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#include "EgammaAnalysis/ElectronTools/plugins/RegressionEnergyPatElectronProducer.h"
#include "FWCore/Framework/interface/Frameworkfwd.h"
#include "FWCore/Framework/interface/MakerMacros.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/ParameterSet/interface/ParameterSet.h"
#include "FWCore/ParameterSet/interface/ConfigurationDescriptions.h"
#include "FWCore/ParameterSet/interface/ParameterSetDescription.h"
#include "FWCore/Framework/interface/ESHandle.h"
#include "FWCore/Utilities/interface/EDMException.h"
#include "Geometry/Records/interface/CaloTopologyRecord.h"
#include "Geometry/Records/interface/CaloGeometryRecord.h"
#include "EgammaAnalysis/ElectronTools/interface/SuperClusterHelper.h"
#include <iostream>
RegressionEnergyPatElectronProducer::RegressionEnergyPatElectronProducer(const edm::ParameterSet& cfg) {
inputGsfElectronsToken_ =
mayConsume<reco::GsfElectronCollection>(cfg.getParameter<edm::InputTag>("inputElectronsTag"));
inputPatElectronsToken_ = mayConsume<pat::ElectronCollection>(cfg.getParameter<edm::InputTag>("inputElectronsTag"));
inputCollectionType_ = cfg.getParameter<uint32_t>("inputCollectionType");
rhoInputToken_ = consumes<double>(cfg.getParameter<edm::InputTag>("rhoCollection"));
verticesInputToken_ = consumes<reco::VertexCollection>(cfg.getParameter<edm::InputTag>("vertexCollection"));
energyRegressionType_ = cfg.getParameter<uint32_t>("energyRegressionType");
regressionInputFile_ = cfg.getParameter<std::string>("regressionInputFile");
recHitCollectionEBToken_ = mayConsume<EcalRecHitCollection>(cfg.getParameter<edm::InputTag>("recHitCollectionEB"));
recHitCollectionEEToken_ = mayConsume<EcalRecHitCollection>(cfg.getParameter<edm::InputTag>("recHitCollectionEE"));
ecalTopoToken_ = esConsumes();
caloGeomToken_ = esConsumes();
nameEnergyReg_ = cfg.getParameter<std::string>("nameEnergyReg");
nameEnergyErrorReg_ = cfg.getParameter<std::string>("nameEnergyErrorReg");
debug_ = cfg.getUntrackedParameter<bool>("debug");
useReducedRecHits_ = cfg.getParameter<bool>("useRecHitCollections");
produceValueMaps_ = cfg.getParameter<bool>("produceValueMaps");
// if Gsf Electrons; useReducedRecHits should be used)
if (inputCollectionType_ == 0 && !useReducedRecHits_) {
throw cms::Exception("InconsistentParameters")
<< " *** Inconsistent configuration : if you read GsfElectrons, you should set useRecHitCollections to true "
"and provide the correcte values to recHitCollectionEB and recHitCollectionEE (most probably "
"reducedEcalRecHitsEB and reducedEcalRecHitsEE )"
<< std::endl;
}
if (inputCollectionType_ == 0 && !produceValueMaps_) {
edm::LogPrint("RegressionEnergyPatElectronProducer")
<< " You are running on GsfElectrons and the producer is not configured to produce ValueMaps with the results. "
"In that case, it does not nothing !! ";
}
if (inputCollectionType_ == 0) {
// do nothing
} else if (inputCollectionType_ == 1) {
produces<pat::ElectronCollection>();
} else {
throw cms::Exception("InconsistentParameters")
<< " inputCollectionType should be either 0 (GsfElectrons) or 1 (pat::Electrons) ";
}
//set regression type
ElectronEnergyRegressionEvaluate::ElectronEnergyRegressionType type = ElectronEnergyRegressionEvaluate::kNoTrkVar;
if (energyRegressionType_ == 1)
type = ElectronEnergyRegressionEvaluate::kNoTrkVar;
else if (energyRegressionType_ == 2)
type = ElectronEnergyRegressionEvaluate::kWithSubCluVar;
else if (energyRegressionType_ == 3)
type = ElectronEnergyRegressionEvaluate::kWithTrkVar;
//load weights and initialize
regressionEvaluator_ = new ElectronEnergyRegressionEvaluate();
regressionEvaluator_->initialize(regressionInputFile_, type);
if (produceValueMaps_) {
produces<edm::ValueMap<double> >(nameEnergyReg_);
produces<edm::ValueMap<double> >(nameEnergyErrorReg_);
}
//****************************************************************************************
//set up regression calculator
//****************************************************************************************
geomInitialized_ = false;
edm::LogPrint("RegressionEnergyPatElectronProducer") << " Finished initialization ";
}
RegressionEnergyPatElectronProducer::~RegressionEnergyPatElectronProducer() { delete regressionEvaluator_; }
void RegressionEnergyPatElectronProducer::produce(edm::Event& event, const edm::EventSetup& setup) {
assert(regressionEvaluator_->isInitialized());
if (!geomInitialized_) {
ecalTopology_ = &setup.getData(ecalTopoToken_);
caloGeometry_ = &setup.getData(caloGeomToken_);
geomInitialized_ = true;
}
//**************************************************************************
//Get Number of Vertices
//**************************************************************************
edm::Handle<reco::VertexCollection> hVertexProduct;
event.getByToken(verticesInputToken_, hVertexProduct);
const reco::VertexCollection inVertices = *(hVertexProduct.product());
// loop through all vertices
Int_t nvertices = 0;
for (reco::VertexCollection::const_iterator inV = inVertices.begin(); inV != inVertices.end(); ++inV) {
//pass these vertex cuts
if (inV->ndof() >= 4 && inV->position().Rho() <= 2.0 && fabs(inV->z()) <= 24.0) {
nvertices++;
}
}
//**************************************************************************
//Get Rho
//**************************************************************************
double rho = 0;
edm::Handle<double> hRhoKt6PFJets;
event.getByToken(rhoInputToken_, hRhoKt6PFJets);
rho = (*hRhoKt6PFJets);
//*************************************************************************
// Get the RecHits
//************************************************************************
edm::Handle<EcalRecHitCollection> pEBRecHits;
edm::Handle<EcalRecHitCollection> pEERecHits;
if (useReducedRecHits_) {
event.getByToken(recHitCollectionEBToken_, pEBRecHits);
event.getByToken(recHitCollectionEEToken_, pEERecHits);
}
edm::Handle<reco::GsfElectronCollection> gsfCollectionH;
edm::Handle<pat::ElectronCollection> patCollectionH;
if (inputCollectionType_ == 0) {
event.getByToken(inputGsfElectronsToken_, gsfCollectionH);
nElectrons_ = gsfCollectionH->size();
}
if (inputCollectionType_ == 1) {
event.getByToken(inputPatElectronsToken_, patCollectionH);
nElectrons_ = patCollectionH->size();
}
// prepare the two even if only one is used
std::unique_ptr<pat::ElectronCollection> patElectrons(new pat::ElectronCollection);
// Fillers for ValueMaps:
std::unique_ptr<edm::ValueMap<double> > regrEnergyMap(new edm::ValueMap<double>());
edm::ValueMap<double>::Filler energyFiller(*regrEnergyMap);
std::unique_ptr<edm::ValueMap<double> > regrEnergyErrorMap(new edm::ValueMap<double>());
edm::ValueMap<double>::Filler energyErrorFiller(*regrEnergyErrorMap);
// Reserve the vectors with outputs
std::vector<double> energyValues;
std::vector<double> energyErrorValues;
energyValues.reserve(nElectrons_);
energyErrorValues.reserve(nElectrons_);
for (unsigned iele = 0; iele < nElectrons_; ++iele) {
const reco::GsfElectron* ele = (inputCollectionType_ == 0) ? &(*gsfCollectionH)[iele] : &(*patCollectionH)[iele];
if (debug_) {
edm::LogPrint("RegressionEnergyPatElectronProducer")
<< "***********************************************************************\n";
edm::LogPrint("RegressionEnergyPatElectronProducer")
<< "Run Lumi Event: " << event.id().run() << " " << event.luminosityBlock() << " " << event.id().event()
<< "\n";
edm::LogPrint("RegressionEnergyPatElectronProducer")
<< "Pat Electron : " << ele->pt() << " " << ele->eta() << " " << ele->phi() << "\n";
}
pat::Electron* myPatElectron = (inputCollectionType_ == 0) ? nullptr : new pat::Electron((*patCollectionH)[iele]);
// Get RecHit Collection
const EcalRecHitCollection* recHits = nullptr;
if (useReducedRecHits_) {
if (ele->isEB()) {
recHits = pEBRecHits.product();
} else
recHits = pEERecHits.product();
} else {
recHits = (*patCollectionH)[iele].recHits();
}
SuperClusterHelper* mySCHelper = nullptr;
if (inputCollectionType_ == 0) {
mySCHelper = new SuperClusterHelper(&(*ele), recHits, ecalTopology_, caloGeometry_);
} else if (inputCollectionType_ == 1) {
mySCHelper = new SuperClusterHelper(&(*patCollectionH)[iele], recHits, ecalTopology_, caloGeometry_);
}
// apply regression energy
Double_t FinalMomentum = 0;
Double_t FinalMomentumError = 0;
Double_t RegressionMomentum = 0;
Double_t RegressionMomentumError = 0;
if (energyRegressionType_ == 1) {
RegressionMomentum = regressionEvaluator_->regressionValueNoTrkVar(mySCHelper->rawEnergy(),
mySCHelper->eta(),
mySCHelper->phi(),
mySCHelper->r9(),
mySCHelper->etaWidth(),
mySCHelper->phiWidth(),
mySCHelper->clustersSize(),
mySCHelper->hadronicOverEm(),
rho,
nvertices,
mySCHelper->seedEta(),
mySCHelper->seedPhi(),
mySCHelper->seedEnergy(),
mySCHelper->e3x3(),
mySCHelper->e5x5(),
mySCHelper->sigmaIetaIeta(),
mySCHelper->spp(),
mySCHelper->sep(),
mySCHelper->eMax(),
mySCHelper->e2nd(),
mySCHelper->eTop(),
mySCHelper->eBottom(),
mySCHelper->eLeft(),
mySCHelper->eRight(),
mySCHelper->e2x5Max(),
mySCHelper->e2x5Top(),
mySCHelper->e2x5Bottom(),
mySCHelper->e2x5Left(),
mySCHelper->e2x5Right(),
mySCHelper->ietaSeed(),
mySCHelper->iphiSeed(),
mySCHelper->etaCrySeed(),
mySCHelper->phiCrySeed(),
mySCHelper->preshowerEnergyOverRaw(),
debug_);
RegressionMomentumError =
regressionEvaluator_->regressionUncertaintyNoTrkVar(mySCHelper->rawEnergy(),
mySCHelper->eta(),
mySCHelper->phi(),
mySCHelper->r9(),
mySCHelper->etaWidth(),
mySCHelper->phiWidth(),
mySCHelper->clustersSize(),
mySCHelper->hadronicOverEm(),
rho,
nvertices,
mySCHelper->seedEta(),
mySCHelper->seedPhi(),
mySCHelper->seedEnergy(),
mySCHelper->e3x3(),
mySCHelper->e5x5(),
mySCHelper->sigmaIetaIeta(),
mySCHelper->spp(),
mySCHelper->sep(),
mySCHelper->eMax(),
mySCHelper->e2nd(),
mySCHelper->eTop(),
mySCHelper->eBottom(),
mySCHelper->eLeft(),
mySCHelper->eRight(),
mySCHelper->e2x5Max(),
mySCHelper->e2x5Top(),
mySCHelper->e2x5Bottom(),
mySCHelper->e2x5Left(),
mySCHelper->e2x5Right(),
mySCHelper->ietaSeed(),
mySCHelper->iphiSeed(),
mySCHelper->etaCrySeed(),
mySCHelper->phiCrySeed(),
mySCHelper->preshowerEnergyOverRaw(),
debug_);
// PAT method
if (inputCollectionType_ == 1) {
myPatElectron->setEcalRegressionEnergy(RegressionMomentum, RegressionMomentumError);
}
energyValues.push_back(RegressionMomentum);
energyErrorValues.push_back(RegressionMomentumError);
} else if (energyRegressionType_ == 2) { // ECAL regression with subcluster information
RegressionMomentum = regressionEvaluator_->regressionValueWithSubClusters(mySCHelper->rawEnergy(),
mySCHelper->eta(),
mySCHelper->phi(),
mySCHelper->r9(),
mySCHelper->etaWidth(),
mySCHelper->phiWidth(),
mySCHelper->clustersSize(),
mySCHelper->hadronicOverEm(),
rho,
nvertices,
mySCHelper->seedEta(),
mySCHelper->seedPhi(),
mySCHelper->seedEnergy(),
mySCHelper->e3x3(),
mySCHelper->e5x5(),
mySCHelper->sigmaIetaIeta(),
mySCHelper->spp(),
mySCHelper->sep(),
mySCHelper->eMax(),
mySCHelper->e2nd(),
mySCHelper->eTop(),
mySCHelper->eBottom(),
mySCHelper->eLeft(),
mySCHelper->eRight(),
mySCHelper->e2x5Max(),
mySCHelper->e2x5Top(),
mySCHelper->e2x5Bottom(),
mySCHelper->e2x5Left(),
mySCHelper->e2x5Right(),
mySCHelper->ietaSeed(),
mySCHelper->iphiSeed(),
mySCHelper->etaCrySeed(),
mySCHelper->phiCrySeed(),
mySCHelper->preshowerEnergyOverRaw(),
ele->ecalDrivenSeed(),
ele->isEBEtaGap(),
ele->isEBPhiGap(),
ele->isEEDeeGap(),
mySCHelper->eSubClusters(),
mySCHelper->subClusterEnergy(1),
mySCHelper->subClusterEta(1),
mySCHelper->subClusterPhi(1),
mySCHelper->subClusterEmax(1),
mySCHelper->subClusterE3x3(1),
mySCHelper->subClusterEnergy(2),
mySCHelper->subClusterEta(2),
mySCHelper->subClusterPhi(2),
mySCHelper->subClusterEmax(2),
mySCHelper->subClusterE3x3(2),
mySCHelper->subClusterEnergy(3),
mySCHelper->subClusterEta(3),
mySCHelper->subClusterPhi(3),
mySCHelper->subClusterEmax(3),
mySCHelper->subClusterE3x3(3),
mySCHelper->nPreshowerClusters(),
mySCHelper->eESClusters(),
mySCHelper->esClusterEnergy(0),
mySCHelper->esClusterEta(0),
mySCHelper->esClusterPhi(0),
mySCHelper->esClusterEnergy(1),
mySCHelper->esClusterEta(1),
mySCHelper->esClusterPhi(1),
mySCHelper->esClusterEnergy(2),
mySCHelper->esClusterEta(2),
mySCHelper->esClusterPhi(2),
ele->isEB(),
debug_);
RegressionMomentumError =
regressionEvaluator_->regressionUncertaintyWithSubClusters(mySCHelper->rawEnergy(),
mySCHelper->eta(),
mySCHelper->phi(),
mySCHelper->r9(),
mySCHelper->etaWidth(),
mySCHelper->phiWidth(),
mySCHelper->clustersSize(),
mySCHelper->hadronicOverEm(),
rho,
nvertices,
mySCHelper->seedEta(),
mySCHelper->seedPhi(),
mySCHelper->seedEnergy(),
mySCHelper->e3x3(),
mySCHelper->e5x5(),
mySCHelper->sigmaIetaIeta(),
mySCHelper->spp(),
mySCHelper->sep(),
mySCHelper->eMax(),
mySCHelper->e2nd(),
mySCHelper->eTop(),
mySCHelper->eBottom(),
mySCHelper->eLeft(),
mySCHelper->eRight(),
mySCHelper->e2x5Max(),
mySCHelper->e2x5Top(),
mySCHelper->e2x5Bottom(),
mySCHelper->e2x5Left(),
mySCHelper->e2x5Right(),
mySCHelper->ietaSeed(),
mySCHelper->iphiSeed(),
mySCHelper->etaCrySeed(),
mySCHelper->phiCrySeed(),
mySCHelper->preshowerEnergyOverRaw(),
ele->ecalDrivenSeed(),
ele->isEBEtaGap(),
ele->isEBPhiGap(),
ele->isEEDeeGap(),
mySCHelper->eSubClusters(),
mySCHelper->subClusterEnergy(1),
mySCHelper->subClusterEta(1),
mySCHelper->subClusterPhi(1),
mySCHelper->subClusterEmax(1),
mySCHelper->subClusterE3x3(1),
mySCHelper->subClusterEnergy(2),
mySCHelper->subClusterEta(2),
mySCHelper->subClusterPhi(2),
mySCHelper->subClusterEmax(2),
mySCHelper->subClusterE3x3(2),
mySCHelper->subClusterEnergy(3),
mySCHelper->subClusterEta(3),
mySCHelper->subClusterPhi(3),
mySCHelper->subClusterEmax(3),
mySCHelper->subClusterE3x3(3),
mySCHelper->nPreshowerClusters(),
mySCHelper->eESClusters(),
mySCHelper->esClusterEnergy(0),
mySCHelper->esClusterEta(0),
mySCHelper->esClusterPhi(0),
mySCHelper->esClusterEnergy(1),
mySCHelper->esClusterEta(1),
mySCHelper->esClusterPhi(1),
mySCHelper->esClusterEnergy(2),
mySCHelper->esClusterEta(2),
mySCHelper->esClusterPhi(2),
ele->isEB(),
debug_);
// PAT method
if (inputCollectionType_ == 1) {
myPatElectron->setEcalRegressionEnergy(RegressionMomentum, RegressionMomentumError);
}
energyValues.push_back(RegressionMomentum);
energyErrorValues.push_back(RegressionMomentumError);
}
else if (energyRegressionType_ == 3) {
RegressionMomentum = regressionEvaluator_->regressionValueWithTrkVar(ele->p(),
mySCHelper->rawEnergy(),
mySCHelper->eta(),
mySCHelper->phi(),
mySCHelper->etaWidth(),
mySCHelper->phiWidth(),
mySCHelper->clustersSize(),
mySCHelper->hadronicOverEm(),
mySCHelper->r9(),
rho,
nvertices,
mySCHelper->seedEta(),
mySCHelper->seedPhi(),
mySCHelper->seedEnergy(),
mySCHelper->e3x3(),
mySCHelper->e5x5(),
mySCHelper->sigmaIetaIeta(),
mySCHelper->spp(),
mySCHelper->sep(),
mySCHelper->eMax(),
mySCHelper->e2nd(),
mySCHelper->eTop(),
mySCHelper->eBottom(),
mySCHelper->eLeft(),
mySCHelper->eRight(),
mySCHelper->e2x5Max(),
mySCHelper->e2x5Top(),
mySCHelper->e2x5Bottom(),
mySCHelper->e2x5Left(),
mySCHelper->e2x5Right(),
ele->pt(),
ele->trackMomentumAtVtx().R(),
ele->fbrem(),
ele->charge(),
ele->eSuperClusterOverP(),
mySCHelper->ietaSeed(),
mySCHelper->iphiSeed(),
mySCHelper->etaCrySeed(),
mySCHelper->phiCrySeed(),
mySCHelper->preshowerEnergy(),
debug_);
RegressionMomentumError = regressionEvaluator_->regressionUncertaintyWithTrkVar(ele->p(),
mySCHelper->rawEnergy(),
mySCHelper->eta(),
mySCHelper->phi(),
mySCHelper->etaWidth(),
mySCHelper->phiWidth(),
mySCHelper->clustersSize(),
mySCHelper->hadronicOverEm(),
mySCHelper->r9(),
rho,
nvertices,
mySCHelper->seedEta(),
mySCHelper->seedPhi(),
mySCHelper->seedEnergy(),
mySCHelper->e3x3(),
mySCHelper->e5x5(),
mySCHelper->sigmaIetaIeta(),
mySCHelper->spp(),
mySCHelper->sep(),
mySCHelper->eMax(),
mySCHelper->e2nd(),
mySCHelper->eTop(),
mySCHelper->eBottom(),
mySCHelper->eLeft(),
mySCHelper->eRight(),
mySCHelper->e2x5Max(),
mySCHelper->e2x5Top(),
mySCHelper->e2x5Bottom(),
mySCHelper->e2x5Left(),
mySCHelper->e2x5Right(),
ele->pt(),
ele->trackMomentumAtVtx().R(),
ele->fbrem(),
ele->charge(),
ele->eSuperClusterOverP(),
mySCHelper->ietaSeed(),
mySCHelper->iphiSeed(),
mySCHelper->etaCrySeed(),
mySCHelper->phiCrySeed(),
mySCHelper->preshowerEnergy(),
debug_);
FinalMomentum = RegressionMomentum;
FinalMomentumError = RegressionMomentumError;
const math::XYZTLorentzVector& oldMomentum = ele->p4();
math::XYZTLorentzVector newMomentum = math::XYZTLorentzVector(oldMomentum.x() * FinalMomentum / oldMomentum.t(),
oldMomentum.y() * FinalMomentum / oldMomentum.t(),
oldMomentum.z() * FinalMomentum / oldMomentum.t(),
FinalMomentum);
myPatElectron->correctEcalEnergy(RegressionMomentum, RegressionMomentumError);
myPatElectron->correctMomentum(newMomentum, ele->trackMomentumError(), FinalMomentumError);
energyValues.push_back(RegressionMomentum);
energyErrorValues.push_back(RegressionMomentumError);
} else {
edm::LogPrint("RegressionEnergyPatElectronProducer")
<< "Error: RegressionType = " << energyRegressionType_ << " is not supported.\n";
}
if (inputCollectionType_ == 1) {
patElectrons->push_back(*myPatElectron);
}
if (myPatElectron)
delete myPatElectron;
if (mySCHelper)
delete mySCHelper;
} // loop on electrons
// Write the new collection in the event (AOD case)
if (inputCollectionType_ == 1) {
event.put(std::move(patElectrons));
}
// now AOD case: write ValueMaps
if (produceValueMaps_) {
if (inputCollectionType_ == 0) {
energyFiller.insert(gsfCollectionH, energyValues.begin(), energyValues.end());
energyErrorFiller.insert(gsfCollectionH, energyErrorValues.begin(), energyErrorValues.end());
} else if (inputCollectionType_ == 1) {
energyFiller.insert(patCollectionH, energyValues.begin(), energyValues.end());
energyErrorFiller.insert(patCollectionH, energyErrorValues.begin(), energyErrorValues.end());
}
energyFiller.fill();
energyErrorFiller.fill();
event.put(std::move(regrEnergyMap), nameEnergyReg_);
event.put(std::move(regrEnergyErrorMap), nameEnergyErrorReg_);
}
}
#include "FWCore/Framework/interface/MakerMacros.h"
#include "FWCore/Framework/interface/ESProducer.h"
#include "FWCore/Framework/interface/ModuleFactory.h"
DEFINE_FWK_MODULE(RegressionEnergyPatElectronProducer);
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