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// $Id: ObjectCleaningMod.cc,v 1.6 2008/09/30 16:38:20 sixie Exp $
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#include "MitAna/TreeMod/interface/ObjectCleaningMod.h"
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#include <TH1D.h>
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#include <TH2D.h>
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#include "MitAna/DataTree/interface/Names.h"
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#include "MitAna/DataCont/interface/ObjArray.h"
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#include "MitAna/Utils/interface/IsolationTools.h"
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#include "MitCommon/MathTools/interface/MathUtils.h"
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#include "MitAna/Utils/interface/IsolationTools.h"
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using namespace mithep;
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ClassImp(mithep::ObjectCleaningMod)
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//--------------------------------------------------------------------------------------------------
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ObjectCleaningMod::ObjectCleaningMod(const char *name, const char *title) :
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BaseMod(name,title),
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fPrintDebug(false),
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fMCPartName(Names::gkMCPartBrn),
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fMuonName(Names::gkMuonBrn),
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fElectronName(Names::gkElectronBrn),
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fJetName(Names::gkCaloJetBrn),
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fSCJetName(Names::gkSC5JetBrn),
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fMetName(Names::gkCaloMetBrn),
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fGoodElectronsName("GoodElectrons"),
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fGoodMuonsName("GoodMuons"),
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fGoodCentralJetsName("GoodCentralJets" ),
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fGoodForwardJetsName("GoodForwardJets" ),
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fGoodCentralSCJetsName("GoodCentralSCJets" ),
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fGoodForwardSCJetsName("GoodForwardSCJets" ),
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fGenLeptonsName("GenLeptons"),
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fParticles(0),
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fMuons(0),
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fElectrons(0)
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{
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// Constructor.
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}
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//--------------------------------------------------------------------------------------------------
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void ObjectCleaningMod::Begin()
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{
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// Run startup code on the client machine. For this module, we dont do
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// anything here.
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}
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//--------------------------------------------------------------------------------------------------
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void ObjectCleaningMod::Process()
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{
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// Process entries of the tree. For this module, we just load the branches and
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//output debug info or not
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fNEventsProcessed++;
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if (fNEventsProcessed % 1000 == 0 || fPrintDebug) {
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time_t systime;
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systime = time(NULL);
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cerr << endl << "ObjectCleaningMod : Process Event " << fNEventsProcessed << " Time: " << ctime(&systime) << endl;
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}
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//Muons
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ObjArray<Muon> *GoodMuons = new ObjArray<Muon>;
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LoadBranch(fMuonName);
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for (UInt_t i=0; i<fMuons->GetEntries(); ++i) {
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Muon *mu = fMuons->At(i);
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fAllMuonPtHist->Fill(mu->Pt());
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fAllMuonEtaHist->Fill(mu->Eta());
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Double_t MuonClass = -1;
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//Find Class of Muons: Global(0), Standalone(1), Tracker(2)
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//Double_t MuonClass = -1;
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if (mu->GlobalTrk())
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MuonClass = 0;
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else if (mu->StandaloneTrk())
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MuonClass = 1;
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else if (mu->TrackerTrk())
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MuonClass = 2;
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//Define the ID Cuts
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const int nCuts = 4;
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double cutValue[nCuts] = {0.1, 3.0, 3.0, 1.5 };
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bool passCut[nCuts] = {false, false, false, false};
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double muonD0 = -0.05;
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muonD0 = mu->BestTrk()->D0();
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if(muonD0 < cutValue[0] && MuonClass == 0 )
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passCut[0] = true;
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if(mu->IsoR03SumPt() < cutValue[1]) passCut[1] = true;
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if(mu->IsoR03EmEt() +
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mu->IsoR03HadEt() < cutValue[2]) passCut[2] = true;
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if(mu->Pt() > 5)
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passCut[3] = true;
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// if(mu->Trk()->NHits() > 6)
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// passCut[4] = true;
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// if(mu->Trk()->Chi2() / mu->Trk()->Ndof() < 5 )
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// passCut[5] = true;
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// Final decision
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bool allCuts = true;
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for(int c=0; c<nCuts; c++) {
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allCuts = allCuts & passCut[c];
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}
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//make muon ID selection histograms
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fMuonSelection->Fill(-1);
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//Fill the rest of the muon selection histograms
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for (int k=0;k<3;k++) {
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bool pass = true;
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for (int p=0;p<=k;p++)
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pass = (pass && passCut[p]);
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if (pass) {
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fMuonSelection->Fill(k);
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}
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}
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//Fill histogram for the Good Muons
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if ( allCuts
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&& abs(mu->Eta()) < 2.5
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) {
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fGoodMuonPtHist->Fill(mu->Pt());
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fGoodMuonEtaHist->Fill(mu->Eta());
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GoodMuons->Add(mu);
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}
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}
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//Get Electrons
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LoadBranch(fElectronName);
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//we have to use a vector first and then fill the ObjArray with the vector
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//contents because ObJArray does not allow removal of duplicates.
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vector<Electron*> GoodElectronsVector;
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vector<Electron*> GoodLooseElectronsVector;
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vector<Electron*> GoodTightElectronsVector;
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vector<Electron*> GoodLikelihoodIDElectronsVector;
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for (UInt_t i=0; i<fElectrons->GetEntries(); ++i) {
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Electron *e = fElectrons->At(i);
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fAllElectronPtHist->Fill(e->Pt());
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fAllElectronEtaHist->Fill(e->Eta());
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//from RecoEgamma/ElectronIdentification/src/CurBasedElectronID.cc : CMSSW 2_1_0
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Int_t InEndcapOrBarrel = (fabs(e->Eta()) < 1.479)? 0 : 1;
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double sigmaEtaEta = e->CovEtaEta();
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//have to correct sigma_etaeta dependance on eta in the endcap
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if (InEndcapOrBarrel == 1) {
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sigmaEtaEta = sigmaEtaEta - 0.02*(fabs(e->Eta()) - 2.3);
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e->SetCovEtaEta(e->CovEtaEta() - 0.02*(fabs(e->Eta()) - 2.3));
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}
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//Calculate the electron category for determining which cuts to make
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Int_t ElectronCategory;
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Double_t fBrem = (e->PIn() - e->POut())/e->PIn();
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if((fabs(e->Eta())<1.479 && fBrem<0.06) || (fabs(e->Eta())>1.479 && fBrem<0.1))
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ElectronCategory=1;
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else if (e->ESuperClusterOverP() < 1.2 && e->ESuperClusterOverP() > 0.8)
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ElectronCategory=0;
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else
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ElectronCategory=2;
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// Final decision
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bool allCuts = true;
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allCuts = e->PassTightID();
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//Check whether it overlaps with a good muon.
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bool isMuonOverlap = false;
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for (UInt_t j=0; j<GoodMuons->GetEntries();j++) {
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double deltaR = MathUtils::DeltaR(GoodMuons->At(j)->Mom(), e->Mom());
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if (deltaR < 0.1) {
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isMuonOverlap = true;
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break;
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}
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}
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//Check whether it overlaps with another electron candidate
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bool isElectronOverlap = false;
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for (UInt_t j=0; j<GoodElectronsVector.size(); j++) {
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double deltaR = MathUtils::DeltaR(GoodElectronsVector[j]->Mom(), e->Mom());
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if (deltaR < 0.1) {
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isElectronOverlap = true;
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//if there's an overlap and the new one being considered has E/P closer to 1.0
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//then replace the overlapping one with this new one because it's better.
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//Once we get super cluster info, we should make sure the superclusters match
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//before declaring it is a duplicate
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//can have one SC matched to many tracks. or one track matched to many SC's.
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//we should cover all the cases. see SUSYAnalyzer...
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//Si: This will be unnecessary very soon. It is to be removed in reconstruction.
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if (abs(GoodElectronsVector[j]->ESuperClusterOverP() - 1) >
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abs(e->ESuperClusterOverP() - 1)) {
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GoodElectronsVector[j] = e;
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}
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break;
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}
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}
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//These are Good Electrons
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if ( allCuts && !isMuonOverlap && !isElectronOverlap
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) {
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fGoodElectronPtHist->Fill(e->Pt());
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fGoodElectronEtaHist->Fill(e->Eta());
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fGoodElectronClassification->Fill(e->Classification());
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GoodElectronsVector.push_back(fElectrons->At(i));
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}
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}
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//fill the electron ObjArray with the contents of the vector
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//this is necessary because I want to swap out the duplicates, can't be done with ObjArray...
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ObjArray<Electron> *GoodElectrons = new ObjArray<Electron>;
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for (UInt_t j=0; j<GoodElectronsVector.size(); j++)
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GoodElectrons->Add(GoodElectronsVector[j]);
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//Get Jet info
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ObjArray<Jet> *GoodCentralJets = new ObjArray<Jet>;
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ObjArray<Jet> *GoodForwardJets = new ObjArray<Jet>;
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LoadBranch(fJetName);
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for (UInt_t i=0; i<fJets->GetEntries(); ++i) {
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Jet *jet = fJets->At(i);
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bool isElectronOverlap = false;
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//Check for overlap with an electron
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for (UInt_t j=0; j<GoodElectrons->GetEntries(); j++) {
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double deltaR = MathUtils::DeltaR(GoodElectrons->At(j)->Mom(),jet->Mom());
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if (deltaR < 0.1) {
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isElectronOverlap = true;
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break;
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}
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}
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if (isElectronOverlap) continue; //skip this jet if it was an overlap
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fAllJetPtHist->Fill(jet->Pt());
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fAllJetEtaHist->Fill(jet->Eta());
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const int nCuts = 4;
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double cutValue[nCuts] = {1.0, 15., 2.5, 0.2};
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bool passCut[nCuts] = {false, false, false, false};
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passCut[0] = (!isElectronOverlap); //This is supposed to check e/ph overlap
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if(jet->Et() > cutValue[1]) passCut[1] = true;
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if(fabs(jet->Eta()) < cutValue[2]) passCut[2] = true;
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if(jet->Alpha() > cutValue[3] ||
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jet->Et() > 20.)
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passCut[3] = true;
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// Final decision
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bool passAllCentralJetCuts = true;
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bool passAllForwardJetCuts = true;
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for(int i=0; i<nCuts; i++) {
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passAllCentralJetCuts = passAllCentralJetCuts && passCut[i];
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passAllForwardJetCuts = passAllForwardJetCuts && ((i==2)?(!passCut[i]):passCut[i]);
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}
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//make electron ID selection histogram
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fCentralJetSelection->Fill(-1);
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for (int k=0;k<nCuts;k++) {
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bool pass = true;
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for (int p=0;p<=k;p++)
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pass = (pass && passCut[p]);
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if (pass) {
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fCentralJetSelection->Fill(k);
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}
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}
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//Save Good Jets
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if (passAllCentralJetCuts) {
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GoodCentralJets->Add(jet);
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}
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if(passAllForwardJetCuts)
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GoodForwardJets->Add(jet);
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} //for all jets
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//Get Siscone 5 Jet info
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ObjArray<Jet> *GoodCentralSCJets = new ObjArray<Jet>;
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ObjArray<Jet> *GoodForwardSCJets = new ObjArray<Jet>;
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LoadBranch(fSCJetName);
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for (UInt_t i=0; i<fSCJets->GetEntries(); ++i) {
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Jet *jet = fSCJets->At(i);
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bool isElectronOverlap = false;
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//Check for overlap with an electron
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for (UInt_t j=0; j<GoodElectrons->GetEntries(); j++) {
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double deltaR = MathUtils::DeltaR(GoodElectrons->At(j)->Mom(),jet->Mom());
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if (deltaR < 0.1) {
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isElectronOverlap = true;
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break;
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}
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}
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if (isElectronOverlap) continue; //skip this jet if it was an overlap
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const int nCuts = 4;
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double cutValue[nCuts] = {1.0, 15., 2.5, 0.2};
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bool passCut[nCuts] = {false, false, false, false};
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passCut[0] = (!isElectronOverlap); //This is supposed to check e/ph overlap
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if(jet->Et() > cutValue[1]) passCut[1] = true;
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if(fabs(jet->Eta()) < cutValue[2]) passCut[2] = true;
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if(jet->Alpha() > cutValue[3] ||
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jet->Et() > 20.)
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passCut[3] = true;
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// Final decision
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bool passAllCentralJetCuts = true;
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bool passAllForwardJetCuts = true;
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for(int i=0; i<nCuts; i++) {
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passAllCentralJetCuts = passAllCentralJetCuts && passCut[i];
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passAllForwardJetCuts = passAllForwardJetCuts && ((i==2)?(!passCut[i]):passCut[i]);
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}
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for (int k=0;k<nCuts;k++) {
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bool pass = true;
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for (int p=0;p<=k;p++)
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pass = (pass && passCut[p]);
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}
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//Save Good SCJets
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if (passAllCentralJetCuts) {
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GoodCentralSCJets->Add(jet);
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}
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if(passAllForwardJetCuts)
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GoodForwardSCJets->Add(jet);
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} //for all jets
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//Get MET
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LoadBranch(fMetName);
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Met *met = fMet->At(0); //define the met
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fMetPtHist->Fill(met->Pt());
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fMetPhiHist->Fill(met->Phi());
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//Final Summary Debug Output
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if ( fPrintDebug ) {
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cerr << "Event Dump: " << fNEventsProcessed << endl;
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//print out event content to text
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cerr << "Electrons" << endl;
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for (UInt_t i = 0; i < GoodElectrons->GetEntries(); i++) {
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cerr << i << " " << GoodElectrons->At(i)->Pt() << " " << GoodElectrons->At(i)->Eta()
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<< " " << GoodElectrons->At(i)->Phi() << " "
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<< GoodElectrons->At(i)->ESuperClusterOverP() << endl;
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}
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cerr << "Muons" << endl;
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for (UInt_t i = 0; i < GoodMuons->GetEntries(); i++) {
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cerr << i << " " << GoodMuons->At(i)->Pt() << " " << GoodMuons->At(i)->Eta()
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<< " " << GoodMuons->At(i)->Phi() << endl;
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}
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cerr << "Central Jets" << endl;
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for (UInt_t i = 0; i < GoodCentralJets->GetEntries(); i++) {
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cerr << i << " " << GoodCentralJets->At(i)->Pt() << " "
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<< GoodCentralJets->At(i)->Eta() << " " << GoodCentralJets->At(i)->Phi() << endl;
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}
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cerr << "MET" << endl;
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cerr << met->Pt() << " " << met->Eta() << " "
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<< met->Phi() << endl;
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}
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//Save Objects for Other Modules to use
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AddObjThisEvt(GoodElectrons, fGoodElectronsName.Data());
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AddObjThisEvt(GoodMuons, fGoodMuonsName.Data());
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AddObjThisEvt(GoodCentralJets, fGoodCentralJetsName.Data());
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AddObjThisEvt(GoodForwardJets, fGoodForwardJetsName.Data());
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AddObjThisEvt(GoodCentralSCJets, fGoodCentralSCJetsName.Data());
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AddObjThisEvt(GoodForwardSCJets, fGoodForwardSCJetsName.Data());
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}
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//--------------------------------------------------------------------------------------------------
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void ObjectCleaningMod::SlaveBegin()
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{
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// Run startup code on the computer (slave) doing the actual analysis. Here,
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// we typically initialize histograms and other analysis objects and request
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// branches. For this module, we request a branch of the MitTree.
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ReqBranch(fMCPartName, fParticles);
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ReqBranch(fMuonName, fMuons);
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ReqBranch(fElectronName, fElectrons);
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ReqBranch(fJetName, fJets);
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ReqBranch(fSCJetName, fSCJets);
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ReqBranch(fMetName, fMet);
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fAllMuonPtHist = new TH1D("hAllMuonPtHist",";p_{t};#",200,0.,200.);
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fAllMuonEtaHist = new TH1D("hAllMuonEtaHist",";#eta;#",100,-5.,5.);
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fGoodMuonPtHist = new TH1D("hGoodMuonPtHist",";p_{t};#",200,0.,200.);
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fGoodMuonEtaHist = new TH1D("hGoodMuonEtaHist",";#eta;#",21,-5.,5.);
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fMuonSelection = new TH1D("hMuonSelection", ";MuonSelection;#",4,-1.5,2.5 ) ;
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AddOutput(fAllMuonPtHist);
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AddOutput(fAllMuonEtaHist);
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AddOutput(fGoodMuonPtHist);
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AddOutput(fGoodMuonEtaHist);
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AddOutput(fMuonSelection);
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fAllElectronPtHist = new TH1D("hAllElectronPtHist",";p_{t};#",100,0.,200.);
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fAllElectronEtaHist = new TH1D("hAllElectronEtaHist",";#eta;#",100,-5.,5.);
|
| 417 |
fGoodElectronPtHist = new TH1D("hGoodElectronPtHist",";p_{t};#",25,0.,200.);
|
| 418 |
fGoodElectronEtaHist = new TH1D("hGoodElectronEtaHist",";#eta;#",21,-5.,5.);
|
| 419 |
fGoodElectronClassification = new TH1D("hGoodElectronClassification",
|
| 420 |
";Good Electron Classification;#",51,0,50 ) ;
|
| 421 |
AddOutput(fAllElectronPtHist);
|
| 422 |
AddOutput(fAllElectronEtaHist);
|
| 423 |
AddOutput(fGoodElectronPtHist);
|
| 424 |
AddOutput(fGoodElectronEtaHist);
|
| 425 |
AddOutput(fGoodElectronClassification);
|
| 426 |
|
| 427 |
//Jet Plots
|
| 428 |
fAllJetPtHist = new TH1D("hAllJetPtHist",";All Jet p_{t};#",100,0.,200.);
|
| 429 |
fAllJetEtaHist = new TH1D("hAllJetEtaHist",";All Jet #eta;#",160,-8.,8.);
|
| 430 |
fCentralJetSelection = new TH1D("hCentralJetSelection",
|
| 431 |
";CentralJetSelection;#",5,-1.5,3.5 ) ;
|
| 432 |
AddOutput(fAllJetPtHist);
|
| 433 |
AddOutput(fAllJetEtaHist);
|
| 434 |
AddOutput(fCentralJetSelection);
|
| 435 |
|
| 436 |
//MET Plots
|
| 437 |
fMetPtHist = new TH1D("hMetPtHist",";p_{t};#",30,0.,300.);
|
| 438 |
fMetPhiHist = new TH1D("hMetPhiHist",";#phi;#",28,-3.5,3.5);
|
| 439 |
AddOutput(fMetPtHist);
|
| 440 |
AddOutput(fMetPhiHist);
|
| 441 |
|
| 442 |
|
| 443 |
}
|
| 444 |
|
| 445 |
//--------------------------------------------------------------------------------------------------
|
| 446 |
void ObjectCleaningMod::SlaveTerminate()
|
| 447 |
{
|
| 448 |
// Run finishing code on the computer (slave) that did the analysis. For this
|
| 449 |
// module, we dont do anything here.
|
| 450 |
|
| 451 |
}
|
| 452 |
|
| 453 |
//--------------------------------------------------------------------------------------------------
|
| 454 |
void ObjectCleaningMod::Terminate()
|
| 455 |
{
|
| 456 |
// Run finishing code on the client computer. For this module, we dont do
|
| 457 |
// anything here.
|
| 458 |
}
|
