#include <CalibratedElectronProducer.h>

Inheritance diagram for CalibratedElectronProducer:

Public Member Functions
	CalibratedElectronProducer (const edm::ParameterSet &)

virtual void	produce (edm::Event &, const edm::EventSetup &)

virtual	~CalibratedElectronProducer ()

Public Member Functions inherited from edm::EDProducer
	EDProducer ()

ModuleDescription const &	moduleDescription () const

virtual	~EDProducer ()

Public Member Functions inherited from edm::ProducerBase
void	callWhenNewProductsRegistered (std::function< void(BranchDescription const &)> const &func)

	ProducerBase ()

void	registerProducts (ProducerBase , ProductRegistry , ModuleDescription const &)

std::function< void(BranchDescription const &)>	registrationCallback () const
	used by the fwk to register list of products More...

virtual	~ProducerBase ()

Public Member Functions inherited from edm::EDConsumerBase
std::vector< ConsumesInfo >	consumesInfo () const

	EDConsumerBase ()

ProductHolderIndexAndSkipBit	indexFrom (EDGetToken, BranchType, TypeID const &) const

void	itemsMayGet (BranchType, std::vector< ProductHolderIndexAndSkipBit > &) const

void	itemsToGet (BranchType, std::vector< ProductHolderIndexAndSkipBit > &) const

std::vector < ProductHolderIndexAndSkipBit > const &	itemsToGetFromEvent () const

void	labelsForToken (EDGetToken iToken, Labels &oLabels) const

void	modulesDependentUpon (std::string const &iProcessName, std::string const &iModuleLabel, bool iPrint, std::vector< char const * > &oModuleLabels) const

void	modulesWhoseProductsAreConsumed (std::vector< ModuleDescription const * > &modules, ProductRegistry const &preg, std::map< std::string, ModuleDescription const * > const &labelsToDesc, std::string const &processName) const

bool	registeredToConsume (ProductHolderIndex, bool, BranchType) const

bool	registeredToConsumeMany (TypeID const &, BranchType) const

void	updateLookup (BranchType iBranchType, ProductHolderIndexHelper const &)

virtual	~EDConsumerBase ()

Private Attributes
bool	applyLinearityCorrection

const CaloGeometry *	caloGeometry_

std::string	combinationRegressionInputPath

int	combinationType

int	correctionsType

std::string	dataset

const CaloTopology *	ecalTopology_

edm::EDGetTokenT < edm::ValueMap< double > >	energyErrorRegToken_

edm::EDGetTokenT < edm::ValueMap< double > >	energyRegToken_

bool	geomInitialized_

edm::EDGetTokenT < reco::GsfElectronCollection >	inputElectronsToken_

bool	isAOD

bool	isMC

std::string	linCorrectionsInputPath

double	lumiRatio

ElectronEPcombinator *	myCombinator

EpCombinationTool *	myEpCombinationTool

std::string	nameNewEnergyErrorReg_

std::string	nameNewEnergyReg_

std::string	newElectronName_

edm::EDGetTokenT < EcalRecHitCollection >	recHitCollectionEBToken_

edm::EDGetTokenT < EcalRecHitCollection >	recHitCollectionEEToken_

std::string	scaleCorrectionsInputPath

bool	synchronization

ElectronEnergyCalibrator *	theEnCorrector

bool	updateEnergyError

bool	verbose

Additional Inherited Members
Public Types inherited from edm::EDProducer
typedef EDProducer	ModuleType

Public Types inherited from edm::ProducerBase
typedef ProductRegistryHelper::TypeLabelList	TypeLabelList

Public Types inherited from edm::EDConsumerBase
typedef ProductLabels	Labels

Static Public Member Functions inherited from edm::EDProducer
static const std::string &	baseType ()

static void	fillDescriptions (ConfigurationDescriptions &descriptions)

static void	prevalidate (ConfigurationDescriptions &descriptions)

Protected Member Functions inherited from edm::EDConsumerBase
template<typename ProductType , BranchType B = InEvent>
EDGetTokenT< ProductType >	consumes (edm::InputTag const &tag)

EDGetToken	consumes (const TypeToGet &id, edm::InputTag const &tag)

template<BranchType B>
EDGetToken	consumes (TypeToGet const &id, edm::InputTag const &tag)

ConsumesCollector	consumesCollector ()
	Use a ConsumesCollector to gather consumes information from helper functions. More...

template<typename ProductType , BranchType B = InEvent>
void	consumesMany ()

void	consumesMany (const TypeToGet &id)

template<BranchType B>
void	consumesMany (const TypeToGet &id)

template<typename ProductType , BranchType B = InEvent>
EDGetTokenT< ProductType >	mayConsume (edm::InputTag const &tag)

EDGetToken	mayConsume (const TypeToGet &id, edm::InputTag const &tag)

template<BranchType B>
EDGetToken	mayConsume (const TypeToGet &id, edm::InputTag const &tag)

Detailed Description

Description: EDProducer of GsfElectron objects

Implementation: <Notes on="" implementation>="">

Definition at line 27 of file CalibratedElectronProducer.h.

Constructor & Destructor Documentation

CalibratedElectronProducer::CalibratedElectronProducer ( const edm::ParameterSet & cfg )

explicit

Definition at line 38 of file CalibratedElectronProducer.cc.

References gather_cfg::cout, dataset::dataset, Exception, contentValuesFiles::fullPath, edm::ParameterSet::getParameter(), AlCaHLTBitMon_QueryRunRegistry::string, and verbose.

 {
     inputElectronsToken_ = consumes<reco::GsfElectronCollection>(cfg.getParameter<edm::InputTag>("inputElectronsTag"));
 
     energyRegToken_      = consumes<edm::ValueMap<double> >(cfg.getParameter<edm::InputTag>("nameEnergyReg"));
     energyErrorRegToken_ = consumes<edm::ValueMap<double> >(cfg.getParameter<edm::InputTag>("nameEnergyErrorReg"));
 
     recHitCollectionEBToken_ = consumes<EcalRecHitCollection>(cfg.getParameter<edm::InputTag>("recHitCollectionEB"));
     recHitCollectionEEToken_ = consumes<EcalRecHitCollection>(cfg.getParameter<edm::InputTag>("recHitCollectionEE"));
 
 
     nameNewEnergyReg_      = cfg.getParameter<std::string>("nameNewEnergyReg");
     nameNewEnergyErrorReg_ = cfg.getParameter<std::string>("nameNewEnergyErrorReg");
     newElectronName_ = cfg.getParameter<std::string>("outputGsfElectronCollectionLabel");
 
 
     dataset = cfg.getParameter<std::string>("inputDataset");
     isMC = cfg.getParameter<bool>("isMC");
     updateEnergyError = cfg.getParameter<bool>("updateEnergyError");
     lumiRatio = cfg.getParameter<double>("lumiRatio");
     correctionsType = cfg.getParameter<int>("correctionsType");
     applyLinearityCorrection = cfg.getParameter<bool>("applyLinearityCorrection");
     combinationType = cfg.getParameter<int>("combinationType");
     verbose = cfg.getParameter<bool>("verbose");
     synchronization = cfg.getParameter<bool>("synchronization");
     combinationRegressionInputPath = cfg.getParameter<std::string>("combinationRegressionInputPath");
     scaleCorrectionsInputPath = cfg.getParameter<std::string>("scaleCorrectionsInputPath");
     linCorrectionsInputPath   = cfg.getParameter<std::string>("linearityCorrectionsInputPath");
 
     //basic checks
     if ( isMC && ( dataset != "Summer11" && dataset != "Fall11"
         && dataset!= "Summer12" && dataset != "Summer12_DR53X_HCP2012"
         && dataset != "Summer12_LegacyPaper" ) )
     {
         throw cms::Exception("CalibratedgsfElectronProducer|ConfigError") << "Unknown MC dataset";
     }
     if ( !isMC && ( dataset != "Prompt" && dataset != "ReReco"
         && dataset != "Jan16ReReco" && dataset != "ICHEP2012"
         && dataset != "Moriond2013" && dataset != "22Jan2013ReReco" ) )
     {
         throw cms::Exception("CalibratedgsfElectronProducer|ConfigError") << "Unknown Data dataset";
     }
 
     // Linearity correction only applied on combined momentum obtain with regression combination
     if(combinationType!=3 && applyLinearityCorrection)
     {
         std::cout << "[CalibratedElectronProducer] "
             << "Warning: you chose combinationType!=3 and applyLinearityCorrection=True. Linearity corrections are only applied on top of combination 3." << std::endl;
     }
 
     std::cout << "[CalibratedGsfElectronProducer] Correcting scale for dataset " << dataset << std::endl;
 
     //initializations
     std::string pathToDataCorr;
     switch (correctionsType)
     {
         case 0:
             break;
         case 1:
             if ( verbose )
             {
                 std::cout << "You choose regression 1 scale corrections" << std::endl;
             }
             break;
         case 2:
             if ( verbose )
             {
                 std::cout << "You choose regression 2 scale corrections." << std::endl;
             }
             break;
         case 3:
             throw cms::Exception("CalibratedgsfElectronProducer|ConfigError")
                 << "You choose standard non-regression ecal energy scale corrections. They are not implemented yet.";
             break;
         default:
             throw cms::Exception("CalibratedgsfElectronProducer|ConfigError")
                 << "Unknown correctionsType !!!" ;
     }
 
     theEnCorrector = new ElectronEnergyCalibrator
         (
             edm::FileInPath(scaleCorrectionsInputPath.c_str()).fullPath().c_str(),
             edm::FileInPath(linCorrectionsInputPath.c_str()).fullPath().c_str(),
             dataset,
             correctionsType,
             applyLinearityCorrection,
             lumiRatio,
             isMC,
             updateEnergyError,
             verbose,
             synchronization
         );
 
     if ( verbose )
     {
         std::cout<<"[CalibratedGsfElectronProducer] "
         << "ElectronEnergyCalibrator object is created" << std::endl;
     }
 
     myEpCombinationTool = new EpCombinationTool();
     myEpCombinationTool->init
         (
             edm::FileInPath(combinationRegressionInputPath.c_str()).fullPath().c_str(),
             "CombinationWeight"
         );
 
     myCombinator = new ElectronEPcombinator();
 
     if ( verbose )
     {
         std::cout << "[CalibratedGsfElectronProducer] "
         << "Combination tools are created and initialized" << std::endl;
     }
 
     produces<edm::ValueMap<double> >(nameNewEnergyReg_);
     produces<edm::ValueMap<double> >(nameNewEnergyErrorReg_);
     produces<GsfElectronCollection> (newElectronName_);
     geomInitialized_ = false;
 }

CalibratedElectronProducer::~CalibratedElectronProducer ( )

virtual

Definition at line 158 of file CalibratedElectronProducer.cc.

159 {}

Member Function Documentation

void CalibratedElectronProducer::produce	(	edm::Event &	event,
		const edm::EventSetup &	setup
	)

virtual

Implements edm::EDProducer.

Definition at line 161 of file CalibratedElectronProducer.cc.

Referenced by JSONExport.JsonExport::export(), HTMLExport.HTMLExport::export(), and HTMLExport.HTMLExportStatic::export().

 {
     if (!geomInitialized_)
     {
         edm::ESHandle<CaloTopology> theCaloTopology;
         setup.get<CaloTopologyRecord>().get(theCaloTopology);
         ecalTopology_ = & (*theCaloTopology);
 
         edm::ESHandle<CaloGeometry> theCaloGeometry;
         setup.get<CaloGeometryRecord>().get(theCaloGeometry);
         caloGeometry_ = & (*theCaloGeometry);
         geomInitialized_ = true;
     }
 
     // Read GsfElectrons
     edm::Handle<reco::GsfElectronCollection>  oldElectronsH ;
     event.getByToken(inputElectronsToken_,oldElectronsH) ;
 
     // Read RecHits
     edm::Handle< EcalRecHitCollection > pEBRecHits;
     edm::Handle< EcalRecHitCollection > pEERecHits;
     event.getByToken( recHitCollectionEBToken_, pEBRecHits );
     event.getByToken( recHitCollectionEEToken_, pEERecHits );
 
     // ReadValueMaps
     edm::Handle<edm::ValueMap<double> > valMapEnergyH;
     event.getByToken(energyRegToken_,valMapEnergyH);
     edm::Handle<edm::ValueMap<double> > valMapEnergyErrorH;
     event.getByToken(energyErrorRegToken_,valMapEnergyErrorH);
 
     // Prepare output collections
     std::auto_ptr<GsfElectronCollection> electrons( new reco::GsfElectronCollection ) ;
     // Fillers for ValueMaps:
     std::auto_ptr<edm::ValueMap<double> > regrNewEnergyMap(new edm::ValueMap<double>() );
     edm::ValueMap<double>::Filler energyFiller(*regrNewEnergyMap);
 
     std::auto_ptr<edm::ValueMap<double> > regrNewEnergyErrorMap(new edm::ValueMap<double>() );
     edm::ValueMap<double>::Filler energyErrorFiller(*regrNewEnergyErrorMap);
 
     // first clone the initial collection
     unsigned nElectrons = oldElectronsH->size();
     for( unsigned iele = 0; iele < nElectrons; ++iele )
     {
       electrons->push_back((*oldElectronsH)[iele]);
     }
 
     std::vector<double> regressionValues;
     std::vector<double> regressionErrorValues;
     regressionValues.reserve(nElectrons);
     regressionErrorValues.reserve(nElectrons);
 
     if ( correctionsType != 0 )
     {
         for ( unsigned iele = 0; iele < nElectrons ; ++iele)
         {
             reco::GsfElectron & ele  ( (*electrons)[iele]);
             reco::GsfElectronRef elecRef(oldElectronsH,iele);
             double regressionEnergy = (*valMapEnergyH)[elecRef];
             double regressionEnergyError = (*valMapEnergyErrorH)[elecRef];
 
             regressionValues.push_back(regressionEnergy);
             regressionErrorValues.push_back(regressionEnergyError);
 
             //    r9
             const EcalRecHitCollection * recHits=0;
             if( ele.isEB() )
             {
                 recHits = pEBRecHits.product();
             } else recHits = pEERecHits.product();
 
             SuperClusterHelper mySCHelper( &(ele), recHits, ecalTopology_, caloGeometry_ );
 
             int elClass = -1;
             int run = event.run();
 
             float r9 = mySCHelper.r9();
             double correctedEcalEnergy = ele.correctedEcalEnergy();
             double correctedEcalEnergyError = ele.correctedEcalEnergyError();
             double trackMomentum = ele.trackMomentumAtVtx().R();
             double trackMomentumError = ele.trackMomentumError();
             double combinedMomentum = ele.p();
             double combinedMomentumError = ele.p4Error(ele.candidateP4Kind());
             // FIXME : p4Error not filled for pure tracker electrons
             // Recompute it using the parametrization implemented in
             // RecoEgamma/EgammaElectronAlgos/src/ElectronEnergyCorrector.cc::simpleParameterizationUncertainty()
             if( !ele.ecalDrivenSeed() )
             {
                 double error = 999. ;
                 double momentum = (combinedMomentum<15. ? 15. : combinedMomentum);
                 if ( ele.isEB() )
                 {
                     float parEB[3] = { 5.24e-02,  2.01e-01, 1.00e-02};
                     error = momentum * sqrt( pow(parEB[0]/sqrt(momentum),2) + pow(parEB[1]/momentum,2) + pow(parEB[2],2) );
                 }
                 else if ( ele.isEE() )
                 {
                     float parEE[3] = { 1.46e-01, 9.21e-01, 1.94e-03} ;
                     error = momentum * sqrt( pow(parEE[0]/sqrt(momentum),2) + pow(parEE[1]/momentum,2) + pow(parEE[2],2) );
                 }
                 combinedMomentumError = error;
             }
 
             if (ele.classification() == reco::GsfElectron::GOLDEN) {elClass = 0;}
             if (ele.classification() == reco::GsfElectron::BIGBREM) {elClass = 1;}
             if (ele.classification() == reco::GsfElectron::BADTRACK) {elClass = 2;}
             if (ele.classification() == reco::GsfElectron::SHOWERING) {elClass = 3;}
             if (ele.classification() == reco::GsfElectron::GAP) {elClass = 4;}
 
             SimpleElectron mySimpleElectron
                 (
                     run,
                     elClass,
                     r9,
                     correctedEcalEnergy,
                     correctedEcalEnergyError,
                     trackMomentum,
                     trackMomentumError,
                     regressionEnergy,
                     regressionEnergyError,
                     combinedMomentum,
                     combinedMomentumError,
                     ele.superCluster()->eta(),
                     ele.isEB(),
                     isMC,
                     ele.ecalDriven(),
                     ele.trackerDrivenSeed()
                 );
 
             // energy calibration for ecalDriven electrons
             if ( ele.core()->ecalDrivenSeed() || correctionsType==2 || combinationType==3 )
             {
                 theEnCorrector->calibrate(mySimpleElectron, event.streamID());
 
                 // E-p combination
 
                 switch ( combinationType )
                 {
                     case 0:
                         if ( verbose )
                         {
                             std::cout << "[CalibratedGsfElectronProducer] "
                             << "You choose not to combine." << std::endl;
                         }
                         break;
                     case 1:
                         if ( verbose )
                         {
                             std::cout << "[CalibratedGsfElectronProducer] "
                             << "You choose corrected regression energy for standard combination" << std::endl;
                         }
                         myCombinator->setCombinationMode(1);
                         myCombinator->combine(mySimpleElectron);
                         break;
                     case 2:
                         if ( verbose )
                         {
                             std::cout << "[CalibratedGsfElectronProducer] "
                             << "You choose uncorrected regression energy for standard combination" << std::endl;
                         }
                         myCombinator->setCombinationMode(2);
                         myCombinator->combine(mySimpleElectron);
                         break;
                     case 3:
                         if ( verbose )
                         {
                             std::cout << "[CalibratedGsfElectronProducer] "
                             << "You choose regression combination." << std::endl;
                         }
                         myEpCombinationTool->combine(mySimpleElectron);
                         theEnCorrector->correctLinearity(mySimpleElectron);
                         break;
                     default:
                         throw cms::Exception("CalibratedgsfElectronProducer|ConfigError")
                             << "Unknown combination Type !!!" ;
                 }
 
                 math::XYZTLorentzVector oldMomentum = ele.p4() ;
                 math::XYZTLorentzVector newMomentum_ ;
                 newMomentum_ = math::XYZTLorentzVector
                  ( oldMomentum.x()*mySimpleElectron.getCombinedMomentum()/oldMomentum.t(),
                    oldMomentum.y()*mySimpleElectron.getCombinedMomentum()/oldMomentum.t(),
                    oldMomentum.z()*mySimpleElectron.getCombinedMomentum()/oldMomentum.t(),
                    mySimpleElectron.getCombinedMomentum() ) ;
 
                 ele.correctMomentum
                     (
                         newMomentum_,
                         mySimpleElectron.getTrackerMomentumError(),
                         mySimpleElectron.getCombinedMomentumError()
                     );
 
                 if ( verbose )
                 {
                     std::cout << "[CalibratedGsfElectronProducer] Combined momentum after saving "
                         << ele.p4().t() << std::endl;
                 }
             }// end of if (ele.core()->ecalDrivenSeed())
         }// end of loop on electrons
     } else
     {
         if ( verbose )
         {
             std::cout << "[CalibratedGsfElectronProducer] "
             << "You choose not to correct. Uncorrected Regression Energy is taken." << std::endl;
         }
     }
 
     // Save the electrons
     const edm::OrphanHandle<reco::GsfElectronCollection> gsfNewElectronHandle = event.put(electrons, newElectronName_) ;
     energyFiller.insert(gsfNewElectronHandle,regressionValues.begin(),regressionValues.end());
     energyFiller.fill();
     energyErrorFiller.insert(gsfNewElectronHandle,regressionErrorValues.begin(),regressionErrorValues.end());
     energyErrorFiller.fill();
 
     event.put(regrNewEnergyMap,nameNewEnergyReg_);
     event.put(regrNewEnergyErrorMap,nameNewEnergyErrorReg_);
 }