reco::PFBlockElement::Type type)
           { return a + (type == b.first->type())*b.first->clusterRef()->energy(); };
 
       PS1_clus_sum = std::accumulate(psclusters.begin(),psclusters.end(),
                      0.0,std::bind(sumPSEnergy, _1, _2, reco::PFBlockElement::PS1));
       PS2_clus_sum = std::accumulate(psclusters.begin(),psclusters.end(),
                      0.0,std::bind(sumPSEnergy, _1, _2, reco::PFBlockElement::PS2));
             
       if(condP1 == 1) ePS1 = -1.;
       if(condP2 == 1) ePS2 = -1.;
 
       cluscalibe = 
     cfg_.thePFEnergyCalibration->energyEm(*clusptr,
                           PS1_clus_sum,PS2_clus_sum,
                           ePS1, ePS2,
                           cfg_.applyCrackCorrections);
     }
     if(ePS1 == -1.) ePS1 = 0;
     if(ePS2 == -1.) ePS2 = 0;
 
     rawSCEnergy  += cluseraw;
     corrSCEnergy += cluscalibe;    
     ps1_energy   += ePS1;
     ps2_energy   += ePS2;
     corrPSEnergy += ePS1 + ePS2;    
   }
   posX /= rawSCEnergy;
   posY /= rawSCEnergy;
   posZ /= rawSCEnergy;
 
   // now build the supercluster
   reco::SuperCluster new_sc(corrSCEnergy,math::XYZPoint(posX,posY,posZ)); 
 
   clusptr = 
     edm::refToPtr<reco::PFClusterCollection>(RO.ecalclusters.front().
                          first->clusterRef());
   new_sc.setCorrectedEnergy(corrSCEnergy);
   new_sc.setSeed(clusptr);
   new_sc.setPreshowerEnergyPlane1(ps1_energy);
   new_sc.setPreshowerEnergyPlane2(ps2_energy);
   new_sc.setPreshowerEnergy(corrPSEnergy); 
   for( const auto& clus : RO.ecalclusters ) {
     clusptr = 
       edm::refToPtr<reco::PFClusterCollection>(clus.first->clusterRef());
     new_sc.addCluster(clusptr);
     auto& hits_and_fractions = clusptr->hitsAndFractions();
     for( auto& hit_and_fraction : hits_and_fractions ) {
       new_sc.addHitAndFraction(hit_and_fraction.first,hit_and_fraction.second);
     }
      // put the preshower stuff back in later
     if( RO.ecal2ps.count(clus.first) ) {
       const auto& cluspsassociation = RO.ecal2ps.at(clus.first);
       // EE rechits should be uniquely matched to sets of pre-shower
       // clusters at this point, so we throw an exception if otherwise
       // now wrapped in EDM debug flags
       for( const auto& pscluselem : cluspsassociation ) {    
     edm::Ptr<reco::PFCluster> psclus = 
       edm::refToPtr<reco::PFClusterCollection>(pscluselem.first->
                            clusterRef());
 #ifdef PFFLOW_DEBUG
     auto found_pscluster = std::find(new_sc.preshowerClustersBegin(),
                      new_sc.preshowerClustersEnd(),
                      reco::CaloClusterPtr(psclus));
     if( found_pscluster == new_sc.preshowerClustersEnd() ) {
 #endif        
       new_sc.addPreshowerCluster(psclus);
 #ifdef PFFLOW_DEBUG
     } else {
       throw cms::Exception("PFECALSuperClusterAlgo::buildSuperCluster")
         << "Found a PS cluster matched to more than one EE cluster!" 
         << std::endl << std::hex << psclus.get() << " == " 
         << found_pscluster->get() << std::dec << std::endl;
     }
 #endif
       }    
     }
   }
   
   // calculate linearly weighted cluster widths
   PFClusterWidthAlgo pfwidth(bare_ptrs);
   new_sc.setEtaWidth(pfwidth.pflowEtaWidth());
   new_sc.setPhiWidth(pfwidth.pflowPhiWidth());
   
   // cache the value of the raw energy  
   new_sc.rawEnergy();
   
   return new_sc;
 }

float PFEGammaAlgo::calculateEleMVA	(	const pfEGHelpers::HeavyObjectCache *	hoc,
		const ProtoEGObject &	ro,
		reco::PFCandidateEGammaExtra &	xtra
	)		const

private

Definition at line 1905 of file PFEGammaAlgo.cc.

Referenced by fillPFCandidates().

 {
   if( ro.primaryGSFs.empty() ) 
   {
     return -2.0f;
   }
   const PFGSFElement* gsfElement = ro.primaryGSFs.front().first;
   const PFKFElement*  kfElement  = nullptr;
   if( !ro.primaryKFs.empty() )
   {
     kfElement = ro.primaryKFs.front().first;
   }
   reco::GsfTrackRef refGsf = gsfElement->GsftrackRef();
   reco::TrackRef refKf;
   constexpr float mEl = 0.000511;
   const double eInGsf = std::hypot(refGsf->pMode(),mEl);
   double dEtGsfEcal   = 1e6;
   double sigmaEtaEta  = 1e-14;
   const double eneHcalGsf = std::accumulate(
                          ro.hcalClusters.begin(),
                          ro.hcalClusters.end(),
                          0.0,
                          [](const double a, const PFClusterFlaggedElement& b) 
                            { return a + b.first->clusterRef()->energy(); }
                          );
   if( !ro.primaryKFs.empty() )
   {
     refKf = ro.primaryKFs.front().first->trackRef();
   }
   const double eOutGsf   = gsfElement->Pout().t();
   const double etaOutGsf = gsfElement->positionAtECALEntrance().eta();
   double firstEcalGsfEnergy {0.0};
   double otherEcalGsfEnergy {0.0};
   double ecalBremEnergy     {0.0};
   //shower shape of cluster closest to gsf track
   std::vector<const reco::PFCluster*> gsfCluster;  
   for( const auto& ecal : ro.ecalclusters )
   {
     const double cenergy = ecal.first->clusterRef()->correctedEnergy();
     ElementMap::value_type gsfToEcal(gsfElement,ecal.first);
     ElementMap::value_type kfToEcal(kfElement,ecal.first);
     bool hasgsf  = ( std::find(ro.localMap.begin(), ro.localMap.end(), gsfToEcal) == ro.localMap.end() );
     bool haskf   = ( std::find(ro.localMap.begin(), ro.localMap.end(), kfToEcal) == ro.localMap.end() );
     bool hasbrem = false;
     for( const auto& brem : ro.brems )
     {
       ElementMap::value_type bremToEcal(brem.first,ecal.first);
       if( std::find(ro.localMap.begin(), ro.localMap.end(), bremToEcal) != ro.localMap.end() )
       {
         hasbrem = true;
       }
     }
     if( hasbrem && ecal.first != ro.electronClusters[0] )
     {
       ecalBremEnergy += cenergy;
     } 
     if( !hasbrem && ecal.first != ro.electronClusters[0] )
     {
       if( hasgsf ) otherEcalGsfEnergy += cenergy;
       if( haskf  ) ecalBremEnergy += cenergy; // from conv. brem!
       if( !(hasgsf || haskf) ) otherEcalGsfEnergy += cenergy; // stuff from SC
     }
   }
   
   if( ro.electronClusters[0] )
   {
     reco::PFClusterRef cref = ro.electronClusters[0]->clusterRef();
     xtra.setGsfElectronClusterRef(_currentblock,*(ro.electronClusters[0]));
     firstEcalGsfEnergy = cref->correctedEnergy();    
     dEtGsfEcal = cref->positionREP().eta() - etaOutGsf;
     gsfCluster.push_back(cref.get());
     PFClusterWidthAlgo pfwidth(gsfCluster);
     sigmaEtaEta = pfwidth.pflowSigmaEtaEta();
   } 
 
   // brem sequence information
   float firstBrem {-1.0f};
   float earlyBrem {-1.0f};
   float lateBrem  {-1.0f};
   if(ro.nBremsWithClusters > 0)
   {
     firstBrem = ro.firstBrem;
     earlyBrem = ro.firstBrem < 4 ? 1.0f : 0.0f;
     lateBrem  = ro.lateBrem == 1 ? 1.0f : 0.0f;
   }     
   xtra.setEarlyBrem(earlyBrem);
   xtra.setLateBrem(lateBrem);
   if( firstEcalGsfEnergy > 0.0 )
   {
     if( refGsf.isNonnull() )
     {
       xtra.setGsfTrackPout(gsfElement->Pout());
       // normalization observables
       const float ptGsf   = refGsf->ptMode();
       const float etaGsf  = refGsf->etaMode();
       // tracking observables
       const double ptModeErrorGsf = refGsf->ptModeError();
       float ptModeErrOverPtGsf    = (ptModeErrorGsf > 0. ? ptModeErrorGsf/ptGsf : 1.0);
       float chi2Gsf               = refGsf->normalizedChi2();
       float dPtOverPtGsf          = (ptGsf - gsfElement->Pout().pt())/ptGsf;
       // kalman filter vars
       float nHitKf      = refKf.isNonnull() ? refKf->hitPattern().trackerLayersWithMeasurement() : 0;
       float chi2Kf      = refKf.isNonnull() ? refKf->normalizedChi2() : -0.01;
 
       //tracker + calorimetry observables
       float eTotPinMode         = (firstEcalGsfEnergy+otherEcalGsfEnergy+ecalBremEnergy)/ eInGsf;
       float eGsfPoutMode        = firstEcalGsfEnergy / eOutGsf;
       float eTotBremPinPoutMode = (ecalBremEnergy + otherEcalGsfEnergy) / (eInGsf - eOutGsf);
       float dEtaGsfEcalClust    = std::abs(dEtGsfEcal);
       float logSigmaEtaEta      = std::log(sigmaEtaEta);
       float hOverHe             = eneHcalGsf/(eneHcalGsf + firstEcalGsfEnergy);
 
       xtra.setDeltaEta(dEtaGsfEcalClust);
       xtra.setSigmaEtaEta(sigmaEtaEta);      
       xtra.setHadEnergy(eneHcalGsf);
 
       // Apply bounds to variables and calculate MVA
       dPtOverPtGsf        = std::clamp(dPtOverPtGsf, -0.2f, 1.0f);
       ptModeErrOverPtGsf  = std::min(ptModeErrOverPtGsf,0.3f);  
       chi2Gsf             = std::min(chi2Gsf,10.0f);  
       chi2Kf              = std::min(chi2Kf,10.0f);  
       eTotPinMode         = std::clamp(eTotPinMode,0.0f, 5.0f);  
       eGsfPoutMode        = std::clamp(eGsfPoutMode,0.0f, 5.0f);  
       eTotBremPinPoutMode = std::clamp(eTotBremPinPoutMode,0.0f, 5.0f);  
       dEtaGsfEcalClust    = std::min(dEtaGsfEcalClust,0.1f);  
       logSigmaEtaEta      = std::max(logSigmaEtaEta,-14.0f);  
 
       // not used for moment, weird behavior of variable
       //float dPtOverPtKf = refKf.isNonnull() ? (refKf->pt() - refKf->outerPt())/refKf->pt() : -0.01;
       //dPtOverPtKf       = std::clamp(dPtOverPtKf,-0.2f, 1.0f);
 
 /*
  *      To be used for debugging:
  *      pretty-print the PFEgamma electron MVA input variables
  *
  *      std::cout << " **** PFEG BDT observables ****" << endl;
  *      std::cout << " < Normalization > " << endl;
  *      std::cout << " ptGsf " << ptGsf << " Pin " << eInGsf
  *        << " Pout " << eOutGsf << " etaGsf " << etaGsf << endl;
  *      std::cout << " < PureTracking > " << endl;
  *      std::cout << " ptModeErrOverPtGsf " << ptModeErrOverPtGsf 
  *        << " dPtOverPtGsf " << dPtOverPtGsf
  *        << " chi2Gsf " << chi2Gsf
  *        << " nhit_gsf " << nhit_gsf
  *        << " dPtOverPtKf " << dPtOverPtKf
  *        << " chi2Kf " << chi2Kf 
  *        << " nHitKf " << nHitKf <<  endl;
  *      std::cout << " < track-ecal-hcal-ps " << endl;
  *      std::cout << " eTotPinMode " << eTotPinMode 
  *        << " eGsfPoutMode " << eGsfPoutMode
  *        << " eTotBremPinPoutMode " << eTotBremPinPoutMode
  *        << " dEtaGsfEcalClust " << dEtaGsfEcalClust 
  *        << " logSigmaEtaEta " << logSigmaEtaEta
  *        << " hOverHe " << hOverHe << " Hcal energy " << eneHcalGsf
  *        << " lateBrem " << lateBrem
  *        << " firstBrem " << firstBrem << endl;
  */
 
       float vars[] = { std::log(ptGsf), etaGsf, ptModeErrOverPtGsf, dPtOverPtGsf, chi2Gsf,
                        nHitKf, chi2Kf, eTotPinMode, eGsfPoutMode, eTotBremPinPoutMode,
                        dEtaGsfEcalClust, logSigmaEtaEta, hOverHe, lateBrem, firstBrem };
 
       return hoc->gbrEle_->GetAdaBoostClassifier(vars);
     }
   }
   return -2.0f;
 }

void PFEGammaAlgo::dumpCurrentRefinableObjects ( ) const

private

Definition at line 1128 of file PFEGammaAlgo.cc.

References _refinableObjects, info(), and removeOrLinkECALClustersToKFTracks().

Referenced by buildAndRefineEGObjects().

                                                       {
  #ifdef PFLOW_DEBUG
    edm::LogVerbatim("PFEGammaAlgo") 
      //<< "Dumping current block: " << std::endl << *_currentblock << std::endl
      << "Dumping " << _refinableObjects.size()
      << " refinable objects for this block: " << std::endl;
    for( const auto& ro : _refinableObjects ) {    
      std::stringstream info;
      info << "Refinable Object:" << std::endl;
      if( ro.parentSC ) {
        info << "\tSuperCluster element attached to object:" << std::endl 
         << '\t';
        ro.parentSC->Dump(info,"\t");
        info << std::endl;      
      } 
      if( ro.electronSeed.isNonnull() ) {
        info << "\tGSF element attached to object:" << std::endl;
        ro.primaryGSFs.front().first->Dump(info,"\t");
        info << std::endl;
        info << "firstBrem : " << ro.firstBrem 
         << " lateBrem : " << ro.lateBrem
         << " nBrems with cluster : " << ro.nBremsWithClusters
         << std::endl;;
        if( ro.electronClusters.size() && ro.electronClusters[0] ) {
      info << "electron cluster : ";
      ro.electronClusters[0]->Dump(info,"\t");
      info << std::endl;
        } else {
      info << " no electron cluster." << std::endl;
        }     
      }
      if( ro.primaryKFs.size() ) {
        info << "\tPrimary KF tracks attached to object: " << std::endl;
        for( const auto& kf : ro.primaryKFs ) {
      kf.first->Dump(info,"\t");
      info << std::endl;
        }
      }
      if( ro.secondaryKFs.size() ) {
        info << "\tSecondary KF tracks attached to object: " << std::endl;
        for( const auto& kf : ro.secondaryKFs ) {
      kf.first->Dump(info,"\t");
      info << std::endl;
        }
      }
      if( ro.brems.size() ) {
        info << "\tBrem tangents attached to object: " << std::endl;
        for( const auto& brem : ro.brems ) {
      brem.first->Dump(info,"\t");
      info << std::endl;
        }
      }
      if( ro.ecalclusters.size() ) {
        info << "\tECAL clusters attached to object: " << std::endl;
        for( const auto& clus : ro.ecalclusters ) {
      clus.first->Dump(info,"\t");
      info << std::endl;
      if( ro.ecal2ps.find(clus.first) != ro.ecal2ps.end() ) {
        for( const auto& psclus : ro.ecal2ps.at(clus.first) ) {
          info << "\t\t Attached PS Cluster: ";
          psclus.first->Dump(info,"");
          info << std::endl;
        }
      }
        }
      }
      edm::LogVerbatim("PFEGammaAlgo") << info.str();
    }
  #endif
  }

float PFEGammaAlgo::evaluateSingleLegMVA	(	const pfEGHelpers::HeavyObjectCache *	hoc,
		const reco::PFBlockRef &	blockref,
		const reco::Vertex &	primaryVtx,
		unsigned int	trackIndex
	)

private

Definition at line 585 of file PFEGammaAlgo.cc.

References reco::PFBlock::associatedElements(), groupFilesInBlocks::block, vertices_cff::chi2, delPhi(), hiPixelPairStep_cff::deltaPhi, reco::PFBlockElement::ECAL, allElectronIsolations_cfi::elements, reco::PFBlock::elements(), pfEGHelpers::HeavyObjectCache::gbrSingleLeg_, reco::PFBlockElement::HCAL, reco::PFBlock::linkData(), reco::PFBlock::LINKTEST_ALL, MuonTCMETValueMapProducer_cff::nLayers, colinearityKinematic::Phi, PV3DBase< T, PVType, FrameType >::phi(), listHistos::trackPt, X, reco::Vertex::x(), reco::Vertex::y(), and reco::Vertex::z().

Referenced by fillPFCandidates(), and linkRefinableObjectECALToSingleLegConv().

 {
   const reco::PFBlock& block = *blockRef;  
   const edm::OwnVector< reco::PFBlockElement >& elements = block.elements();  
   //use this to store linkdata in the associatedElements function below  
   const PFBlock::LinkData& linkData =  block.linkData();  
   //calculate MVA Variables  
   const float chi2     = elements[trackIndex].trackRef()->chi2()/elements[trackIndex].trackRef()->ndof(); 
   const float nlost    = elements[trackIndex].trackRef()->hitPattern().numberOfLostHits(HitPattern::MISSING_INNER_HITS); 
   const float nLayers  = elements[trackIndex].trackRef()->hitPattern().trackerLayersWithMeasurement(); 
   const float trackPt  = elements[trackIndex].trackRef()->pt();  
   const float stip     = elements[trackIndex].trackRefPF()->STIP();  
    
   float linkedE = 0;
   float linkedH = 0;
   std::multimap<double, unsigned int> ecalAssoTrack;  
   block.associatedElements(trackIndex,linkData,  
                            ecalAssoTrack,  
                            reco::PFBlockElement::ECAL,  
                            reco::PFBlock::LINKTEST_ALL );  
   std::multimap<double, unsigned int> hcalAssoTrack;  
   block.associatedElements(trackIndex,linkData,  
                            hcalAssoTrack,  
                            reco::PFBlockElement::HCAL,  
                            reco::PFBlock::LINKTEST_ALL );  
   if(!ecalAssoTrack.empty())
   {
     for (auto & itecal : ecalAssoTrack)
     {
       linkedE = linkedE+elements[itecal.second].clusterRef()->energy();  
     }  
   }  
   if(!hcalAssoTrack.empty())
   {
     for (auto & ithcal : hcalAssoTrack)
     {
       linkedH = linkedH+elements[ithcal.second].clusterRef()->energy();  
     }  
   }  
   const float eOverPt = linkedE / elements[trackIndex].trackRef()->pt();  
   const float hOverPt = linkedH / elements[trackIndex].trackRef()->pt();  
   GlobalVector rvtx(elements[trackIndex].trackRef()->innerPosition().X()-primaryVtx.x(),  
                     elements[trackIndex].trackRef()->innerPosition().Y()-primaryVtx.y(),  
                     elements[trackIndex].trackRef()->innerPosition().Z()-primaryVtx.z());  
   double vtxPhi = rvtx.phi();  
   //delta Phi between conversion vertex and track  
   float delPhi = fabs(deltaPhi(vtxPhi, elements[trackIndex].trackRef()->innerMomentum().Phi()));  
   
   float vars[] = { delPhi, nLayers, chi2, eOverPt,
                    hOverPt, trackPt, stip, nlost };
 
   return hoc->gbrSingleLeg_->GetAdaBoostClassifier(vars);
 }

void PFEGammaAlgo::fillExtraInfo	(	const ProtoEGObject &	RO,
		reco::PFCandidateEGammaExtra &	xtra
	)

private

Definition at line 2075 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, reco::PFCandidateEGammaExtra::addExtraNonConvTrack(), buildRefinedSuperCluster(), docast, digitizers_cfi::ecal, reco::PFBlockElement::ECAL, PFEGammaAlgo::ProtoEGObject::ecalclusters, and reco::PFBlockElement::TRACK.

Referenced by fillPFCandidates().

                                                                     {
   // add tracks associated to clusters that are not T_FROM_GAMMACONV
   // info about single-leg convs is already save, so just veto in loops
   auto KFbegin = _splayedblock[reco::PFBlockElement::TRACK].begin();
   auto KFend = _splayedblock[reco::PFBlockElement::TRACK].end();  
   for( auto& ecal : RO.ecalclusters ) {
     NotCloserToOther<reco::PFBlockElement::ECAL,
                      reco::PFBlockElement::TRACK,
                      true>
       ECALToTracks(_currentblock,ecal.first);           
     auto notmatchedkf  = std::partition(KFbegin,KFend,ECALToTracks);
     auto notconvkf     = std::partition(KFbegin,notmatchedkf,isConversionTrack);
     // go through non-conv-identified kfs and check MVA to add conversions
     for( auto kf = notconvkf; kf != notmatchedkf; ++kf ) {      
       const reco::PFBlockElementTrack* elemaskf =
     docast(const reco::PFBlockElementTrack*,kf->first);
       xtra.addExtraNonConvTrack(_currentblock,*elemaskf);   
     }
   }
 }

void PFEGammaAlgo::fillPFCandidates	(	const pfEGHelpers::HeavyObjectCache *	hoc,
		const std::list< ProtoEGObject > &	,
		reco::PFCandidateCollection &	,
		reco::PFCandidateEGammaExtraCollection &
	)

private

Definition at line 1760 of file PFEGammaAlgo.cc.

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectSecondaryKFsToECAL().

                                                      {
   // reset output collections
   egcands.clear();
   egxs.clear();  
   refinedscs_.clear();
   egcands.reserve(ROs.size());
   egxs.reserve(ROs.size());
   refinedscs_.reserve(ROs.size());
   for( auto& RO : ROs ) {    
     if( RO.ecalclusters.empty()  && 
     !cfg_.produceEGCandsWithNoSuperCluster ) continue;
     
     reco::PFCandidate cand;
     reco::PFCandidateEGammaExtra xtra;
     if( !RO.primaryGSFs.empty() || !RO.primaryKFs.empty() ) {
       cand.setPdgId(-11); // anything with a primary track is an electron
     } else {
       cand.setPdgId(22); // anything with no primary track is a photon
     }    
     if( !RO.primaryKFs.empty() ) {
       cand.setCharge(RO.primaryKFs[0].first->trackRef()->charge());
       xtra.setKfTrackRef(RO.primaryKFs[0].first->trackRef());
       cand.setTrackRef(RO.primaryKFs[0].first->trackRef());
       cand.addElementInBlock(_currentblock,RO.primaryKFs[0].first->index());
     }
     if( !RO.primaryGSFs.empty() ) {        
       cand.setCharge(RO.primaryGSFs[0].first->GsftrackRef()->chargeMode());
       xtra.setGsfTrackRef(RO.primaryGSFs[0].first->GsftrackRef());
       cand.setGsfTrackRef(RO.primaryGSFs[0].first->GsftrackRef());
       cand.addElementInBlock(_currentblock,RO.primaryGSFs[0].first->index());
     }
     if( RO.parentSC ) {
       xtra.setSuperClusterPFECALRef(RO.parentSC->superClusterRef());      
       // we'll set to the refined supercluster back up in the producer
       cand.setSuperClusterRef(RO.parentSC->superClusterRef());
       xtra.setSuperClusterRef(RO.parentSC->superClusterRef());      
       cand.addElementInBlock(_currentblock,RO.parentSC->index());
     }
     // add brems
     for( const auto& bremflagged : RO.brems ) {
       const PFBremElement* brem = bremflagged.first;
       cand.addElementInBlock(_currentblock,brem->index());      
     }
     // add clusters and ps clusters
     for( const auto& ecal : RO.ecalclusters ) {
       const PFClusterElement* clus = ecal.first;
       cand.addElementInBlock(_currentblock,clus->index());      
       if( RO.ecal2ps.count(clus) ) {
     for( auto& ps : RO.ecal2ps.at(clus) ) {
       const PFClusterElement* psclus = ps.first;
       cand.addElementInBlock(_currentblock,psclus->index());    
     }
       }
     }
     // add secondary tracks
     for( const auto& secdkf : RO.secondaryKFs ) {
       const PFKFElement* kf = secdkf.first;
       cand.addElementInBlock(_currentblock,kf->index());
       const reco::ConversionRefVector& convrefs = kf->convRefs();
       bool no_conv_ref = true;
       for( const auto& convref : convrefs ) {
     if( convref.isNonnull() && convref.isAvailable() ) {
       xtra.addConversionRef(convref);
       no_conv_ref = false;
     }
       }
       if( no_conv_ref ) {
         //single leg conversions
         
         //look for stored mva value in map or else recompute
         const auto &mvavalmapped = RO.singleLegConversionMvaMap.find(kf);
         //FIXME: Abuse single mva value to store both provenance and single leg mva score
         //by storing 3.0 + mvaval
         float mvaval = ( mvavalmapped != RO.singleLegConversionMvaMap.end() ? 
                          mvavalmapped->second : 
                          3.0 + evaluateSingleLegMVA(hoc,_currentblock,
                                                     *cfg_.primaryVtx, 
                                                     kf->index()) );
         
         xtra.addSingleLegConvTrackRefMva(std::make_pair(kf->trackRef(),mvaval));
       }
     }
     
     // build the refined supercluster from those clusters left in the cand
     refinedscs_.push_back(buildRefinedSuperCluster(RO));
 
     //*TODO* cluster time is not reliable at the moment, so only use track timing
     float trkTime = 0, trkTimeErr = -1;
     if (!RO.primaryGSFs.empty() && RO.primaryGSFs[0].first->isTimeValid()) {
         trkTime = RO.primaryGSFs[0].first->time();
         trkTimeErr = RO.primaryGSFs[0].first->timeError();
     } else if (!RO.primaryKFs.empty() && RO.primaryKFs[0].first->isTimeValid()) {
         trkTime = RO.primaryKFs[0].first->time();
         trkTimeErr = RO.primaryKFs[0].first->timeError();
     }
     if (trkTimeErr >= 0) {
       cand.setTime( trkTime, trkTimeErr );
     }
     
     const reco::SuperCluster& the_sc = refinedscs_.back();
     // with the refined SC in hand we build a naive candidate p4 
     // and set the candidate ECAL position to either the barycenter of the 
     // supercluster (if super-cluster present) or the seed of the
     // new SC generated by the EGAlgo 
     const double scE = the_sc.energy();
     if( scE != 0.0 ) {
       const math::XYZPoint& seedPos = the_sc.seed()->position();
       math::XYZVector egDir = the_sc.position()-cfg_.primaryVtx->position();
       egDir = egDir.Unit();      
       cand.setP4(math::XYZTLorentzVector(scE*egDir.x(),
                      scE*egDir.y(),
                      scE*egDir.z(),
                      scE           ));
       math::XYZPointF ecalPOS_f(seedPos.x(),seedPos.y(),seedPos.z());
       cand.setPositionAtECALEntrance(ecalPOS_f);
       cand.setEcalEnergy(the_sc.rawEnergy(),the_sc.energy());
     } else if ( cfg_.produceEGCandsWithNoSuperCluster && 
         !RO.primaryGSFs.empty() ) {
       const PFGSFElement* gsf = RO.primaryGSFs[0].first;
       const reco::GsfTrackRef& gref = gsf->GsftrackRef();
       math::XYZTLorentzVector p4(gref->pxMode(),gref->pyMode(),
                  gref->pzMode(),gref->pMode());
       cand.setP4(p4);      
       cand.setPositionAtECALEntrance(gsf->positionAtECALEntrance());
     } else if ( cfg_.produceEGCandsWithNoSuperCluster &&
         !RO.primaryKFs.empty() ) {
       const PFKFElement* kf = RO.primaryKFs[0].first;
       reco::TrackRef kref = RO.primaryKFs[0].first->trackRef();
       math::XYZTLorentzVector p4(kref->px(),kref->py(),kref->pz(),kref->p());
       cand.setP4(p4);   
       cand.setPositionAtECALEntrance(kf->positionAtECALEntrance());
     }    
     const float eleMVAValue = calculateEleMVA(hoc,RO,xtra);
     fillExtraInfo(RO,xtra);
     //std::cout << "PFEG eleMVA: " << eleMVAValue << std::endl;
     xtra.setMVA(eleMVAValue);    
     cand.set_mva_e_pi(eleMVAValue);
     egcands.push_back(cand);
     egxs.push_back(xtra);    
   }
 }

reco::PFCandidateCollection& PFEGammaAlgo::getCandidates ( )

inline

Definition at line 135 of file PFEGammaAlgo.h.

References outcands_.

135 {return outcands_;}

PFEGammaAlgo::outcands_

reco::PFCandidateCollection outcands_

Definition: PFEGammaAlgo.h:152

reco::PFCandidateEGammaExtraCollection& PFEGammaAlgo::getEGExtra ( )

inline

Definition at line 138 of file PFEGammaAlgo.h.

References outcandsextra_.

138 {return outcandsextra_;}

PFEGammaAlgo::outcandsextra_

reco::PFCandidateEGammaExtraCollection outcandsextra_

Definition: PFEGammaAlgo.h:153

reco::SuperClusterCollection& PFEGammaAlgo::getRefinedSCs ( )

inline

Definition at line 141 of file PFEGammaAlgo.h.

References groupFilesInBlocks::block, buildAndRefineEGObjects(), and refinedscs_.

141 {return refinedscs_;}

PFEGammaAlgo::refinedscs_

reco::SuperClusterCollection refinedscs_

Definition: PFEGammaAlgo.h:154

void PFEGammaAlgo::initializeProtoCands ( std::list< ProtoEGObject > & )

private

Definition at line 800 of file PFEGammaAlgo.cc.

Referenced by buildAndRefineEGObjects().

                                                                  {
   // step 1: build SC based proto-candidates
   // in the future there will be an SC Et requirement made here to control
   // block size
   for( auto& element : _splayedblock[PFBlockElement::SC] ) {
     LOGDRESSED("PFEGammaAlgo") 
       << "creating SC-based proto-object" << std::endl
       << "\tSC at index: " << element.first->index() 
       << " has type: " << element.first->type() << std::endl;
     element.second = false;
     ProtoEGObject fromSC;
     fromSC.nBremsWithClusters = -1;
     fromSC.firstBrem = -1;
     fromSC.lateBrem = -1;
     fromSC.parentBlock = _currentblock;
     fromSC.parentSC = docast(const PFSCElement*,element.first);
     // splay the supercluster so we can knock out used elements
     bool sc_success = 
       unwrapSuperCluster(fromSC.parentSC,fromSC.ecalclusters,fromSC.ecal2ps);
     if( sc_success ) {
       /*
       auto ins_pos = std::lower_bound(_refinableObjects.begin(),
                       _refinableObjects.end(),
                       fromSC,
                       [&](const ProtoEGObject& a,
                       const ProtoEGObject& b){
                     const double a_en = 
                     a.parentSC->superClusterRef()->energy();
                     const double b_en = 
                     b.parentSC->superClusterRef()->energy();
                     return a_en < b_en;
                       });
       */
       _refinableObjects.insert(_refinableObjects.end(),fromSC);
     }
   }
   // step 2: build GSF-seed-based proto-candidates
   reco::GsfTrackRef gsfref_forextra;
   reco::TrackExtraRef gsftrk_extra;
   reco::ElectronSeedRef theseedref; 
   for( auto& element : _splayedblock[PFBlockElement::GSF] ) {
     LOGDRESSED("PFEGammaAlgo") 
       << "creating GSF-based proto-object" << std::endl
       << "\tGSF at index: " << element.first->index() 
       << " has type: " << element.first->type() << std::endl;
     const PFGSFElement* elementAsGSF = 
       docast(const PFGSFElement*,element.first);
     if( elementAsGSF->trackType(reco::PFBlockElement::T_FROM_GAMMACONV) ) {
       continue; // for now, do not allow dedicated brems to make proto-objects
     }
     element.second = false;
     
     ProtoEGObject fromGSF;  
     fromGSF.nBremsWithClusters = -1;
     fromGSF.firstBrem = -1;
     fromGSF.lateBrem = 0;
     gsfref_forextra = elementAsGSF->GsftrackRef();
     gsftrk_extra = ( gsfref_forextra.isAvailable() ? 
              gsfref_forextra->extra() : reco::TrackExtraRef() );
     theseedref = ( gsftrk_extra.isAvailable() ?
            gsftrk_extra->seedRef().castTo<reco::ElectronSeedRef>() :
            reco::ElectronSeedRef() );  
     fromGSF.electronSeed = theseedref;
     // exception if there's no seed
     if(fromGSF.electronSeed.isNull() || !fromGSF.electronSeed.isAvailable()) {
       std::stringstream gsf_err;
       elementAsGSF->Dump(gsf_err,"\t");
       throw cms::Exception("PFEGammaAlgo::initializeProtoCands()")
     << "Found a GSF track with no seed! This should not happen!" 
     << std::endl << gsf_err.str() << std::endl;
     }
     // flag this GSF element as globally used and push back the track ref
     // into the protocand
     element.second = false;
     fromGSF.parentBlock = _currentblock;
     fromGSF.primaryGSFs.emplace_back(elementAsGSF,true);
     // add the directly matched brem tangents    
     for( auto& brem : _splayedblock[PFBlockElement::BREM] ) {
       float dist = _currentblock->dist(elementAsGSF->index(),
                        brem.first->index(),
                        _currentlinks,
                        reco::PFBlock::LINKTEST_ALL);
       if( dist == 0.001f ) {
     const PFBremElement* eAsBrem = 
       docast(const PFBremElement*,brem.first);
     fromGSF.brems.emplace_back(eAsBrem,true);
     fromGSF.localMap.emplace_back(eAsBrem,elementAsGSF);
     fromGSF.localMap.emplace_back(elementAsGSF,eAsBrem);
      brem.second = false;
        }
      }
      // if this track is ECAL seeded reset links or import cluster
      // tracker (this is pixel only, right?) driven seeds just get the GSF
      // track associated since this only branches for ECAL Driven seeds
      if( fromGSF.electronSeed->isEcalDriven() ) {
        // step 2a: either merge with existing ProtoEG object with SC or add 
        //          SC directly to this proto EG object if not present
        LOGDRESSED("PFEGammaAlgo")
      << "GSF-based proto-object is ECAL driven, merging SC-cand"
      << std::endl;
        LOGVERB("PFEGammaAlgo")
      << "ECAL Seed Ptr: " << fromGSF.electronSeed.get() 
      << " isAvailable: " << fromGSF.electronSeed.isAvailable() 
      << " isNonnull: " << fromGSF.electronSeed.isNonnull() 
      << std::endl;           
        SeedMatchesToProtoObject sctoseedmatch(fromGSF.electronSeed);      
        std::list<ProtoEGObject>::iterator objsbegin = _refinableObjects.begin();
        std::list<ProtoEGObject>::iterator objsend   = _refinableObjects.end();
        // this auto is a std::list<ProtoEGObject>::iterator
        auto clusmatch = std::find_if(objsbegin,objsend,sctoseedmatch);
        if( clusmatch != objsend ) {
      fromGSF.parentSC = clusmatch->parentSC;
      fromGSF.ecalclusters = std::move(clusmatch->ecalclusters);
      fromGSF.ecal2ps  = std::move(clusmatch->ecal2ps);
      _refinableObjects.erase(clusmatch);    
        } else if (fromGSF.electronSeed.isAvailable()  && 
           fromGSF.electronSeed.isNonnull()) {
      // link tests in the gap region can current split a gap electron
      // HEY THIS IS A WORK AROUND FOR A KNOWN BUG IN PFBLOCKALGO
      // MAYBE WE SHOULD FIX IT??????????????????????????????????
      LOGDRESSED("PFEGammaAlgo")
        << "Encountered the known GSF-SC splitting bug "
        << " in PFBlockAlgo! We should really fix this!" << std::endl; 
        } else { // SC was not in a earlier proto-object 
      std::stringstream gsf_err;
      elementAsGSF->Dump(gsf_err,"\t");
      throw cms::Exception("PFEGammaAlgo::initializeProtoCands()")
        << "Expected SuperCluster from ECAL driven GSF seed "
        << "was not found in the block!" << std::endl 
        << gsf_err.str() << std::endl;
        } // supercluster in block
      } // is ECAL driven seed?   
      /*
      auto ins_pos = std::lower_bound(_refinableObjects.begin(),
                      _refinableObjects.end(),
                      fromGSF,
                      [&](const ProtoEGObject& a,
                      const ProtoEGObject& b){
                        const double a_en = ( a.parentSC ?
                                  a.parentSC->superClusterRef()->energy() :
                                  a.primaryGSFs[0].first->GsftrackRef()->pt() );
                        const double b_en = ( b.parentSC ?
                                  b.parentSC->superClusterRef()->energy() :
                                  b.primaryGSFs[0].first->GsftrackRef()->pt() );
                        return a_en < b_en;
                      });   
      */
      _refinableObjects.insert(_refinableObjects.end(),fromGSF);
    } // end loop on GSF elements of block
 }

bool PFEGammaAlgo::isMuon ( const reco::PFBlockElement & pfbe )

private

Definition at line 642 of file PFEGammaAlgo.cc.

References _currentblock, _currentlinks, allElectronIsolations_cfi::elements, reco::PFBlockElement::GSF, reco::PFBlockElement::index(), PFMuonAlgo::isMuon(), reco::PFBlock::LINKTEST_ALL, reco::PFBlockElement::TRACK, and reco::PFBlockElement::type().

Referenced by buildAndRefineEGObjects().

                                                         {
   switch( pfbe.type() ) {
   case reco::PFBlockElement::GSF:    
     {
       auto& elements = _currentblock->elements();
       std::multimap<double,unsigned> tks;
       _currentblock->associatedElements(pfbe.index(),
                     _currentlinks,
                     tks,
                     reco::PFBlockElement::TRACK,
                     reco::PFBlock::LINKTEST_ALL);      
       for( const auto& tk : tks ) {
     if( PFMuonAlgo::isMuon(elements[tk.second]) ) {
       return true;
     }
       }
     }
     break;
   case reco::PFBlockElement::TRACK:
     return PFMuonAlgo::isMuon(pfbe);
     break;
   default:
     break;
   }
   return false;
 }

bool PFEGammaAlgo::isPrimaryTrack	(	const reco::PFBlockElementTrack &	KfEl,
		const reco::PFBlockElementGsfTrack &	GsfEl
	)

private

Definition at line 2441 of file PFEGammaAlgo.cc.

References reco::PFBlockElementGsfTrack::GsftrackRefPF(), edm::Ref< C, T, F >::isNonnull(), and reco::PFBlockElementTrack::trackRefPF().

Referenced by linkRefinableObjectGSFTracksToKFs().

                                                              {
   bool isPrimary = false;
   
   const GsfPFRecTrackRef& gsfPfRef = GsfEl.GsftrackRefPF();
   
   if(gsfPfRef.isNonnull()) {
     const PFRecTrackRef&  kfPfRef = KfEl.trackRefPF();
     PFRecTrackRef  kfPfRef_fromGsf = (*gsfPfRef).kfPFRecTrackRef();
     if(kfPfRef.isNonnull() && kfPfRef_fromGsf.isNonnull()) {
       reco::TrackRef kfref= (*kfPfRef).trackRef();
       reco::TrackRef kfref_fromGsf = (*kfPfRef_fromGsf).trackRef();
       if(kfref.isNonnull() && kfref_fromGsf.isNonnull()) {
     if(kfref ==  kfref_fromGsf)
       isPrimary = true;
       }
     }
   }
 
   return isPrimary;
 }

void PFEGammaAlgo::linkKFTrackToECAL	(	const PFKFFlaggedElement &	,
		ProtoEGObject &
	)

private

Definition at line 1543 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, attachPSClusters(), docast, reco::PFBlockElement::ECAL, PFEGammaAlgo::ProtoEGObject::ecal2ps, PFEGammaAlgo::ProtoEGObject::ecalclusters, linkRefinableObjectBremTangentsToECAL(), PFEGammaAlgo::ProtoEGObject::localMap, and LOGDRESSED.

Referenced by linkRefinableObjectKFTracksToECAL().

                                    {
   std::vector<PFClusterFlaggedElement>& currentECAL = RO.ecalclusters;
   auto ECALbegin = _splayedblock[reco::PFBlockElement::ECAL].begin();
   auto ECALend = _splayedblock[reco::PFBlockElement::ECAL].end();  
   NotCloserToOther<reco::PFBlockElement::TRACK,reco::PFBlockElement::ECAL>
     kfTrackToECALs(_currentblock,kfflagged.first);      
   NotCloserToOther<reco::PFBlockElement::GSF,reco::PFBlockElement::ECAL>
     kfTrackGSFToECALs(_currentblock,kfflagged.first);
   //get the ECAL elements not used and not closer to another KF
   auto notmatched_sc = std::partition(currentECAL.begin(),
                       currentECAL.end(),
                       kfTrackToECALs);
   //get subset ECAL elements not used or closer to another GSF of any type
   notmatched_sc = std::partition(currentECAL.begin(),
                  notmatched_sc,
                  kfTrackGSFToECALs);
   for( auto ecalitr = currentECAL.begin(); ecalitr != notmatched_sc; 
        ++ecalitr ) {
     const PFClusterElement* elemascluster = 
       docast(const PFClusterElement*,ecalitr->first);
     PFClusterFlaggedElement flaggedclus(elemascluster,true);
         
     LOGDRESSED("PFEGammaAlgo::linkKFTracktoECAL()") 
     << "Found a cluster already in RO by KF extrapolation"
     << " at ECAL surface!" << std::endl
     << *elemascluster << std::endl;
     RO.localMap.emplace_back(elemascluster,kfflagged.first);
     RO.localMap.emplace_back(kfflagged.first,elemascluster);
   }
   //get the ECAL elements not used and not closer to another KF
   auto notmatched_blk = std::partition(ECALbegin,ECALend,kfTrackToECALs);
   //get subset ECAL elements not used or closer to another GSF of any type
   notmatched_blk = std::partition(ECALbegin,notmatched_blk,kfTrackGSFToECALs);
   for( auto ecalitr = ECALbegin; ecalitr != notmatched_blk; ++ecalitr ) {
     const PFClusterElement* elemascluster = 
       docast(const PFClusterElement*,ecalitr->first);
     if( addPFClusterToROSafe(elemascluster,RO) ) {
       attachPSClusters(elemascluster,RO.ecal2ps[elemascluster]);      
       ecalitr->second = false;
       
       LOGDRESSED("PFEGammaAlgo::linkKFTracktoECAL()") 
     << "Found a cluster not in RO by KF extrapolation"
     << " at ECAL surface!" << std::endl
     << *elemascluster << std::endl;
       RO.localMap.emplace_back(elemascluster,kfflagged.first);
       RO.localMap.emplace_back(kfflagged.first,elemascluster);
     }
   }  
 }

void PFEGammaAlgo::linkRefinableObjectBremTangentsToECAL ( ProtoEGObject & RO )

private

Definition at line 1595 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, funct::abs(), attachPSClusters(), PFEGammaAlgo::ProtoEGObject::brems, docast, digitizers_cfi::ecal, reco::PFBlockElement::ECAL, PFEGammaAlgo::ProtoEGObject::ecal2ps, PFEGammaAlgo::ProtoEGObject::ecalclusters, PFEGammaAlgo::ProtoEGObject::firstBrem, linkRefinableObjectConvSecondaryKFsToSecondaryKFs(), PFEGammaAlgo::ProtoEGObject::localMap, LOGDRESSED, and PFEGammaAlgo::ProtoEGObject::nBremsWithClusters.

Referenced by buildAndRefineEGObjects(), and linkKFTrackToECAL().

                                                          {
   if( RO.brems.empty() ) return;
   int FirstBrem = -1;
   int TrajPos = -1;
   int lastBremTrajPos = -1;  
   for( auto& bremflagged : RO.brems ) {
     bool has_clusters = false;
     TrajPos = (bremflagged.first->indTrajPoint())-2;
     auto ECALbegin = _splayedblock[reco::PFBlockElement::ECAL].begin();
     auto ECALend = _splayedblock[reco::PFBlockElement::ECAL].end();
     NotCloserToOther<reco::PFBlockElement::BREM,reco::PFBlockElement::ECAL>
       BremToECALs(_currentblock,bremflagged.first);
     // check for late brem using clusters already in the SC
     auto RSCBegin = RO.ecalclusters.begin();
     auto RSCEnd = RO.ecalclusters.end();
     auto notmatched_rsc = std::partition(RSCBegin,RSCEnd,BremToECALs);
     for( auto ecal = RSCBegin; ecal != notmatched_rsc; ++ecal ) {
       float deta = 
     std::abs( ecal->first->clusterRef()->positionREP().eta() -
           bremflagged.first->positionAtECALEntrance().eta() );
       if( deta < 0.015 ) {
     has_clusters = true;
     if( lastBremTrajPos == -1 || lastBremTrajPos < TrajPos ) {
       lastBremTrajPos = TrajPos;      
     }
     if( FirstBrem == -1 || TrajPos < FirstBrem ) { // set brem information
       FirstBrem = TrajPos;
       RO.firstBrem = TrajPos;
     }   
     LOGDRESSED("PFEGammaAlgo::linkBremToECAL()") 
       << "Found a cluster already in SC linked to brem extrapolation"
       << " at ECAL surface!" << std::endl;
     RO.localMap.emplace_back(ecal->first,bremflagged.first);
     RO.localMap.emplace_back(bremflagged.first,ecal->first);
       }
     }
     // grab new clusters from the block (ensured to not be late brem)
     auto notmatched_block = std::partition(ECALbegin,ECALend,BremToECALs);   
     for( auto ecal = ECALbegin; ecal != notmatched_block; ++ecal ) {
       float deta = 
     std::abs( ecal->first->clusterRef()->positionREP().eta() -
           bremflagged.first->positionAtECALEntrance().eta() );
       if( deta < 0.015 ) {  
     has_clusters = true;
     if( lastBremTrajPos == -1 || lastBremTrajPos < TrajPos ) {
       lastBremTrajPos = TrajPos;      
     }
     if( FirstBrem == -1 || TrajPos < FirstBrem ) { // set brem information
       
       FirstBrem = TrajPos;
       RO.firstBrem = TrajPos;
     }   
     const PFClusterElement* elemasclus =
       docast(const PFClusterElement*,ecal->first);    
     if( addPFClusterToROSafe(elemasclus,RO) ) {
       attachPSClusters(elemasclus,RO.ecal2ps[elemasclus]);
       
       RO.localMap.emplace_back(ecal->first,bremflagged.first);
       RO.localMap.emplace_back(bremflagged.first,ecal->first);
       ecal->second = false;
       LOGDRESSED("PFEGammaAlgo::linkBremToECAL()") 
         << "Found a cluster not already associated by brem extrapolation"
         << " at ECAL surface!" << std::endl;
     }
     
       }
     }
     if(has_clusters) {
       if( RO.nBremsWithClusters == -1 ) RO.nBremsWithClusters = 0;
       ++RO.nBremsWithClusters;
     }
   }  
 }

void PFEGammaAlgo::linkRefinableObjectConvSecondaryKFsToSecondaryKFs ( ProtoEGObject & RO )

private

Definition at line 1670 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, SoftLeptonByDistance_cfi::distance, docast, plotBeamSpotDB::first, training_settings::idx, linkRefinableObjectECALToSingleLegConv(), PFEGammaAlgo::ProtoEGObject::localMap, PFEGammaAlgo::ProtoEGObject::secondaryKFs, and reco::PFBlockElement::TRACK.

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectBremTangentsToECAL().

                                                                      {
   auto KFbegin = _splayedblock[reco::PFBlockElement::TRACK].begin();
   auto KFend   = _splayedblock[reco::PFBlockElement::TRACK].end();
   auto BeginROskfs = RO.secondaryKFs.begin();
   auto EndROskfs   = RO.secondaryKFs.end();  
   auto ronotconv = std::partition(BeginROskfs,EndROskfs,isConversionTrack);
   size_t convkfs_end = std::distance(BeginROskfs,ronotconv);  
   for( size_t idx = 0; idx < convkfs_end; ++idx ) { 
     const std::vector<PFKFFlaggedElement>& secKFs = RO.secondaryKFs; //we want the entry at the index but we allocate to secondaryKFs in loop which invalidates all iterators, references and pointers, hence we need to get the entry fresh each time
     NotCloserToOther<reco::PFBlockElement::TRACK,
                      reco::PFBlockElement::TRACK,
                      true> 
       TracksToTracks(_currentblock, secKFs[idx].first); 
     auto notmatched = std::partition(KFbegin,KFend,TracksToTracks);    
     notmatched = std::partition(KFbegin,notmatched,isConversionTrack);
     for( auto kf = KFbegin; kf != notmatched; ++kf ) {
       const reco::PFBlockElementTrack* elemaskf =
     docast(const reco::PFBlockElementTrack*,kf->first);      
       RO.secondaryKFs.emplace_back(elemaskf,true);
       RO.localMap.emplace_back(secKFs[idx].first,kf->first);
       RO.localMap.emplace_back(kf->first,secKFs[idx].first);
       kf->second = false;      
     }    
   }
 }

void PFEGammaAlgo::linkRefinableObjectECALToSingleLegConv	(	const pfEGHelpers::HeavyObjectCache *	hoc,
		ProtoEGObject &	RO
	)

private

Definition at line 1697 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, cfg_, docast, digitizers_cfi::ecal, reco::PFBlockElement::ECAL, PFEGammaAlgo::ProtoEGObject::ecalclusters, evaluateSingleLegMVA(), linkRefinableObjectSecondaryKFsToECAL(), PFEGammaAlgo::ProtoEGObject::localMap, PFEGammaAlgo::PFEGConfigInfo::mvaConvCut, PFEGammaAlgo::PFEGConfigInfo::primaryVtx, PFEGammaAlgo::ProtoEGObject::secondaryKFs, PFEGammaAlgo::ProtoEGObject::singleLegConversionMvaMap, and reco::PFBlockElement::TRACK.

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectConvSecondaryKFsToSecondaryKFs().

                                                           { 
   auto KFbegin = _splayedblock[reco::PFBlockElement::TRACK].begin();
   auto KFend = _splayedblock[reco::PFBlockElement::TRACK].end();  
   for( auto& ecal : RO.ecalclusters ) {
     NotCloserToOther<reco::PFBlockElement::ECAL,
                      reco::PFBlockElement::TRACK,
                      true>
       ECALToTracks(_currentblock,ecal.first);           
     auto notmatchedkf  = std::partition(KFbegin,KFend,ECALToTracks);
     auto notconvkf     = std::partition(KFbegin,notmatchedkf,isConversionTrack);
     // add identified KF conversion tracks
     for( auto kf = KFbegin; kf != notconvkf; ++kf ) {
       const reco::PFBlockElementTrack* elemaskf =
     docast(const reco::PFBlockElementTrack*,kf->first);
       RO.secondaryKFs.emplace_back(elemaskf,true);
       RO.localMap.emplace_back(ecal.first,elemaskf);
       RO.localMap.emplace_back(elemaskf,ecal.first);
       kf->second = false;
     }
     // go through non-conv-identified kfs and check MVA to add conversions
     for( auto kf = notconvkf; kf != notmatchedkf; ++kf ) {
       float mvaval = evaluateSingleLegMVA(hoc,_currentblock, 
                                           *cfg_.primaryVtx, 
                                           kf->first->index());
       if(mvaval > cfg_.mvaConvCut) {
     const reco::PFBlockElementTrack* elemaskf =
       docast(const reco::PFBlockElementTrack*,kf->first);
     RO.secondaryKFs.emplace_back(elemaskf,true);
     RO.localMap.emplace_back(ecal.first,elemaskf);
     RO.localMap.emplace_back(elemaskf,ecal.first);
     kf->second = false;
         
         RO.singleLegConversionMvaMap.emplace(elemaskf, mvaval);
       }
     }    
   }
 }

void PFEGammaAlgo::linkRefinableObjectGSFTracksToKFs ( ProtoEGObject & RO )

private

Definition at line 1384 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, constexpr, docast, PFEGammaAlgo::ProtoEGObject::electronSeed, relativeConstraints::empty, edm::Ref< C, T, F >::isNull(), isPrimaryTrack(), linkRefinableObjectPrimaryKFsToSecondaryKFs(), PFEGammaAlgo::ProtoEGObject::localMap, PFEGammaAlgo::ProtoEGObject::primaryGSFs, PFEGammaAlgo::ProtoEGObject::primaryKFs, PFEGammaAlgo::ProtoEGObject::secondaryKFs, reco::PFBlockElement::T_FROM_GAMMACONV, reco::PFBlockElement::TRACK, reco::PFBlockElementTrack::trackType(), and reco::PFBlockElementGsfTrack::trackType().

Referenced by buildAndRefineEGObjects(), and mergeROsByAnyLink().

                                                      {
   constexpr reco::PFBlockElement::TrackType convType = 
     reco::PFBlockElement::T_FROM_GAMMACONV;
   if( _splayedblock[reco::PFBlockElement::TRACK].empty() ) return;
   auto KFbegin = _splayedblock[reco::PFBlockElement::TRACK].begin();
   auto KFend = _splayedblock[reco::PFBlockElement::TRACK].end();
   for( auto& gsfflagged : RO.primaryGSFs ) {
     const PFGSFElement* seedtk = gsfflagged.first;
     // don't process SC-only ROs or secondary seeded ROs
     if( RO.electronSeed.isNull() || seedtk->trackType(convType) ) continue;
     NotCloserToOther<reco::PFBlockElement::GSF,reco::PFBlockElement::TRACK>
       gsfTrackToKFs(_currentblock,seedtk);
     // get KF tracks not closer to another and not already used
     auto notlinked = std::partition(KFbegin,KFend,gsfTrackToKFs);
     // attach tracks and set as used
     for( auto kft = KFbegin; kft != notlinked; ++kft ) {
       const PFKFElement* elemaskf = 
     docast(const PFKFElement*,kft->first);
       // don't care about things that aren't primaries or directly 
       // associated secondary tracks
       if( isPrimaryTrack(*elemaskf,*seedtk) &&
       !elemaskf->trackType(convType)       ) {
     kft->second = false;
     RO.primaryKFs.emplace_back(elemaskf,true);
     RO.localMap.emplace_back(seedtk,elemaskf);
     RO.localMap.emplace_back(elemaskf,seedtk);
       } else if ( elemaskf->trackType(convType) ) {
     kft->second = false;
     RO.secondaryKFs.emplace_back(elemaskf,true);
     RO.localMap.emplace_back(seedtk,elemaskf);
     RO.localMap.emplace_back(elemaskf,seedtk);
       }
     }// loop on closest KFs not closer to other GSFs
   } // loop on GSF primaries on RO  
 }

void PFEGammaAlgo::linkRefinableObjectKFTracksToECAL ( ProtoEGObject & RO )

private

Definition at line 1536 of file PFEGammaAlgo.cc.

References _splayedblock, reco::PFBlockElement::ECAL, relativeConstraints::empty, linkKFTrackToECAL(), PFEGammaAlgo::ProtoEGObject::primaryKFs, and PFEGammaAlgo::ProtoEGObject::secondaryKFs.

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectPrimaryGSFTrackToHCAL().

                                                      {
   if( _splayedblock[reco::PFBlockElement::ECAL].empty() ) return;  
   for( auto& primkf : RO.primaryKFs ) linkKFTrackToECAL(primkf,RO);
   for( auto& secdkf : RO.secondaryKFs ) linkKFTrackToECAL(secdkf,RO);
 }

void PFEGammaAlgo::linkRefinableObjectPrimaryGSFTrackToECAL ( ProtoEGObject & RO )

private

Definition at line 1457 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, attachPSClusters(), docast, digitizers_cfi::ecal, reco::PFBlockElement::ECAL, PFEGammaAlgo::ProtoEGObject::ecal2ps, PFEGammaAlgo::ProtoEGObject::ecalclusters, PFEGammaAlgo::ProtoEGObject::electronClusters, relativeConstraints::empty, linkRefinableObjectPrimaryGSFTrackToHCAL(), PFEGammaAlgo::ProtoEGObject::localMap, LOGDRESSED, PFEGammaAlgo::ProtoEGObject::primaryGSFs, and groupFilesInBlocks::temp.

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectPrimaryKFsToSecondaryKFs().

                                                             {
   if( _splayedblock[reco::PFBlockElement::ECAL].empty() ) {
     RO.electronClusters.push_back(nullptr);
     return; 
   }
   auto ECALbegin = _splayedblock[reco::PFBlockElement::ECAL].begin();
   auto ECALend = _splayedblock[reco::PFBlockElement::ECAL].end();
   for( auto& primgsf : RO.primaryGSFs ) {    
     NotCloserToOther<reco::PFBlockElement::GSF,reco::PFBlockElement::ECAL>
       gsfTracksToECALs(_currentblock,primgsf.first);
     auto eoverp_test = std::bind(compatibleEoPOut, _1, primgsf.first);
     // get set of matching ecals not already in SC
     auto notmatched_blk = std::partition(ECALbegin,ECALend,gsfTracksToECALs);
     notmatched_blk = std::partition(ECALbegin,notmatched_blk,eoverp_test);
     // get set of matching ecals already in the RO
     auto notmatched_sc = std::partition(RO.ecalclusters.begin(),
                     RO.ecalclusters.end(),
                     gsfTracksToECALs);
     notmatched_sc = std::partition(RO.ecalclusters.begin(),
                    notmatched_sc,
                    eoverp_test);
     // look inside the SC for the ECAL cluster
     for( auto ecal = RO.ecalclusters.begin(); ecal != notmatched_sc; ++ecal ) {
       const PFClusterElement* elemascluster = 
     docast(const PFClusterElement*,ecal->first);    
       PFClusterFlaggedElement temp(elemascluster,true);
       LOGDRESSED("PFEGammaAlgo::linkGSFTracktoECAL()") 
     << "Found a cluster already in RO by GSF extrapolation"
     << " at ECAL surface!" << std::endl
     << *elemascluster << std::endl;
             
       RO.localMap.emplace_back(primgsf.first,temp.first);
       RO.localMap.emplace_back(temp.first,primgsf.first);
     }
     // look outside the SC for the ecal cluster
     for( auto ecal = ECALbegin; ecal != notmatched_blk; ++ecal ) {
       const PFClusterElement* elemascluster = 
     docast(const PFClusterElement*,ecal->first);    
       LOGDRESSED("PFEGammaAlgo::linkGSFTracktoECAL()") 
     << "Found a cluster not already in RO by GSF extrapolation"
     << " at ECAL surface!" << std::endl
     << *elemascluster << std::endl;
       if( addPFClusterToROSafe(elemascluster,RO) ) {
     attachPSClusters(elemascluster,RO.ecal2ps[elemascluster]);      
     RO.localMap.emplace_back(primgsf.first,elemascluster);
     RO.localMap.emplace_back(elemascluster,primgsf.first);
     ecal->second = false;    
       }
     }    
   }
 }

void PFEGammaAlgo::linkRefinableObjectPrimaryGSFTrackToHCAL ( ProtoEGObject & RO )

private

Definition at line 1511 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, docast, relativeConstraints::empty, digitizers_cfi::hcal, reco::PFBlockElement::HCAL, PFEGammaAlgo::ProtoEGObject::hcalClusters, linkRefinableObjectKFTracksToECAL(), PFEGammaAlgo::ProtoEGObject::localMap, LOGDRESSED, PFEGammaAlgo::ProtoEGObject::primaryGSFs, and groupFilesInBlocks::temp.

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectPrimaryGSFTrackToECAL().

                                                             {
   if( _splayedblock[reco::PFBlockElement::HCAL].empty() ) return; 
   auto HCALbegin = _splayedblock[reco::PFBlockElement::HCAL].begin();
   auto HCALend = _splayedblock[reco::PFBlockElement::HCAL].end();
   for( auto& primgsf : RO.primaryGSFs ) {
     NotCloserToOther<reco::PFBlockElement::GSF,reco::PFBlockElement::HCAL>
       gsfTracksToHCALs(_currentblock,primgsf.first);
     auto notmatched = std::partition(HCALbegin,HCALend,gsfTracksToHCALs);    
     for( auto hcal = HCALbegin; hcal != notmatched; ++hcal ) { 
       const PFClusterElement* elemascluster = 
     docast(const PFClusterElement*,hcal->first);    
       PFClusterFlaggedElement temp(elemascluster,true);    
       LOGDRESSED("PFEGammaAlgo::linkGSFTracktoECAL()") 
     << "Found an HCAL cluster associated to GSF extrapolation" 
     << std::endl;
       RO.hcalClusters.push_back(temp);
       RO.localMap.emplace_back(primgsf.first,temp.first);
       RO.localMap.emplace_back(temp.first,primgsf.first);
       hcal->second = false;
     }
   }
 }

void PFEGammaAlgo::linkRefinableObjectPrimaryKFsToSecondaryKFs ( ProtoEGObject & RO )

private

Definition at line 1421 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, constexpr, docast, relativeConstraints::empty, Exception, linkRefinableObjectPrimaryGSFTrackToECAL(), PFEGammaAlgo::ProtoEGObject::localMap, PFEGammaAlgo::ProtoEGObject::primaryKFs, PFEGammaAlgo::ProtoEGObject::secondaryKFs, reco::PFBlockElement::T_FROM_GAMMACONV, reco::PFBlockElement::TRACK, and reco::PFBlockElementTrack::trackType().

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectGSFTracksToKFs().

                                                                {
   constexpr reco::PFBlockElement::TrackType convType = 
     reco::PFBlockElement::T_FROM_GAMMACONV;
   if( _splayedblock[reco::PFBlockElement::TRACK].empty() ) return;
   auto KFbegin = _splayedblock[reco::PFBlockElement::TRACK].begin();
   auto KFend = _splayedblock[reco::PFBlockElement::TRACK].end();
   for( auto& kfflagged : RO.primaryKFs ) {
     const PFKFElement* primkf = kfflagged.first;
     // don't process SC-only ROs or secondary seeded ROs
     if( primkf->trackType(convType) ) {
       throw cms::Exception("PFEGammaAlgo::linkRefinableObjectPrimaryKFsToSecondaryKFs()")
     << "A KF track from conversion has been assigned as a primary!!"
     << std::endl;
     }
     NotCloserToOther<reco::PFBlockElement::TRACK,reco::PFBlockElement::TRACK,true>
     kfTrackToKFs(_currentblock,primkf);
     // get KF tracks not closer to another and not already used
     auto notlinked = std::partition(KFbegin,KFend,kfTrackToKFs);
     // attach tracks and set as used
     for( auto kft = KFbegin; kft != notlinked; ++kft ) {
       const PFKFElement* elemaskf = 
     docast(const PFKFElement*,kft->first);
       // don't care about things that aren't primaries or directly 
       // associated secondary tracks
       if( elemaskf->trackType(convType) ) {
     kft->second = false;
     RO.secondaryKFs.emplace_back(elemaskf,true);
     RO.localMap.emplace_back(primkf,elemaskf);
     RO.localMap.emplace_back(elemaskf,primkf);
       } 
     }// loop on closest KFs not closer to other KFs
   } // loop on KF primaries on RO
 }

void PFEGammaAlgo::linkRefinableObjectSecondaryKFsToECAL ( ProtoEGObject & RO )

private

Definition at line 1737 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, attachPSClusters(), docast, digitizers_cfi::ecal, reco::PFBlockElement::ECAL, PFEGammaAlgo::ProtoEGObject::ecal2ps, fillPFCandidates(), PFEGammaAlgo::ProtoEGObject::localMap, PFEGammaAlgo::ProtoEGObject::secondaryKFs, and reco::PFBlockElement::TRACK.

Referenced by buildAndRefineEGObjects(), and linkRefinableObjectECALToSingleLegConv().

                                                          {
   auto ECALbegin = _splayedblock[reco::PFBlockElement::ECAL].begin();
   auto ECALend = _splayedblock[reco::PFBlockElement::ECAL].end(); 
   for( auto& skf : RO.secondaryKFs ) {
     NotCloserToOther<reco::PFBlockElement::TRACK,
                      reco::PFBlockElement::ECAL,
                      false>
       TracksToECALwithCut(_currentblock,skf.first,1.5f);
     auto notmatched = std::partition(ECALbegin,ECALend,TracksToECALwithCut);
     for( auto ecal = ECALbegin; ecal != notmatched; ++ecal ) {
       const reco::PFBlockElementCluster* elemascluster =
     docast(const reco::PFBlockElementCluster*,ecal->first);      
       if( addPFClusterToROSafe(elemascluster,RO) ) {
     attachPSClusters(elemascluster,RO.ecal2ps[elemascluster]);
     RO.localMap.emplace_back(skf.first,elemascluster);
     RO.localMap.emplace_back(elemascluster,skf.first);
     ecal->second = false;      
       }
     }
   }
 }

void PFEGammaAlgo::mergeROsByAnyLink ( std::list< ProtoEGObject > & )

private

Definition at line 1289 of file PFEGammaAlgo.cc.

Referenced by buildAndRefineEGObjects(), and removeOrLinkECALClustersToKFTracks().

                                                             {
    if( ROs.size() < 2 ) return; // nothing to do with one or zero ROs  
    bool check_for_merge = true;
    while( check_for_merge ) {   
      // bugfix for early termination merging loop (15 April 2014)
      // check all pairwise combinations in the list
      // if one has a merge shuffle it to the front of the list
      // if there are no merges left to do we can terminate
      for( auto it1 = ROs.begin(); it1 != ROs.end(); ++it1 ) {
        auto find_start = it1; ++find_start;
        auto has_merge = std::find_if(find_start,ROs.end(),
                std::bind(testIfROMergableByLink, _1, *it1));
        if( has_merge != ROs.end() && it1 != ROs.begin() ) {
      std::swap(*(ROs.begin()),*it1);
      break;
        }
      }// ensure mergables are shuffled to the front
      ProtoEGObject& thefront = ROs.front();
      auto mergestart = ROs.begin(); ++mergestart;    
      auto nomerge = std::partition(mergestart,ROs.end(),
              std::bind(testIfROMergableByLink, _1, thefront));
      if( nomerge != mergestart ) {
        LOGDRESSED("PFEGammaAlgo::mergeROsByAnyLink()")       
      << "Found objects " << std::distance(mergestart,nomerge)
      << " to merge by links to the front!" << std::endl;
        for( auto roToMerge = mergestart; roToMerge != nomerge; ++roToMerge) {
          //bugfix! L.Gray 14 Jan 2016 
          // -- check that the front is still mergeable!
          if( !thefront.ecalclusters.empty() && !roToMerge->ecalclusters.empty() ) {
            if( thefront.ecalclusters.front().first->clusterRef()->layer() !=   
                roToMerge->ecalclusters.front().first->clusterRef()->layer() ) {
              LOGWARN("PFEGammaAlgo::mergeROsByAnyLink") 
                << "Tried to merge EB and EE clusters! Skipping!";
              ROs.push_back(*roToMerge);
              continue;
            }
          }         
          //end bugfix
      thefront.ecalclusters.insert(thefront.ecalclusters.end(),
                       roToMerge->ecalclusters.begin(),
                       roToMerge->ecalclusters.end());
      thefront.ecal2ps.insert(roToMerge->ecal2ps.begin(),
                  roToMerge->ecal2ps.end());
      thefront.secondaryKFs.insert(thefront.secondaryKFs.end(),
                       roToMerge->secondaryKFs.begin(),
                       roToMerge->secondaryKFs.end());
 
      thefront.localMap.insert(thefront.localMap.end(),
                   roToMerge->localMap.begin(),
                   roToMerge->localMap.end());
      // TO FIX -> use best (E_gsf - E_clustersum)/E_GSF
      if( !thefront.parentSC && roToMerge->parentSC ) {
        thefront.parentSC = roToMerge->parentSC;
      }
      if( thefront.electronSeed.isNull() && 
          roToMerge->electronSeed.isNonnull() ) {
        thefront.electronSeed = roToMerge->electronSeed;
        thefront.primaryGSFs.insert(thefront.primaryGSFs.end(),
                        roToMerge->primaryGSFs.begin(),
                        roToMerge->primaryGSFs.end());
        thefront.primaryKFs.insert(thefront.primaryKFs.end(),
                       roToMerge->primaryKFs.begin(),
                       roToMerge->primaryKFs.end());
        thefront.brems.insert(thefront.brems.end(),
                  roToMerge->brems.begin(),
                  roToMerge->brems.end());
        thefront.electronClusters = roToMerge->electronClusters;
        thefront.nBremsWithClusters = roToMerge->nBremsWithClusters;
        thefront.firstBrem = roToMerge->firstBrem;
        thefront.lateBrem = roToMerge->lateBrem;
      } else if ( thefront.electronSeed.isNonnull() && 
              roToMerge->electronSeed.isNonnull()) {
        LOGDRESSED("PFEGammaAlgo::mergeROsByAnyLink")
          << "Need to implement proper merging of two gsf candidates!"
          << std::endl;
      }
        }      
        ROs.erase(mergestart,nomerge);
        // put the merged element in the back of the cleaned list
        ROs.push_back(ROs.front());
        ROs.pop_front();
      } else {       
        check_for_merge = false;    
      }
    }
    LOGDRESSED("PFEGammaAlgo::mergeROsByAnyLink()") 
      << "After merging by links there are: " << ROs.size() 
      << " refinable EGamma objects!" << std::endl;
  }

void PFEGammaAlgo::removeOrLinkECALClustersToKFTracks ( )

private

Definition at line 1201 of file PFEGammaAlgo.cc.

Referenced by buildAndRefineEGObjects(), and dumpCurrentRefinableObjects().

                                       {
    typedef std::multimap<double, unsigned> MatchedMap;
    typedef const reco::PFBlockElementGsfTrack* GsfTrackElementPtr;
    if( _splayedblock[reco::PFBlockElement::ECAL].empty() ||
        _splayedblock[reco::PFBlockElement::TRACK].empty()   ) return;
    MatchedMap matchedGSFs, matchedECALs;
    std::unordered_map<GsfTrackElementPtr,MatchedMap> gsf_ecal_cache;
    for( auto& kftrack : _splayedblock[reco::PFBlockElement::TRACK] ) {
      matchedGSFs.clear();
      _currentblock->associatedElements(kftrack.first->index(), _currentlinks,
                        matchedGSFs,
                        reco::PFBlockElement::GSF,
                        reco::PFBlock::LINKTEST_ALL);
      if( matchedGSFs.empty() ) { // only run this if we aren't associated to GSF
        LesserByDistance closestTrackToECAL(_currentblock,_currentlinks,
                        kftrack.first);      
        auto ecalbegin = _splayedblock[reco::PFBlockElement::ECAL].begin();
        auto ecalend   = _splayedblock[reco::PFBlockElement::ECAL].end();
        std::partial_sort(ecalbegin,ecalbegin+1,ecalend,closestTrackToECAL);
        PFFlaggedElement& closestECAL = 
      _splayedblock[reco::PFBlockElement::ECAL].front();
        const float dist = _currentblock->dist(kftrack.first->index(), 
                           closestECAL.first->index(),
                           _currentlinks,
                           reco::PFBlock::LINKTEST_ALL);
        bool inSC = false;
        for( auto& sc : _splayedblock[reco::PFBlockElement::SC] ) {
      float dist_sc = _currentblock->dist(sc.first->index(), 
                          closestECAL.first->index(),
                          _currentlinks,
                          reco::PFBlock::LINKTEST_ALL);
      if( dist_sc != -1.0f) { inSC = true; break; }
        }
 
        if( dist != -1.0f && closestECAL.second ) {
      bool gsflinked = false;
      // check that this cluster is not associated to a GSF track
      for(const auto& gsfflag : _splayedblock[reco::PFBlockElement::GSF]) {
        const reco::PFBlockElementGsfTrack* elemasgsf =
          docast(const reco::PFBlockElementGsfTrack*,gsfflag.first);
        if(elemasgsf->trackType(reco::PFBlockElement::T_FROM_GAMMACONV)) {
          continue; // keep clusters that have a found conversion GSF near
        }
        // make sure cache exists
        if( !gsf_ecal_cache.count(elemasgsf) ) {
          matchedECALs.clear();
          _currentblock->associatedElements(elemasgsf->index(), _currentlinks,
                            matchedECALs,
                            reco::PFBlockElement::ECAL,
                            reco::PFBlock::LINKTEST_ALL);
          gsf_ecal_cache.emplace(elemasgsf,matchedECALs);
          MatchedMap().swap(matchedECALs);
        } 
        const MatchedMap& ecal_matches = gsf_ecal_cache[elemasgsf];     
        if( !ecal_matches.empty() ) {
          if( ecal_matches.begin()->second == closestECAL.first->index() ) {
            gsflinked = true;
            break;
          }
        }                
      } // loop over primary GSF tracks
      if( !gsflinked && !inSC) { 
        // determine if we should remove the matched cluster
        const reco::PFBlockElementTrack * kfEle = 
          docast(const reco::PFBlockElementTrack*,kftrack.first);
        const reco::TrackRef& trackref = kfEle->trackRef();
 
        const int nexhits = 
          trackref->hitPattern().numberOfLostHits(HitPattern::MISSING_INNER_HITS);
        bool fromprimaryvertex = false;
        for( auto vtxtks = cfg_.primaryVtx->tracks_begin();
         vtxtks != cfg_.primaryVtx->tracks_end(); ++ vtxtks ) {
          if( trackref == vtxtks->castTo<reco::TrackRef>() ) {
            fromprimaryvertex = true;
            break;
          }
        }// loop over tracks in primary vertex
         // if associated to good non-GSF matched track remove this cluster
        if( PFTrackAlgoTools::isGoodForEGMPrimary(trackref->algo()) && nexhits == 0 && fromprimaryvertex ) {
          closestECAL.second = false;
        }
      }
        } // found a good closest ECAL match
      } // no GSF track matched to KF
    } // loop over KF elements
  }

void PFEGammaAlgo::setAlphaGamma_ESplanes_fromDB ( const ESEEIntercalibConstants * esEEInterCalib )

inline

Definition at line 122 of file PFEGammaAlgo.h.

References cfg_, and PFEGammaAlgo::PFEGConfigInfo::thePFEnergyCalibration.

                                                                                    {
     cfg_.thePFEnergyCalibration->initAlphaGamma_ESplanes_fromDB(esEEInterCalib);
   }

void PFEGammaAlgo::setEEtoPSAssociation ( EEtoPSAssociation const & eetops )

inline

Definition at line 120 of file PFEGammaAlgo.h.

References eetops_.

120 { eetops_ = &eetops; }

PFEGammaAlgo::eetops_

reco::PFCluster::EEtoPSAssociation const * eetops_

Definition: PFEGammaAlgo.h:158

void PFEGammaAlgo::setESChannelStatus ( const ESChannelStatus * channelStatus )

inline

Definition at line 126 of file PFEGammaAlgo.h.

References channelStatus_.

                                                                {
     channelStatus_ = channelStatus;
   }

void PFEGammaAlgo::setPhotonPrimaryVtx ( const reco::Vertex & primary )

inline

Definition at line 130 of file PFEGammaAlgo.h.

References cfg_, and PFEGammaAlgo::PFEGConfigInfo::primaryVtx.

                                                      {
     cfg_.primaryVtx = & primary;
   }

void PFEGammaAlgo::unlinkRefinableObjectKFandECALMatchedToHCAL	(	ProtoEGObject &	RO,
		bool	removeFreeECAL = `false`,
		bool	removeSCECAL = `false`
	)

private

Definition at line 2349 of file PFEGammaAlgo.cc.

References _currentblock, _currentlinks, _splayedblock, reco::PFBlockElementCluster::clusterRef(), SoftLeptonByDistance_cfi::distance, digitizers_cfi::ecal, PFEGammaAlgo::ProtoEGObject::ecalclusters, f, spr::find(), spr::goodTrack(), reco::PFBlockElement::HCAL, PFTrackAlgoTools::isGoodForEGM(), reco::PFBlock::LINKTEST_ALL, PFEGammaAlgo::ProtoEGObject::localMap, LOGDRESSED, PFEGammaAlgo::ProtoEGObject::parentSC, and PFEGammaAlgo::ProtoEGObject::secondaryKFs.

Referenced by buildAndRefineEGObjects(), and unlinkRefinableObjectKFandECALWithBadEoverP().

                                            {
   std::vector<bool> cluster_in_sc;    
   auto ecal_begin = RO.ecalclusters.begin();
   auto ecal_end   = RO.ecalclusters.end();
   auto hcal_begin = _splayedblock[reco::PFBlockElement::HCAL].begin();
   auto hcal_end   = _splayedblock[reco::PFBlockElement::HCAL].end();
   for( auto secd_kf = RO.secondaryKFs.begin(); 
        secd_kf != RO.secondaryKFs.end(); ++secd_kf ) {
     bool remove_this_kf = false;
     NotCloserToOther<reco::PFBlockElement::TRACK,reco::PFBlockElement::HCAL>
       tracksToHCALs(_currentblock,secd_kf->first);
     reco::TrackRef trkRef =   secd_kf->first->trackRef();
 
     bool goodTrack = PFTrackAlgoTools::isGoodForEGM(trkRef->algo());
     const float secpin = trkRef->p();       
     
     for( auto ecal = ecal_begin; ecal != ecal_end; ++ecal ) {
       const double ecalenergy = ecal->first->clusterRef()->correctedEnergy();
       // first check if the cluster is in the SC (use dist calc for fastness)
       const size_t clus_idx = std::distance(ecal_begin,ecal);
       if( cluster_in_sc.size() < clus_idx + 1) {
     float dist = -1.0f;
     if( RO.parentSC ) {
       dist = _currentblock->dist(secd_kf->first->index(),
                      ecal->first->index(),
                      _currentlinks,
                      reco::PFBlock::LINKTEST_ALL);
     } 
     cluster_in_sc.push_back(dist != -1.0f); 
       }
 
       ElementMap::value_type check_match(ecal->first,secd_kf->first);
       auto kf_matched = std::find(RO.localMap.begin(),
                   RO.localMap.end(),
                   check_match);
       // if we've found a secondary KF that matches this ecal cluster
       // now we see if it is matched to HCAL 
       // if it is matched to an HCAL cluster we take different 
       // actions if the cluster was in an SC or not
       if( kf_matched != RO.localMap.end() ) {
     auto hcal_matched = std::partition(hcal_begin,hcal_end,tracksToHCALs);
     for( auto hcalclus = hcal_begin; 
          hcalclus != hcal_matched; 
          ++hcalclus                 ) {
       const reco::PFBlockElementCluster * clusthcal =  
         dynamic_cast<const reco::PFBlockElementCluster*>(hcalclus->first); 
       const double hcalenergy = clusthcal->clusterRef()->energy();    
       const double hpluse = ecalenergy+hcalenergy;
       const bool isHoHE = ( (hcalenergy / hpluse ) > 0.1 && goodTrack );
       const bool isHoE  = ( hcalenergy > ecalenergy );
       const bool isPoHE = ( secpin > hpluse );  
       if( cluster_in_sc[clus_idx] ) {
         if(isHoE || isPoHE) {
           LOGDRESSED("PFEGammaAlgo")
         << "REJECTED TRACK FOR H/E or P/(H+E), CLUSTER IN SC"
         << " H/H+E " << (hcalenergy / hpluse)
         << " H/E " << (hcalenergy > ecalenergy)
         << " P/(H+E) " << (secpin/hpluse)
         << " HCAL ENE " << hcalenergy
         << " ECAL ENE " << ecalenergy
         << " secPIN " << secpin 
         << " Algo Track " << trkRef->algo() << std::endl;
           remove_this_kf = true;
         }
       } else {
         if(isHoHE){
           LOGDRESSED("PFEGammaAlgo")
         << "REJECTED TRACK FOR H/H+E, CLUSTER NOT IN SC"
         << " H/H+E " << (hcalenergy / hpluse)
         << " H/E " << (hcalenergy > ecalenergy)
         << " P/(H+E) " << (secpin/hpluse) 
         << " HCAL ENE " << hcalenergy
         << " ECAL ENE " << ecalenergy
         << " secPIN " << secpin 
         << " Algo Track " <<trkRef->algo() << std::endl;
           remove_this_kf = true;
         }
       }  
     }
       }
     }
     if( remove_this_kf ) {
       secd_kf = RO.secondaryKFs.erase(secd_kf);
       if( secd_kf == RO.secondaryKFs.end() ) break;
     }
   }  
 }

void PFEGammaAlgo::unlinkRefinableObjectKFandECALWithBadEoverP ( ProtoEGObject & RO )

private

Definition at line 2259 of file PFEGammaAlgo.cc.

References _currentblock, _currentlinks, funct::abs(), PFEGammaAlgo::ProtoEGObject::brems, SoftLeptonByDistance_cfi::distance, digitizers_cfi::ecal, PFEGammaAlgo::ProtoEGObject::ecalclusters, PVValHelper::eta, f, spr::find(), reco::PFBlock::LINKTEST_ALL, PFEGammaAlgo::ProtoEGObject::localMap, LOGDRESSED, PFEGammaAlgo::ProtoEGObject::primaryGSFs, PFEGammaAlgo::ProtoEGObject::secondaryKFs, and unlinkRefinableObjectKFandECALMatchedToHCAL().

Referenced by buildAndRefineEGObjects(), and buildRefinedSuperCluster().

                                                                {  
   // this only means something for ROs with a primary GSF track
   if( RO.primaryGSFs.empty() ) return;  
   // need energy sums to tell if we've added crap or not
   const double Pin_gsf = RO.primaryGSFs.front().first->GsftrackRef()->pMode();
   const double gsfOuterEta  = 
     RO.primaryGSFs.front().first->positionAtECALEntrance().Eta();
   double tot_ecal= 0.0;  
   std::vector<double> min_brem_dists;
   std::vector<double> closest_brem_eta;    
   // first get the total ecal energy (we should replace this with a cache)
   for( const auto& ecal : RO.ecalclusters ) {
     tot_ecal += ecal.first->clusterRef()->correctedEnergy();
     // we also need to look at the minimum distance to brems
     // since energetic brems will be closer to the brem than the track
     double min_brem_dist = 5000.0; 
     double eta = -999.0;
     for( const auto& brem : RO.brems ) {
       const float dist = _currentblock->dist(brem.first->index(),
                          ecal.first->index(),
                          _currentlinks,
                          reco::PFBlock::LINKTEST_ALL);
       if( dist < min_brem_dist && dist != -1.0f ) {
     min_brem_dist = dist;
     eta = brem.first->positionAtECALEntrance().Eta();
       }
     }
     min_brem_dists.push_back(min_brem_dist);
     closest_brem_eta.push_back(eta);
   }  
   
   // loop through the ECAL clusters and remove ECAL clusters matched to
   // secondary track either in *or* out of the SC if the E/pin is bad
   for( auto secd_kf = RO.secondaryKFs.begin(); 
        secd_kf != RO.secondaryKFs.end(); ++secd_kf ) {
     reco::TrackRef trkRef =   secd_kf->first->trackRef();   
     const float secpin = secd_kf->first->trackRef()->p();  
     bool remove_this_kf = false;
     for( auto ecal = RO.ecalclusters.begin(); 
      ecal != RO.ecalclusters.end(); ++ecal ) {
       size_t bremidx = std::distance(RO.ecalclusters.begin(),ecal);
       const float minbremdist = min_brem_dists[bremidx];
       const double ecalenergy = ecal->first->clusterRef()->correctedEnergy();
       const double Epin = ecalenergy/secpin;
       const double detaGsf = 
     std::abs(gsfOuterEta - ecal->first->clusterRef()->positionREP().Eta());
       const double detaBrem = 
     std::abs(closest_brem_eta[bremidx] - 
          ecal->first->clusterRef()->positionREP().Eta());
       
       ElementMap::value_type check_match(ecal->first,secd_kf->first);
       auto kf_matched = std::find(RO.localMap.begin(),
                   RO.localMap.end(),
                   check_match);
       
       const float tkdist = _currentblock->dist(secd_kf->first->index(),
                            ecal->first->index(),
                            _currentlinks,
                            reco::PFBlock::LINKTEST_ALL);
       
       // do not reject this track if it is closer to a brem than the
       // secondary track, or if it lies in the delta-eta plane with the
       // gsf track or if it is in the dEta plane with the brems
       if( Epin > 3 && kf_matched != RO.localMap.end() && 
       tkdist != -1.0f && tkdist < minbremdist &&
       detaGsf > 0.05 && detaBrem > 0.015) {
     double res_with = std::abs((tot_ecal-Pin_gsf)/Pin_gsf);
     double res_without = std::abs((tot_ecal-ecalenergy-Pin_gsf)/Pin_gsf);
     if(res_without < res_with) {      
         LOGDRESSED("PFEGammaAlgo")
           << " REJECTED_RES totenergy " << tot_ecal
           << " Pin_gsf " << Pin_gsf 
           << " cluster to secondary " <<  ecalenergy
           << " res_with " <<  res_with
           << " res_without " << res_without << std::endl;
         tot_ecal -= ecalenergy;     
         remove_this_kf = true;   
         ecal = RO.ecalclusters.erase(ecal);
         if( ecal == RO.ecalclusters.end() ) break;      
     }
       }
     }
     if( remove_this_kf ) {
       secd_kf = RO.secondaryKFs.erase(secd_kf);
       if( secd_kf == RO.secondaryKFs.end() ) break;
     }
   }  
 }

bool PFEGammaAlgo::unwrapSuperCluster	(	const reco::PFBlockElementSuperCluster *	thesc,
		std::vector< PFClusterFlaggedElement > &	ecalclusters,
		ClusterMap &	ecal2ps
	)

private

Definition at line 952 of file PFEGammaAlgo.cc.

References _currentblock, _splayedblock, attachPSClusters(), TauDecayModes::dec, SoftLeptonByDistance_cfi::distance, docast, reco::PFBlockElementCluster::Dump(), reco::PFBlockElementSuperCluster::Dump(), reco::PFBlockElement::ECAL, Exception, spr::find(), reco::PFBlockElementSuperCluster::fromPFSuperCluster(), edm::Ref< C, T, F >::get(), reco::PFBlockElement::HGCAL, edm::Ref< C, T, F >::isAvailable(), edm::Ref< C, T, F >::isNonnull(), LOGDRESSED, LOGERR, LOGVERB, and reco::PFBlockElementSuperCluster::superClusterRef().

Referenced by initializeProtoCands().

                                  {
    ecalclusters.clear();
    ecal2ps.clear();
    LOGVERB("PFEGammaAlgo")
      << "Pointer to SC element: 0x" 
      << std::hex << thesc << std::dec << std::endl
      << "cleared ecalclusters and ecal2ps!" << std::endl;  
    auto ecalbegin = _splayedblock[reco::PFBlockElement::ECAL].begin();
    auto ecalend = _splayedblock[reco::PFBlockElement::ECAL].end(); 
    auto hgcalbegin = _splayedblock[reco::PFBlockElement::HGCAL].begin();
    auto hgcalend = _splayedblock[reco::PFBlockElement::HGCAL].end(); 
    if( ecalbegin == ecalend && hgcalbegin == hgcalend ) {
      LOGERR("PFEGammaAlgo::unwrapSuperCluster()")
        << "There are no ECAL elements in a block with imported SC!" 
        << " This is a bug we should fix this!" 
        << std::endl;
      return false;
    }
    reco::SuperClusterRef scref = thesc->superClusterRef();
    const bool is_pf_sc = thesc->fromPFSuperCluster();
    if( !(scref.isAvailable() && scref.isNonnull()) ) {
      throw cms::Exception("PFEGammaAlgo::unwrapSuperCluster()")
        << "SuperCluster pointed to by block element is null!" 
        << std::endl;
    }
    LOGDRESSED("PFEGammaAlgo")
      << "Got a valid super cluster ref! 0x" 
      << std::hex << scref.get() << std::dec << std::endl;
    const size_t nscclusters = scref->clustersSize();
    const size_t nscpsclusters = scref->preshowerClustersSize();
    size_t npfpsclusters = 0;
    size_t npfclusters = 0;
    LOGDRESSED("PFEGammaAlgo")
      << "Precalculated cluster multiplicities: " 
      << nscclusters << ' ' << nscpsclusters << std::endl;
    NotCloserToOther<reco::PFBlockElement::SC,reco::PFBlockElement::ECAL> 
      ecalClustersInSC(_currentblock,thesc);
    NotCloserToOther<reco::PFBlockElement::SC,reco::PFBlockElement::HGCAL> 
      hgcalClustersInSC(_currentblock,thesc);
    auto ecalfirstnotinsc = std::partition(ecalbegin,ecalend,ecalClustersInSC);
    auto hgcalfirstnotinsc = std::partition(hgcalbegin,hgcalend,hgcalClustersInSC);
    //reset the begin and end iterators
    ecalbegin = _splayedblock[reco::PFBlockElement::ECAL].begin();
    ecalend = _splayedblock[reco::PFBlockElement::ECAL].end();  
 
    hgcalbegin = _splayedblock[reco::PFBlockElement::HGCAL].begin();
    hgcalend = _splayedblock[reco::PFBlockElement::HGCAL].end();  
 
    //get list of associated clusters by det id and energy matching
    //(only needed when using non-pf supercluster)
    std::vector<const ClusterElement*> safePFClusters = is_pf_sc ? std::vector<const ClusterElement*>() : getSCAssociatedECALsSafe(scref,_splayedblock[reco::PFBlockElement::ECAL]);
    
    if( ecalfirstnotinsc == ecalbegin &&  
        hgcalfirstnotinsc == hgcalbegin) {
      LOGERR("PFEGammaAlgo::unwrapSuperCluster()")
        << "No associated block elements to SuperCluster!" 
        << " This is a bug we should fix!"
        << std::endl;
      return false;
    }
    npfclusters = std::distance(ecalbegin,ecalfirstnotinsc) + std::distance(hgcalbegin,hgcalfirstnotinsc);
    // ensure we have found the correct number of PF ecal clusters in the case
    // that this is a PF supercluster, otherwise all bets are off
    if( is_pf_sc && nscclusters != npfclusters ) {
      std::stringstream sc_err;
      thesc->Dump(sc_err,"\t");
      throw cms::Exception("PFEGammaAlgo::unwrapSuperCluster()")
        << "The number of found ecal elements ("
        << nscclusters << ") in block is not the same as"
        << " the number of ecal PF clusters reported by the PFSuperCluster"
        << " itself (" << npfclusters
        << ")! This should not happen!" << std::endl 
        << sc_err.str() << std::endl;
    }
    for( auto ecalitr = ecalbegin; ecalitr != ecalfirstnotinsc; ++ecalitr ) {    
      const PFClusterElement* elemascluster = 
        docast(const PFClusterElement*,ecalitr->first);
 
      // reject clusters that really shouldn't be associated to the SC
      // (only needed when using non-pf-supercluster)
      if(!is_pf_sc && std::find(safePFClusters.begin(),safePFClusters.end(),elemascluster) ==
     safePFClusters.end() ) continue;
 
      //add cluster
      ecalclusters.emplace_back(elemascluster,true);
      //mark cluster as used
      ecalitr->second = false;     
      
      // process the ES elements
      // auto is a pair<Iterator,bool> here, bool is false when placing fails
      auto emplaceresult = ecal2ps.emplace(elemascluster,
                       ClusterMap::mapped_type());    
      if( !emplaceresult.second ) {
        std::stringstream clus_err;
        elemascluster->Dump(clus_err,"\t");
        throw cms::Exception("PFEGammaAlgo::unwrapSuperCluster()")
      << "List of pointers to ECAL block elements contains non-unique items!"
      << " This is very bad!" << std::endl
      << "cluster ptr = 0x" << std::hex << elemascluster << std::dec 
      << std::endl << clus_err.str() << std::endl;
      }    
      ClusterMap::mapped_type& eslist = emplaceresult.first->second;    
      npfpsclusters += attachPSClusters(elemascluster,eslist);    
    } // loop over ecal elements
 
    for( auto hgcalitr = hgcalbegin; hgcalitr != hgcalfirstnotinsc; ++hgcalitr ) {    
      const PFClusterElement* elemascluster = 
        docast(const PFClusterElement*,hgcalitr->first);
 
      // reject clusters that really shouldn't be associated to the SC
      // (only needed when using non-pf-supercluster)
      if(!is_pf_sc && std::find(safePFClusters.begin(),safePFClusters.end(),elemascluster) ==
     safePFClusters.end() ) continue;
 
      //add cluster
      ecalclusters.emplace_back(elemascluster,true);
      //mark cluster as used
      hgcalitr->second = false;     
    } // loop over ecal elements
    
    /*
    if( is_pf_sc && nscpsclusters != npfpsclusters) {
      std::stringstream sc_err;
      thesc->Dump(sc_err,"\t");
      throw cms::Exception("PFEGammaAlgo::unwrapSuperCluster()")
        << "The number of found PF preshower elements (" 
        << npfpsclusters << ") in block is not the same as"
        << " the number of preshower clusters reported by the PFSuperCluster"
        << " itself (" << nscpsclusters << ")! This should not happen!" 
        << std::endl 
        << sc_err.str() << std::endl;
    }
    */
 
    LOGDRESSED("PFEGammaAlgo")
      << " Unwrapped SC has " << npfclusters << " ECAL sub-clusters"
      << " and " << npfpsclusters << " PreShower layers 1 & 2 clusters!" 
      << std::endl; 
    return true;
  }