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SusyAnaHLT.cc
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SusyAnaHLT.cc
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// -*- C++ -*-
#define SusyAnaHLT_cxx
#include <TH2.h>
#include <TStyle.h>
#include <TCanvas.h>
#include <TH1F.h>
#include <map>
#include <set>
#include <cmath>
#include <algorithm>
#include <utility>
#include "SusyAnaHLT.h"
#include "SusyEventPrinter.h"
#include "../jec/JetMETObjects/interface/JetCorrectorParameters.h"
#include "../jec/JetMETObjects/interface/FactorizedJetCorrector.h"
//my additions
#include "TAxis.h"
#include "TMath.h"
#include <TH3.h>
#include "TFile.h"
#include "TTree.h"
#include "TLegend.h"
#include "TLorentzVector.h"
#include "TGraphErrors.h"
#include "TF1.h"
#include <iostream>
#include <fstream>
#include <string.h>
//user defiend
#include "utilities.h"
#include "cuts.h"
#include "params_arg.h"
//#include "GetError.h"
#include "hggx_analysers.h"
#include "quicksave.C"
#include "CMSStyle.C"
#include "TVector3.h"
#include "TLorentzVector.h"
#include "hggx_analysers.h"
using namespace std;
using namespace params;
template<typename T> bool EtGreater(const T* p1, const T* p2) {
return (p1->momentum.Et() > p2->momentum.Et());
}
template<typename T> bool EtGreaterpho(const T* p1, const T* p2) {
if(useMVAphoP) return ((p1->MVAregEnergyAndErr.first / p1->momentum.E())*p1->momentum).Et() > ((p2->MVAregEnergyAndErr.first / p2->momentum.E())*p2->momentum).Et();
else return p1->momentum.Et() > p2->momentum.Et();
}
void SusyAnaHLT::InitializePerEvent() {
}
bool SusyAnaHLT::isSameObject(TLorentzVector& p1, TLorentzVector& p2) {
float dEta = p1.Eta() - p2.Eta();
float dPhi = TVector2::Phi_mpi_pi(p1.Phi() - p2.Phi());
return std::sqrt(dEta*dEta + dPhi*dPhi) <= 0.6 || fabs(dPhi) <= 0.05; //dMorse as of April2013
//return std::sqrt(dEta*dEta + dPhi*dPhi) < 0.5;
}//dR05 cut
float SusyAnaHLT::d0correction(TVector3& beamSpot, susy::Track& track) const {
return track.d0() - beamSpot.X()*std::sin(track.phi()) + beamSpot.Y()*std::cos(track.phi());
}
bool SusyAnaHLT::PassTrigger(TString path) {
//Does not have to be an exact name. the trigger name must contain "path". So you can ignore the trigger version.
bool pass = false;
for(susy::TriggerMap::iterator it = event->hltMap.begin(); it != event->hltMap.end(); it++) {
if(it->first.Contains(path) && (int(it->second.second)) ) {
pass = true;
break;
}
}
return pass;
}
bool SusyAnaHLT::PassTriggers() {
bool pass = false;
for(std::vector<TString>::iterator it = hltNames.begin(); it != hltNames.end(); it++) {
if(PassTrigger(*it)) {
pass = true;
break;
}
}
return pass;
}
typedef std::map<string,int> nameint;
typedef std::map<string,float> namefloat;
typedef std::map<string,bool> namebool;
typedef std::map<string,string> labels;
typedef std::map<string,TH1F*> LabelHist;
typedef std::map<string,LabelHist> Label2Hist;
typedef std::map<string,TH1F**> LabelHistArr;
typedef std::map<string,LabelHistArr> Label2HistArr;
void addCounter(nameint & C, vector<string> & V, string Label){
C[Label]=0;
V.push_back(Label);
}
void remove_duplicate_photons(std::vector<susy::Photon*> & photons,bool keep_hardest_matched_photon=true){
/*
This takes a pt-sorted vector of Photon*. It looks through all pairs of photons, for dR matches (dR<0.6 or dPhi < 0.05)
If it finds a match and keep_hardest_matched_photon, it keeps the hardest one and deletes the others from the vector.
If it finds a match and !keep_hardest_matched_photon, it deletes all photons involved int the match. David Morse and I do the former.
*/
if (photons.size()<2) return;
std::vector<susy::Photon*>::iterator i_p1 = photons.begin(); int I_p1 = 0;
//cout<<"enter remove_duplicate_photons. Size = "<<photons.size()<<endl;
//cout<<"photon end: "<<*photons.end()<<" i_p1+1: "<<*(i_p1+1)<<endl;
int size = photons.size();
while(I_p1+1 < size){
//while(i_p1+1 != photons.end()){
bool match_found = false;
//cout<<"phoA. i="<<I_p1<<" "<<*i_p1<<endl;
TLorentzVector p1 = (useMVAphoP?(*i_p1)->MVAregEnergyAndErr.first / (*i_p1)->momentum.E():1.0)*(*i_p1)->momentum;
//TLorentzVector p1 = useMVAphoP?(*i_p1)->MVAcorrMomentum:(*i_p1)->momentum;
//TLorentzVector p1 = (*i_p1)->momentum;
std::vector<susy::Photon*>::iterator i_p2 = i_p1+1; int I_p2 = I_p1+1;
while(I_p2 < size){ //increments to the terminator, then does not terminate.
//while(i_p2 != photons.end()){ //increments to the terminator, then does not terminate.
//cout<<"phoB, i= "<<I_p2<<" "<<*i_p2<<endl;
//TLorentzVector p2 = (*i_p2)->momentum;
TLorentzVector p2 = (useMVAphoP?(*i_p2)->MVAregEnergyAndErr.first / (*i_p2)->momentum.E():1.0)*(*i_p2)->momentum;
//TLorentzVector p2 = useMVAphoP?(*i_p2)->MVAcorrMomentum:(*i_p2)->momentum;
//cout<<"rem4"<<endl;
if (dR(p1,p2)<0.6 || dPhi(p1,p2) < 0.05 ) {
std::vector<susy::Photon*>::iterator temp = i_p2+1;
i_p2 = photons.erase(i_p2);//this is supposed to return the next element but does not.
//cout<<"found match phoB new address: "<<*i_p2<<endl;
i_p2 = temp;
//cout<<"after =temp, address: "<<*i_p2<<endl;
size--;
match_found = true;
if(I_p2 == (int) photons.size()-1) break;
}
else{ i_p2++; I_p2++;}
}//end while2
if (match_found && !keep_hardest_matched_photon) {
i_p1 = photons.erase(i_p1);
}
else {i_p1++; I_p1++;}
}//end while
}//end remove_duplicate_photons
void PrintPhotonTriggers(susy::Event* event){
for(susy::TriggerMap::iterator it = event->hltMap.begin(); it != event->hltMap.end(); it++) {
if (it->first.Contains("Photon")) {
std::cout << "\t" << it->first << "(prescale=" << it->second.first << ", fire=" << int(it->second.second) << ")" << std::endl;
}
}
}
void SusyAnaHLT::Loop() {
printLevel = 0;
int nKinemVars = nKinemVars_all;
string *s_KinemVars = s_KinemVars_all;
string s_forTopo[nEventTopologies];
//s_forTopo[0]="";
for (int iTopo=0; iTopo<nEventTopologies; iTopo++){ //xxx may have to change this line back.
s_forTopo[iTopo]=string(" for ")+s_EventTopology[iTopo];
}
if (fChain == 0) return;
Long64_t nentries = fChain->GetEntries();
if(processNEvents <= 0 || processNEvents > nentries) processNEvents = nentries;
std::cout << "total events in files : " << nentries << std::endl;
std::cout << "events to be processed : " << processNEvents << std::endl;
//Initialize Counters
if(printLevel > 0) std::cout << "Initialize event counters." << std::endl;
vector <string> Counter_order;
nameint Counters;
addCounter(Counters,Counter_order,"no cuts");
addCounter(Counters,Counter_order,"pass Json");
addCounter(Counters,Counter_order,"pass duplicate check");
addCounter(Counters,Counter_order,"pass HLT");
addCounter(Counters,Counter_order,"pass MET Filter");
addCounter(Counters,Counter_order,"have 2 loose photons");
//addCounter(Counters,Counter_order,"have 2 tight photons");
//addCounter(Counters,Counter_order,"have 2 tight photons passing dR cuts");
addCounter(Counters,Counter_order,"pass a primary vertex reqirement");
addCounter(Counters,Counter_order,"has met map");
addCounter(Counters,Counter_order,"number filtered");
//no extra cuts.
for (int iTopo=0; iTopo<nEventTopologies; iTopo++) {
addCounter(Counters,Counter_order,string("are in tag region")+s_forTopo[iTopo]);
addCounter(Counters,Counter_order,string("are in sb region")+s_forTopo[iTopo]);
addCounter(Counters,Counter_order,string("are in usb region")+s_forTopo[iTopo]);
addCounter(Counters,Counter_order,string("are in lsb region")+s_forTopo[iTopo]);
}
TH1I *lsb_int = new TH1I("lsb_int","lower side band integrals",nEventTopologies,0,nEventTopologies);
TH1I *usb_int = new TH1I("usb_int","lower side band integrals",nEventTopologies,0,nEventTopologies);
//order:keeps the order of the s_EventTopology array in params.
int nFiltered = 0;
TTree* filterTree = 0;
cout << "enableFilter is set to "<<enableFilter<<endl;
if (enableFilter){
enableFilter = false;
cout << "setting it to false"<<endl;
}
ofstream eventlist;
if(makeEventsList) eventlist.open ("trip_eventlist_SusyMain.txt");
ofstream tmvaOut;
if(makeTMVAlist) tmvaOut.open ("tmva_bkg_data.txt");
ofstream specialevents;
specialevents.open ("special_events_in_data.txt");
//Set the first line to be the var names:
//format:
//TotEt/F:dPhi/F:METdPhiLead/F:METdPhiTrail/F:AlphaT/F:PhotonLessHT/F:DiEMPt/F:InvarMass/F:Met/F:MR/F
//if(makeTMVAlist) tmvaOut<<"MET/F:ST/F:HT/F:Bt/F:MHT/F:PtGG/F:EtaGG/F:phoPt0/F:phoPt1/F:phoEta0/F:phoEta1/F:phoEtaMax/F:phoEtaMin/F:nJets/I:nBjets/I:bestMjj/F:nLep/I:nMu/I:nEle/I:Mleplep/F:MTpho0MET/F:MTpho1MET/F:cosThetaStar/F:phoDPhi/F:dPhiPho0Met/F:dPhiPho1Met/F:dijetDEta01/F:dijetEta01/F:dijetDPhi01/F:dijetM01/F:dijetPt01/F:dPhiJet0Met/F:dPhiJet1Met/F"<<endl;
if(makeTMVAlist) tmvaOut<<"phoPt0/F"<<endl;
// open hist file and define histograms
//cout <<endl<< "Writing to Plots File "<< plotsroot_data<<endl<<endl;
//TFile* fout = new TFile(plotsroot_data.c_str(),"RECREATE");
//fout->cd();
TH1F* h_vtxZ_unsliced = new TH1F("vtxZ_unsliced","Z position of the primary vertex;Z (cm);Events",100,-50.0,50.0);
TH1F* h_bsZ_unsliced = new TH1F("bsZ_unsliced","Z position of the beam spot;Z (cm);Events",100,-50.0,50.0);
//nameint nbins;
//namefloat hmin;
//namefloat hmax;
//labels xlabels;
//labels titles;
printf("Setup Kinematic Vars\n");
LabelKinVars KinVars = setupKinematicVar(); //setup all the binning and histogram info printf("worked!\n");
namebool topoCut;
for (int iTopo = 0; iTopo<nEventTopologies; iTopo++) topoCut[s_EventTopology[iTopo]] = false;
//no extra selection.
LabelHist lh_mGG_unsliced;
Label2Hist lh_unsliced;
Label2HistArr lha2;
//make all the unsliced plots.
for (int iTopo = 0; iTopo<nEventTopologies; iTopo++) {
lh_mGG_unsliced[s_EventTopology[iTopo]] = new TH1F(
(char*)(string("h_mGG")+s_EventTopology[iTopo]+"_unsliced").c_str(),
(char*)(string("Di Photon Mass Sectrum")+s_forTopo[iTopo]+";M^{#gamma #gamma} (GeV)").c_str(),
PhoMassNBins,PhoMassMin,PhoMassMax);
LabelHist tmpMapKinVar;
for (int kKinVar = 0; kKinVar<nKinemVars; kKinVar++) {
if(KinVars[s_KinemVars[kKinVar]]->useCustomBinning){
tmpMapKinVar[s_KinemVars[kKinVar]] = new TH1F(
(char*)(string("h_")+s_KinemVars[kKinVar]+s_EventTopology[iTopo]+"_unsliced").c_str(),
(char*)(KinVars[s_KinemVars[kKinVar]]->titles+s_forTopo[iTopo]+";"+KinVars[s_KinemVars[kKinVar]]->xlabels).c_str(),
KinVars[s_KinemVars[kKinVar]]->nbins,
KinVars[s_KinemVars[kKinVar]]->CustomBinning);
}
else{
tmpMapKinVar[s_KinemVars[kKinVar]] = new TH1F(
(char*)(string("h_")+s_KinemVars[kKinVar]+s_EventTopology[iTopo]+"_unsliced").c_str(),
(char*)(KinVars[s_KinemVars[kKinVar]]->titles+s_forTopo[iTopo]+";"+KinVars[s_KinemVars[kKinVar]]->xlabels).c_str(),
KinVars[s_KinemVars[kKinVar]]->nbins,
KinVars[s_KinemVars[kKinVar]]->hmin,
KinVars[s_KinemVars[kKinVar]]->hmax);
}
//tmpMapKinVar[s_KinemVars[kKinVar]] = new TH1F(
//(char*)(string("h_")+s_KinemVars[kKinVar]+s_EventTopology[iTopo]+"_unsliced").c_str(),
//(char*)(titles[s_KinemVars[kKinVar]]+s_forTopo[iTopo]+";"+xlabels[s_KinemVars[kKinVar]]).c_str(),
//nbins[s_KinemVars[kKinVar]],
//hmin[s_KinemVars[kKinVar]],
//hmax[s_KinemVars[kKinVar]]);
}//end for every kinematic varriable.
lh_unsliced[s_EventTopology[iTopo]] = tmpMapKinVar;
}//end for every topology
//make the collections.
for (int iTopo = 0; iTopo<nEventTopologies; iTopo++) {
LabelHistArr tmpMapKinVar;
for (int kKinVar = 0; kKinVar<nKinemVars; kKinVar++) {
tmpMapKinVar[s_KinemVars[kKinVar]] = new TH1F*[nPhoMassAndBkgDists];
if(KinVars[s_KinemVars[kKinVar]]->useCustomBinning){
MakeHistSet(tmpMapKinVar[s_KinemVars[kKinVar]],
s_KinemVars[kKinVar]+s_EventTopology[iTopo],
KinVars[s_KinemVars[kKinVar]]->nbins,
KinVars[s_KinemVars[kKinVar]]->CustomBinning);
}
else{
MakeHistSet(tmpMapKinVar[s_KinemVars[kKinVar]],
s_KinemVars[kKinVar]+s_EventTopology[iTopo],
KinVars[s_KinemVars[kKinVar]]->nbins,
KinVars[s_KinemVars[kKinVar]]->hmin,
KinVars[s_KinemVars[kKinVar]]->hmax);
}
//MakeHistSet(tmpMapKinVar[s_KinemVars[kKinVar]],
//s_KinemVars[kKinVar]+s_EventTopology[iTopo],
//nbins[s_KinemVars[kKinVar]],
//hmin[s_KinemVars[kKinVar]],
//hmax[s_KinemVars[kKinVar]]);
}//end for every kinvar
lha2[s_EventTopology[iTopo]] = tmpMapKinVar;
}//end for every Topo,
//end make create histograms
//plots of things I cut on.
//////////////////////////////////////////////////////////////
///////////////////// OBJECT SELECTION VARS /////////////////
//PHOTONS
TH1F* pho_Et_0 = new TH1F("pho_Et_0","Leading Photon Pt;E_{t}^{#gamma}",200,0.,200.);
TH1F* pho_Et_1 = new TH1F("pho_Et_1","Subleading Photon Pt;E_{t}^{#gamma}",200,0.,200.);
TH1F* pho_Et_2 = new TH1F("pho_Et_2","Sub-sub-leading Photon Pt;E_{t}^{#gamma}",200,0.,200.);
TH1F* selvar_pho_nPho = new TH1F("selvar_pho_nPho","number of tight photons;n photons", 10,0.,10.);
TH1F* selvar_pho_Et = new TH1F("selvar_pho_Et","selvar_pho_Et;E_{t}^{#gamma}", 200,0.,200);
TH1F* selvar_pho_Eta= new TH1F("selvar_pho_Eta","selvar_pho_Eta;#gamma #eta", 100,-2.5,2.5);
TH1F* selvar_pho_Phi= new TH1F("selvar_pho_Phi","selvar_pho_Phi;#gamma #phi", 60,0.,3.15);
TH1F* selvar_pho_TrkIsoDR04= new TH1F("selvar_pho_TrkIsoDR04","selvar_pho_TrkIsoDR04;TrackIsoDR04", 32,-1.,7.);
TH1F* selvar_pho_EcalIsoDR04= new TH1F("selvar_pho_EcalIsoDR04","selvar_pho_EcalIsoDR04;EcalIsoDR04", 34,-2.,15.);
TH1F* selvar_pho_HcalIsoDR04= new TH1F("selvar_pho_HcalIsoDR04","selvar_pho_HcalIsoDR04;HCalIsoDR04", 32,-1.,7.);
TH1F* selvar_pho_TrkIsoDR03= new TH1F("selvar_pho_TrkIsoDR03","selvar_pho_TrkIsoDR03;TrackIsoDR03", 32,-1.,7.);
TH1F* selvar_pho_EcalIsoDR03= new TH1F("selvar_pho_EcalIsoDR03","selvar_pho_EcalIsoDR03;EcalIsoDR03", 34,-2.,15.);
TH1F* selvar_pho_HcalIsoDR03= new TH1F("selvar_pho_HcalIsoDR03","selvar_pho_HcalIsoDR03;HcalIsoDR03", 32,-1.,7.);
TH1F* selvar_pho_HE= new TH1F("selvar_pho_HE","selvar_pho_HE;H/E", 110,-0.01,0.1);
TH1F* selvar_pho_R9= new TH1F("selvar_pho_R9","selvar_pho_R9;R9", 150,-0.1,1.4);
TH1F* selvar_pho_sinin_bar= new TH1F("selvar_pho_sinin_bar","selvar_pho_sinin_bar;#sigma_{i #eta i #eta}", 140,0.,0.014);
TH1F* selvar_pho_sipip_bar= new TH1F("selvar_pho_sipip_bar","selvar_pho_sipip_bar;#sigma_{i #phi i #phi}", 0,0.,0.);
TH1F* selvar_pho_sinin_ec= new TH1F("selvar_pho_sinin_ec","selvar_pho_sinin_ec;#sigma_{i #eta i #eta}", 130,0.025,0.038);
TH1F* selvar_pho_sipip_ec= new TH1F("selvar_pho_sipip_ec","selvar_pho_sipip_ec;#sigma_{i #phi i #phi}", 0,0.,0.);
TH1F* selvar_pho_nPixelSeeds= new TH1F("selvar_pho_nPixelSeeds","selvar_pho_nPixelSeeds;n pixel seeds", 11,-1.,10.);
TH1F* selvar_pho_rho= new TH1F("selvar_pho_rho","selvar_pho_rho;rho25", 80,0.,40.);
TH1F* selvar_pho_PFcargedHadIso= new TH1F("selvar_pho_PFcargedHadIso","selvar_pho_PFcargedHadIso;PFcargedHadIso", 32,-1.,7.);
TH1F* selvar_pho_PFneutralHadIso= new TH1F("selvar_pho_PFneutralHadIso","selvar_pho_PFneutralHadIso;PFneutralHadIso", 32,-1.,7.);
TH1F* selvar_pho_PFphoIso= new TH1F("selvar_pho_PFphoIso","selvar_pho_PFphoIso;PFphoIso", 34,-1.,15.);
TH1F* selvar_pho_ChargeSafeEleVeto = new TH1F("selvar_pho_ChargeSafeEleVeto","ChargeSafeEleVeto",2,0.,2.);
/* TH2F* selvar_pho_TrkIso04_v_rho[7];
TH2F* selvar_pho_ECalIso04_v_rho[7];
TH2F* selvar_pho_ECalIso04_v_rho[7];
TH2F* selvar_pho_TrkIso03_v_rho[7];
TH2F* selvar_pho_ECalIso03_v_rho[7];
TH2F* selvar_pho_ECalIso03_v_rho[7];
TString regions[7] = {"<1", "1 - 1.479", "1.479 - 2", "2 - 2.2", "2.2 - 2.3", "2.3 - 2.4", ">2.4"};
for (int i=0; i<7; i++) {
selvar_pho_TrkIso04_v_rho[i] = new TH1F("selvar_pho_TrkIso04_v_rho_"+i,"photon TrkIso04_v_rho for eta "+regions[i],140,-5.,30.,60,0.,30.);
selvar_pho_ECalIso04_v_rho[7]= new TH1F("selvar_pho_TrkIso04_v_rho_"+i,"photon TrkIso04_v_rho for eta "+regions[i],140,-5.,30.,60,0.,30.);
selvar_pho_ECalIso04_v_rho[7]= new TH1F("selvar_pho_TrkIso04_v_rho_"+i,"photon TrkIso04_v_rho for eta "+regions[i],140,-5.,30.,60,0.,30.);
selvar_pho_TrkIso03_v_rho[7]= new TH1F("selvar_pho_TrkIso04_v_rho_"+i,"photon TrkIso04_v_rho for eta "+regions[i],140,-5.,30.,60,0.,30.);
selvar_pho_ECalIso03_v_rho[7]= new TH1F("selvar_pho_TrkIso04_v_rho_"+i,"photon TrkIso04_v_rho for eta "+regions[i],140,-5.,30.,60,0.,30.);
selvar_pho_ECalIso03_v_rho[7]= new TH1F("selvar_pho_TrkIso04_v_rho_"+i,"photon TrkIso04_v_rho for eta "+regions[i],140,-5.,30.,60,0.,30.);
}*/
//ELECTRONS
TH1F* selvar_ele_nele = new TH1F("selvar_ele_nele","selvar_ele_nele;n ele", 10,0.,10.);
TH1F* selvar_ele_Et = new TH1F("selvar_ele_Et","selvar_ele_Et;electron E_{t}", 200,0.,200);
TH1F* selvar_ele_Eta= new TH1F("selvar_ele_Eta","selvar_ele_Eta;ele #eta", 100,-2.5,2.5);
TH1F* selvar_ele_Phi= new TH1F("selvar_ele_Phi","selvar_ele_Phi;ele #phi", 60,0.,3.15);
TH1F* selvar_ele_relIso = new TH1F("selvar_ele_relIso","selvar_ele_relIso;ele relIso", 105,-0.1,2.);
// TH1F* selvar_ele_passMVAPreselect = new TH1F("selvar_ele_passMVAPreselect","selvar_ele_passMVAPreselect", 2,0.,2.);
// TH1F* selvar_ele_isPF = new TH1F("selvar_ele_isPF","selvar_ele_isPF", 2,0.,2.);
// TH1F* selvar_ele_d0 = new TH1F("selvar_ele_d0","selvar_ele_d0", 200,0.,20);
// TH1F* selvar_ele_dz_pVtxZ = new TH1F("selvar_ele_dz_pVtxZ","selvar_ele_dz_pVtxZ", 80,0.,20.);
//MUONS
TH1F* selvar_mu_nmu = new TH1F("selvar_mu_nmu","selvar_mu_nmu;n muons", 10,0.,10.);
TH1F* selvar_mu_Et = new TH1F("selvar_mu_Et","selvar_mu_Et;muon E_{t}", 200,0.,200);
TH1F* selvar_mu_Eta= new TH1F("selvar_mu_Eta","selvar_mu_Eta;muon #eta", 100,-2.5,2.5);
TH1F* selvar_mu_Phi= new TH1F("selvar_mu_Phi","selvar_mu_Phi;muon #phi", 60,0.,3.15);
TH1F* selvar_mu_relIso = new TH1F("selvar_mu_relIso","selvar_mu_relIso;mu relIso", 140,-5.,30.);
TH1F* selvars_mu_emEnergy= new TH1F("selvars_mu_emEnergy","selvars_mu_emEnergy;mu emEnergy", 140,-5.,30.);
TH1F* selvars_mu_hadEnergy= new TH1F("selvars_mu_hadEnergy","selvars_mu_hadEnergy;mu hadEnergy", 140,-5.,30.);
TH1F* selvar_mu_d0 = new TH1F("selvar_mu_d0","selvar_mu_d0;mu d0", 200,0.,20);
TH1F* selvar_mu_dz_pVtxZ = new TH1F("selvar_mu_dz_pVtxZ","mu dz-pVtxZ;mu dz-pVtxZ", 80,0.,20.);
TH1F* selvars_mu_dZ= new TH1F("selvars_mu_dZ","selvars_mu_dZ;mu dZ", 200,0.,20);
TH1F* selvars_mu_chi2OverNdof = new TH1F("selvars_mu_chi2OverNdof","selvars_mu_chi2OverNdof;mu chi2OverNdof", 200,0.,20);
TH1F* selvars_mu_nValidTrackerHits= new TH1F("selvars_mu_nValidTrackerHits","selvars_mu_nValidTrackerHits;mu nValidTrackerHits", 40,0.,40);
TH1F* selvars_mu_combinedTrackIndex= new TH1F("selvars_mu_combinedTrackIndex","selvars_mu_combinedTrackIndex;mu combinedTrackIndex", 40,0.,40);
TH1F* selvars_mu_numberOfValidPixelHits= new TH1F("selvars_mu_numberOfValidPixelHits","selvars_mu_numberOfValidPixelHits;mu_numberOfValidPixelHits", 40,0.,40);
TH1F* selvars_mu_numberOfValidMuonHits= new TH1F("selvars_mu_numberOfValidMuonHits","selvars_mu_numberOfValidMuonHits;mu_numberOfValidMuonHits", 40,0.,40);
TH1F* selvars_mu_isGlobalMuon= new TH1F("selvars_mu_isGlobalMuon","selvars_mu_isGlobalMuon;isGlobalMuon", 2,0.,2.);
TH1F* selvars_mu_isPFMuon= new TH1F("selvars_mu_isPFMuon","selvars_mu_isPFMuon;isPFMuon", 2,0.,2.);
//JETS
TH1F* selvar_jet_njet = new TH1F("selvar_jet_njet","selvar_jet_njet;n jets", 15,0.,15.);
TH1F* selvar_jet_Et = new TH1F("selvar_jet_Et","selvar_jet_Et; jet E_{t}", 250,0.,250);
TH1F* selvar_jet_Eta= new TH1F("selvar_jet_Eta","selvar_jet_Eta; jet #eta", 100,-2.5,2.5);
TH1F* selvar_jet_Phi= new TH1F("selvar_jet_Phi","selvar_jet_Phi; jet #phi", 60,0.,3.15);
TH1F* selvars_jet_nConstituents= new TH1F("selvars_jet_nConstituents","selvars_jet_nConstituents;jet_nConstituents", 41,-2.,80.);
TH1F* selvars_jet_NeutralHadFrac= new TH1F("selvars_jet_NeutralHadFrac","selvars_jet_NeutralHadFrac;jet_NeutralHadFrac", 100,0.,1.);
TH1F* selvars_jet_NeutralEMFrac= new TH1F("selvars_jet_NeutralEMFrac","selvars_jet_NeutralEMFrac;jet_NeutralEMFrac", 100,0.,1.);
TH1F* selvars_jet_ChargedHadFrac= new TH1F("selvars_jet_ChargedHadFrac","selvars_jet_ChargedHadFrac;jet_ChargedHadFrac", 100,0.,1.);
TH1F* selvars_jet_ChargedEMFrac= new TH1F("selvars_jet_ChargedEMFrac","selvars_jet_ChargedEMFrac;jet_ChargedEMFrac", 100,0.,1.);
TH1F* selvars_jet_chargedHadMult= new TH1F("selvars_jet_chargedHadMult","selvars_jet_chargedHadMult;jet_chargedHadMult", 60,0.,60.);
// TH1F* selvars_jet_dR_ele_min= new TH1F("selvar_jet_Phi","selvar_jet_Phi", 60,0.,3.);
// TH1F* selvars_jet_dR_mu_min= new TH1F("selvar_jet_Phi","selvar_jet_Phi", 60,0.,3.);
//VERTEX
TH1F* selvar_vtx_nVtx = new TH1F("selvar_vtx_nVtx","selvar_vtx_nVtx;N vertecies",40,0.,40.);
TH1F* selvar_vtx_isFake= new TH1F("selvar_vtx_isFake","selvar_vtx_isFake; vertex isFake flag",2,0,2);
TH1F* selvar_vtx_ndof= new TH1F("selvar_vtx_ndof","selvar_vtx_ndof; vertex ndof",40,0.,40.);
TH1F* selvar_vtx_chi2= new TH1F("selvar_vtx_chi2","selvar_vtx_chi2;vtx_chi2",200,0.,20);
TH1F* selvar_vtx_trackSize= new TH1F("selvar_vtx_trackSize","selvar_vtx_trackSize;vtx_trackSize",80,0,80.);
TH1F* selvar_vtx_rho= new TH1F("selvar_vtx_rho","selvar_vtx_rho;vtx_rho",100,0.,1.);
TH1F* selvar_vtx_Zpos=new TH1F("selvar_vtx_Zpos","selvar_vtx_Zpos;vtx_Zpos",72,0.,72.);
//B-TAG
TH1F* selvar_btag_nbtag= new TH1F("selvar_btag_nbtag","selvar_btag_nbtag;N b-tags",10,0.,10.);
TH1F* selvar_btag_csv= new TH1F("selvar_btag_csv","selvar_btag_csv;jet CSV",120,0.,1.2);
const int Nnonr9Triggers = 9;
const int Nr9Triggers = 4;
const int NTriggers = 13;
//const int NT = Nnonr9Triggers+Nr9Triggers;
//bool passHLTs[NT];
TString dmason_triggers[4] = { //not using these.
"HLT_Photon36_CaloId10_Iso50_Photon22_CaloId10_Iso50", //Yutaro's study:
"HLT_Photon36_CaloId10_Iso50_Photon22_R9Id85",
"HLT_Photon36_R9Id85_Photon22_CaloId10_Iso50",
"HLT_Photon36_R9Id85_Photon22_R9Id85"};
TString R9triggers[Nr9Triggers] = {
"HLT_Photon36_CaloId10_Iso50_Photon22_CaloId10_Iso50", //dmason
"HLT_Photon36_CaloIdL_Photon22_CaloIdL",
"HLT_Photon32_CaloIdL_Photon26_CaloIdL",
"HLT_Photon26_CaloId10_Iso50_Photon18_CaloId10_Iso50_Mass60"};
TString nonR9triggers[Nnonr9Triggers] = {
"HLT_Photon36_R9Id85_Photon22_R9Id85", //dmason
"HLT_Photon36_R9Id85_Photon22_CaloId10_Iso50", //dmason
"HLT_Photon36_CaloId10_Iso50_Photon22_R9Id85", //dmason
"HLT_Photon26_R9Id85_OR_CaloId10_Iso50_Photon18_R9Id85_OR_CaloId10_Iso50_Mass60",
"HLT_Photon26_R9Id85_OR_CaloId10_Iso50_Photon18_R9Id85_OR_CaloId10_Iso50_Mass70",
"HLT_Photon26_R9Id85_Photon18_R9Id85_Mass60",
"HLT_Photon26_R9Id85_Photon18_CaloId10_Iso50_Mass60",
"HLT_Photon26_CaloId10_Iso50_Photon18_R9Id85_Mass60",
"HLT_Photon36_R9Id85_OR_CaloId10_Iso50_Photon22_R9Id85_OR_CaloId10_Iso50"}; //include this too
TString alltriggers[NTriggers] = {
"HLT_Photon36_CaloId10_Iso50_Photon22_CaloId10_Iso50", //dmason
"HLT_Photon36_CaloIdL_Photon22_CaloIdL",
"HLT_Photon32_CaloIdL_Photon26_CaloIdL",
"HLT_Photon26_CaloId10_Iso50_Photon18_CaloId10_Iso50_Mass60",
"HLT_Photon36_R9Id85_Photon22_R9Id85", //dmason
"HLT_Photon36_R9Id85_Photon22_CaloId10_Iso50", //dmason
"HLT_Photon36_CaloId10_Iso50_Photon22_R9Id85", //dmason
"HLT_Photon26_R9Id85_OR_CaloId10_Iso50_Photon18_R9Id85_OR_CaloId10_Iso50_Mass60",
"HLT_Photon26_R9Id85_OR_CaloId10_Iso50_Photon18_R9Id85_OR_CaloId10_Iso50_Mass70",
"HLT_Photon26_R9Id85_Photon18_R9Id85_Mass60",
"HLT_Photon26_R9Id85_Photon18_CaloId10_Iso50_Mass60",
"HLT_Photon26_CaloId10_Iso50_Photon18_R9Id85_Mass60",
"HLT_Photon36_R9Id85_OR_CaloId10_Iso50_Photon22_R9Id85_OR_CaloId10_Iso50"}; //include this too
int n_passTrig[NTriggers] = {0,0,0,0, 0,0,0,0, 0,0,0,0, 0};
int n_passTrig_whenDmasonFail[NTriggers] = {0,0,0,0, 0,0,0,0, 0,0,0,0, 0};
int n_passTrigExclusive[NTriggers] = {0,0,0,0, 0,0,0,0, 0,0,0,0, 0};//event passes this trig and nothing else
int n_passDMasonTrig[4] = {0,0,0,0};
int n_passDMTrigExclusive_Dmason[4] = {0,0,0,0};//event passes this dmason trigg and no other dmason trigs
int n_passAll = 0;
int n_passDMason = 0;
if(!useTrigger&&event->isRealData){
useTrigger = true;
cout<< endl<<"By some black magic, useTrigger is false, setting it to true"<<endl;
}
if (!useTrigger) cout << endl << endl << "WARNING!! NOT USING THE TRIGGER!!!"<<endl<<endl<<endl;
else cout << endl << "TRIGGER ON"<<endl<<endl;
if (!useJSON) cout << endl << endl << "WARNING!! NOT USING THE JSON FILE!!!"<<endl<<endl<<endl;
else cout << endl << "USING JSON"<<endl<<endl;
// to check duplicated events
std::map<int, std::set<int> > allEvents;
// start event looping
Long64_t nbytes = 0, nb = 0;
for (Long64_t jentry=0; jentry < processNEvents; jentry++) {
// for (Long64_t jentry=0; jentry < 500; jentry++){ //master loop
if(printLevel > 0) std::cout << "Get the tree contents." << std::endl;
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
Counters["no cuts"]++;
nb = fChain->GetEntry(jentry); nbytes += nb;
if(printLevel > -1 && (printInterval > 0 && (jentry >= printInterval && jentry%printInterval == 0)) ) {
std::cout << int(jentry) << " events processed with run="
<< event->runNumber << ", event=" << event->eventNumber << std::endl;
//every 100 print intervals, print the trigger list. It should always on the first event.
//if (jentry%(printInterval*100) == 0) PrintPhotonTriggers(event);
}//end if millionth event.
if(printLevel > 0) std::cout << "Initialize any global variables to be reset per event." << std::endl;
InitializePerEvent();
if(event->runNumber<0){
if(printLevel > 0) std::cout << "Warning: run number less than zero" << std::endl;
continue;
}
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"probe is at point A"<<endl;
if(printLevel > 0) std::cout << "Apply good run list." << std::endl;
if(event->isRealData && useJSON && !isInJson(event->runNumber,event->luminosityBlockNumber)) continue;
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"probe passes JSON"<<endl;
Counters["pass Json"]++; // total number of events that pass Json
//Print(*event); // uncomment this to print all ntuple variables
if(printLevel > 1) cout << "Check duplicated events for data only." << endl;
if(event->isRealData){
bool duplicateEvent = ! (allEvents[event->runNumber].insert(event->eventNumber)).second;
if(duplicateEvent){
cout<<"Duplicate Event! Run "<<event->runNumber<<" Event "<<event->eventNumber<<endl;
continue;
}
}
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"probe passes Duplicate Filter"<<endl;
Counters["pass duplicate check"]++;
// if(printLevel > 0) Print(*event); // uncomment this to print all ntuple variables
if(printLevel > 0) std::cout << "Apply trigger selection in the event." << std::endl;
bool pass_non_r9id_trigger = false;
bool pass_r9id_trigger = false;
bool pass_dmason_trigger = false;
bool passHLT = false;
bool pass[NTriggers] = {0,0,0,0, 0,0,0,0, 0,0,0,0, 0};
bool passDMason[4] = {0,0,0,0};
for (int i=0; i<NTriggers; i++) {
pass[i] = PassTrigger(alltriggers[i]);
passHLT |= pass[i];
}
if(!passHLT) continue;
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"probe passes HLT"<<endl;
Counters["pass HLT"]++; //something somewhere passes.
for (int i=0; i<4; i++) {
passDMason[i] = PassTrigger(dmason_triggers[i]);
pass_dmason_trigger |= passDMason[i];
}
for (int i=0; i<Nnonr9Triggers; i++) {
pass_non_r9id_trigger |= PassTrigger(nonR9triggers[i]);
}
for (int i=0; i<Nr9Triggers; i++) {
pass_r9id_trigger |= PassTrigger(R9triggers[i]);
}
//if(useTrigger && !passHLT) continue;
//if(event->isRealData && useTrigger && !passHLT) continue;
if(useMETFilter_data && event->isRealData && !event->passMetFilters()) continue; //don't use the met filter for MC, nothing passes.
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"probe passes MetFilter"<<endl;
Counters["pass MET Filter"]++;
if(printLevel > 0) std::cout << "Setup object vectors." << std::endl;
float myST = 0.0;
float myPhotonST = 0.0;
float myLeptonST = 0.0;
TLorentzVector vMET,vH,vL,vPho;//Have gg for diphotons
std::vector<susy::Photon*> loose_photons; // loose objects have all standard cuts except for isolation
std::vector<susy::Photon*> tight_susy11_photons; // tight objects hava isolation cuts applied on top of loose objects
std::vector<susy::Photon*> tight_susy11Star_photons; // tight objects hava isolation cuts applied on top of loose objects
std::vector<susy::Photon*> medium_susy12_photons; // tight objects hava isolation cuts applied on top of loose objects
std::vector<susy::Photon*> loose_susy12_photons; // tight objects hava isolation cuts applied on top of loose objects
std::vector<susy::Photon*> tight_VG11_photons;
std::vector<susy::Photon*>* p_photonVector;
//std::vector<susy::Photon*>* p_photonVector = &tight_susy11_photons;
//use as (*p_photonVector)
std::vector<susy::PFJet*> pfJets;
std::vector<susy::PFJet*> pfBJetsTight;
std::vector<susy::PFJet*> pfBJetsMedium;
std::vector<susy::PFJet*> pfBJetsLoose;
std::vector<susy::Vertex*> good_vtx;
// std::vector<susy::Muon*> ra3_muons;
std::vector<susy::Muon*> Muons;//DM's collection
std::vector<susy::PFJet*> ra3_pfjets;
std::vector<susy::Electron*> pfEles;
// std::vector<susy::Photon*> tap_electrons;
//std::vector<susy::Track*> tap_tracks;
//std::vector<susy::PFJet*> ra3_pfjets_noid;
//std::vector<susy::PFJet*> ra3_pfjets_noclean;
//std::vector<susy::Photon*> r9_photons;
//std::vector<susy::Photon*> rho_photons;
//std::vector<MyEMObject> myEMObject_sorted;
//std::vector<MyEMObject> myEMObject; // applied all DR condition
//std::vector<susy::Photon*> ele_photons; // same as tight except for nPixelSeeds > 0
//std::vector<susy::Photon*> fake_photons; // same as tight except for reversing either trackIso or sigmaIetaIeta
//std::vector<susy::CaloJet*> caloJets;
/////////////////////////////////////////////////////////////////
//////////////////////////// PHOTONS ////////////////////////////
/////////////////////////////////////////////////////////////////
if(printLevel > 0) std::cout << "Find loose and tight photons in the event." << std::endl;
std::map<TString, std::vector<susy::Photon> >::iterator phoMap = event->photons.find("photons");
if(phoMap != event->photons.end()) {
for(std::vector<susy::Photon>::iterator it = phoMap->second.begin();
it != phoMap->second.end(); it++) {
float MVAcor = it->MVAregEnergyAndErr.first/it->momentum.E();
/*bool tightSusy11Cut = is_tight_combIso_BFrancis(
//useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et(),//it->momentum.Et(),
((useMVAphoP?MVAcor:1.0)*it->momentum).Et(),
it->caloPosition.Eta(),
it->trkSumPtHollowConeDR03,
it->ecalRecHitSumEtConeDR03,
it->hcalTowerSumEtConeDR03(),
it->hadronicOverEm,
it->sigmaIetaIeta,
it->sigmaIphiIphi,
it->r9,
it->nPixelSeeds,
event->rho25);
bool loose11Cut = is_vloose_pho(
//useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et(),//it->momentum.Et(),
((useMVAphoP?MVAcor:1.0)*it->momentum).Et(),
it->caloPosition.Eta(),
it->trkSumPtHollowConeDR03,
it->ecalRecHitSumEtConeDR03,
it->hcalTowerSumEtConeDR03(),
it->hadronicOverEm,
it->sigmaIetaIeta,
it->sigmaIphiIphi,
it->r9,
it->nPixelSeeds,
event->rho25);
bool tightVG11Cut = is_tight_ManiTripathi(
//useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et(),//it->momentum.Et(),
((useMVAphoP?MVAcor:1.0)*it->momentum).Et(),
it->caloPosition.Eta(),
it->trkSumPtHollowConeDR04,
it->ecalRecHitSumEtConeDR04,
it->hcalTowerSumEtConeDR04(),
it->hadronicOverEm,
it->sigmaIetaIeta,
it->sigmaIphiIphi,
it->r9,
it->nPixelSeeds,
event->rho25);
bool istight2012Cut = is_tight_2012(
//useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et(),//it->momentum.Et(),
((useMVAphoP?MVAcor:1.0)*it->momentum).Et(),
it->caloPosition.Eta(),
it->chargedHadronIso,
it->neutralHadronIso,
it->photonIso,
it->hadTowOverEm, //single tower, same cut though
it->sigmaIetaIeta,
it->sigmaIphiIphi,
it->passelectronveto, //replaces pixel seed veto
event->rho25);*/
bool ismedium2012Cut = is_medium_2012(
//useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et(),//it->momentum.Et(),
((useMVAphoP?MVAcor:1.0)*it->momentum).Et(),
it->caloPosition.Eta(),
it->chargedHadronIso,
it->neutralHadronIso,
it->photonIso,
it->hadTowOverEm, //single tower, same cut though
it->sigmaIetaIeta,
it->sigmaIphiIphi,
it->passelectronveto, //replaces pixel seed veto
event->rho25);
bool isloose2012Cut = is_loose_2012(
//useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et(),//it->momentum.Et(),
((useMVAphoP?MVAcor:1.0)*it->momentum).Et(),
it->caloPosition.Eta(),
it->chargedHadronIso,
it->neutralHadronIso,
it->photonIso,
it->hadTowOverEm, //single tower, same cut though
it->sigmaIetaIeta,
it->sigmaIphiIphi,
it->passelectronveto, //replaces pixel seed veto
event->rho25);
//if((useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et()) < phoEtThresh1) //if(it->momentum.Et() < phoEtThresh1)
if( ((useMVAphoP?MVAcor:1.0)*it->momentum).Et() < phoEtThresh1){ //if(it->momentum.Et() < phoEtThresh1)
selvar_pho_HE->Fill(it->hadronicOverEm);
if(fabs(it->caloPosition.Eta())<1.4442) {
selvar_pho_sinin_bar->Fill(it->sigmaIetaIeta);
selvar_pho_sipip_bar->Fill(it->sigmaIphiIphi);
}
else if(fabs(it->caloPosition.Eta())>1.56 && fabs(it->caloPosition.Eta())<2.5) {
selvar_pho_sinin_ec->Fill(it->sigmaIetaIeta);
selvar_pho_sipip_ec->Fill(it->sigmaIphiIphi);
}
selvar_pho_nPixelSeeds->Fill(it->nPixelSeeds);
selvar_pho_R9->Fill(it->r9);
}//fill selvars
selvar_pho_ChargeSafeEleVeto->Fill(it->passelectronveto?1:0);
//if(loose11Cut) { loose_photons.push_back(&*it); }
if(isloose2012Cut) {
//if((useMVAphoP?it-> MVAcorrMomentum.Et():it->momentum.Et()) < phoEtThresh1)
if( ((useMVAphoP?it->MVAregEnergyAndErr.first / it->momentum.E():1.0)*it->momentum).Et() < phoEtThresh1){ // if(it->momentum.Et() < phoEtThresh1)
selvar_pho_TrkIsoDR04->Fill(it->trkSumPtHollowConeDR04);
selvar_pho_EcalIsoDR04->Fill(it->ecalRecHitSumEtConeDR04);
selvar_pho_HcalIsoDR04->Fill(it->hcalTowerSumEtConeDR04());
selvar_pho_TrkIsoDR03->Fill(it->trkSumPtHollowConeDR04);
selvar_pho_EcalIsoDR03->Fill(it->ecalRecHitSumEtConeDR04);
selvar_pho_HcalIsoDR03->Fill(it->hcalTowerSumEtConeDR03());
selvar_pho_PFcargedHadIso->Fill(it->chargedHadronIso);
selvar_pho_PFneutralHadIso->Fill(it->neutralHadronIso);
selvar_pho_PFphoIso->Fill(it->photonIso);
selvar_pho_rho->Fill(event->rho25);
}
}
//if(tightSusy11Cut) { tight_susy11_photons.push_back(&*it); }
//if (tightVG11Cut) { tight_VG11_photons.push_back(&*it); }
if(isloose2012Cut){
loose_susy12_photons.push_back(&*it);
}
if(ismedium2012Cut){
medium_susy12_photons.push_back(&*it);
}
}// for all photon
}// else
// sort photons by Et
// std::sort(loose_photons.begin(),loose_photons.end(),EtGreaterpho<susy::Photon>);
//std::sort(tight_susy11_photons.begin(),tight_susy11_photons.end(),EtGreaterpho<susy::Photon>);
//std::sort(loose_photons.begin(),loose_photons.end(),EtGreaterpho<susy::Photon>);
//std::sort(tight_VG11_photons.begin(),tight_VG11_photons.end(),EtGreaterpho<susy::Photon>);
std::sort(medium_susy12_photons.begin(),medium_susy12_photons.end(),EtGreaterpho<susy::Photon>);
std::sort(loose_susy12_photons.begin(),loose_susy12_photons.end(),EtGreaterpho<susy::Photon>);
if(printLevel > 50) cout<<"e"<<endl;
//remove_duplicate_photons(tight_susy11_photons);
//remove_duplicate_photons(tight_VG11_photons);
//remove_duplicate_photons(loose_photons);
remove_duplicate_photons(loose_susy12_photons);
if(printLevel > 50) cout<<"f"<<endl;
remove_duplicate_photons(medium_susy12_photons);
if(printLevel > 50) cout<<"g"<<endl;
//////////////////////////////////////////////////////////////////////////////
//////////////////////// Set Which Kind of Photon You Use ////////////////////
//////////////////////////////////////////////////////////////////////////////
p_photonVector = &loose_susy12_photons; //use as (*p_photonVector)
//p_photonVector = &medium_susy12_photons; //use as (*p_photonVector)
//////////////////////////////////////////////////////////////////////////////
//////////////////////////////////////////////////////////////////////////////
if(printLevel > 10) cout<<"set pho pointer"<<endl;
// I want to set this after all the removing and sorting is done in case some of
// that messes with the address of the start of the vector.
//fill photon dists.
if ((*p_photonVector).size()>=2 ){
float MVAcor0 = (*p_photonVector)[0]->MVAregEnergyAndErr.first/(*p_photonVector)[0]->momentum.E();
float Et0 = ((useMVAphoP?MVAcor0:1.0)*(*p_photonVector)[0]->momentum).Et();
//float Et0 = useMVAphoP?(*p_photonVector)[0]->MVAcorrMomentum.Et():(*p_photonVector)[0]->momentum.Et();
pho_Et_0->Fill(Et0);//look at pho0 with no pt cut. // pho_Et_0->Fill((*p_photonVector)[0]->momentum.Et());//look at pho0 with no pt cut.
if (Et0 >= phoEtThresh0){ // if ((*p_photonVector)[0]->momentum.Et() >= phoEtThresh0)
//float Et1 = useMVAphoP?(*p_photonVector)[1]->MVAcorrMomentum.Et():(*p_photonVector)[1]->momentum.Et();
float MVAcor1 = (*p_photonVector)[1]->MVAregEnergyAndErr.first/(*p_photonVector)[1]->momentum.E();
float Et1 = ((useMVAphoP?MVAcor1:1.0)*(*p_photonVector)[1]->momentum).Et();
pho_Et_1->Fill(Et1); //pho_Et_1->Fill((*p_photonVector)[1]->momentum.Et());
if ((*p_photonVector).size()>2 && Et1 >= phoEtThresh1) //if ((*p_photonVector).size()>2 && (*p_photonVector)[1]->momentum.Et() >= phoEtThresh1)
//float MVAcor2 = (*p_photonVector)[2]->MVAregEnergyAndErr.first/(*p_photonVector)[2]->momentum.E();
pho_Et_2->Fill( ((useMVAphoP?(*p_photonVector)[2]->MVAregEnergyAndErr.first/(*p_photonVector)[2]->momentum.E():1.0)*(*p_photonVector)[2]->momentum).Et() ); //pho_Et_2->Fill((*p_photonVector)[2]->momentum.Et());
//pho_Et_2->Fill( useMVAphoP?(*p_photonVector)[2]->MVAcorrMomentum.Et():(*p_photonVector)[2]->momentum.Et() );
}
}
selvar_pho_nPho->Fill((*p_photonVector).size());
for(std::vector<susy::Photon*>::iterator it = (*p_photonVector).begin(); it != (*p_photonVector).end(); it++) {
float Eti = ((useMVAphoP?(*it)->MVAregEnergyAndErr.first / (*it)->momentum.E():1.0)*(*it)->momentum).Et();
//float Eti = (useMVAphoP?(*it)-> MVAcorrMomentum.Et():(*it)->momentum.Et());
if(Eti < phoEtThresh1){//if((*it)->momentum.Et() < phoEtThresh1)
selvar_pho_Et->Fill(Eti);//selvar_pho_Et->Fill((*it)->momentum.Et());
selvar_pho_Eta ->Fill((*it)->caloPosition.Eta());
selvar_pho_Phi->Fill(fabs((*it)->caloPosition.Phi()));
}
}
//probe the event
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)){
printf("probe: nPho_tight %li nPho_loose %li\n",(*p_photonVector).size(),loose_susy12_photons.size());
if(event->eventNumber == ((unsigned int)probeevent) && loose_susy12_photons.size() >= 2)
printf("tight: phoEt[0] %f, phoEt[1] %f phoEta[0] %.2f, phoEta[1] %.2f\n",
((useMVAphoP?loose_susy12_photons[0]->MVAregEnergyAndErr.first / loose_susy12_photons[0]->momentum.E():1.0)*loose_susy12_photons[0]->momentum).Et(),
((useMVAphoP?loose_susy12_photons[1]->MVAregEnergyAndErr.first / loose_susy12_photons[1]->momentum.E():1.0)*loose_susy12_photons[1]->momentum).Et(),
loose_susy12_photons[0]->momentum.Eta(),
loose_susy12_photons[1]->momentum.Eta() );
/* useMVAphoP?loose_susy12_photons[0]->MVAcorrMomentum.Et():loose_susy12_photons[0]->momentum.Et(),
useMVAphoP?loose_susy12_photons[1]->MVAcorrMomentum.Et():loose_susy12_photons[1]->momentum.Et(),
useMVAphoP?loose_susy12_photons[0]->MVAcorrMomentum.Eta():loose_susy12_photons[0]->momentum.Eta(),
useMVAphoP?loose_susy12_photons[1]->MVAcorrMomentum.Eta():loose_susy12_photons[1]->momentum.Eta() );*/
if(event->eventNumber == ((unsigned int)probeevent) && (*p_photonVector).size() >= 2)
printf("tight: phoEt[0] %f, phoEt[1] %f phoEta[0] %.2f, phoEta[1] %.2f\n",
((useMVAphoP?(*p_photonVector)[0]->MVAregEnergyAndErr.first / (*p_photonVector)[0]->momentum.E():1.0)*(*p_photonVector)[0]->momentum).Et(),
((useMVAphoP?(*p_photonVector)[1]->MVAregEnergyAndErr.first / (*p_photonVector)[1]->momentum.E():1.0)*(*p_photonVector)[1]->momentum).Et(),
(*p_photonVector)[0]->momentum.Eta(),
(*p_photonVector)[1]->momentum.Eta() );
/* useMVAphoP?(*p_photonVector)[0]->MVAcorrMomentum.Et():(*p_photonVector)[0]->momentum.Et(),
useMVAphoP?(*p_photonVector)[1]->MVAcorrMomentum.Et():(*p_photonVector)[1]->momentum.Et(),
useMVAphoP?(*p_photonVector)[0]->MVAcorrMomentum.Eta():(*p_photonVector)[0]->momentum.Eta(),
useMVAphoP?(*p_photonVector)[1]->MVAcorrMomentum.Eta():(*p_photonVector)[1]->momentum.Eta() );*/
printf("I see thresholds: %f, %f\n",phoEtThresh0,phoEtThresh1);
}
//////////////////make two photon cuts.///////////////////////
if (loose_susy12_photons.size()<2 ||
(((useMVAphoP?loose_susy12_photons[0]->MVAregEnergyAndErr.first / loose_susy12_photons[0]->momentum.E():1.0)*loose_susy12_photons[0]->momentum).Et()) < phoEtThresh0 ||
(((useMVAphoP?loose_susy12_photons[1]->MVAregEnergyAndErr.first / loose_susy12_photons[1]->momentum.E():1.0)*loose_susy12_photons[1]->momentum).Et()) < phoEtThresh1) continue;
//(useMVAphoP?loose_susy12_photons[0]->MVAcorrMomentum.Et():loose_susy12_photons[0]->momentum.Et()) < phoEtThresh0 ||
//(useMVAphoP?loose_susy12_photons[1]->MVAcorrMomentum.Et():loose_susy12_photons[1]->momentum.Et()) < phoEtThresh1) continue;//firing all of the time.
Counters["have 2 loose photons"]++;
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"probe passes Two Loose Photons"<<endl;
if ((*p_photonVector).size()<2 ||
(((useMVAphoP?(*p_photonVector)[0]->MVAregEnergyAndErr.first / (*p_photonVector)[0]->momentum.E():1.0)*(*p_photonVector)[0]->momentum).Et()) < phoEtThresh0 ||
(((useMVAphoP?(*p_photonVector)[1]->MVAregEnergyAndErr.first / (*p_photonVector)[1]->momentum.E():1.0)*(*p_photonVector)[1]->momentum).Et()) < phoEtThresh1) continue;
//(useMVAphoP?(*p_photonVector)[0]->MVAcorrMomentum.Et():(*p_photonVector)[0]->momentum.Et()) < phoEtThresh0 ||
//(useMVAphoP?(*p_photonVector)[1]->MVAcorrMomentum.Et():(*p_photonVector)[1]->momentum.Et()) < phoEtThresh1) continue;
//Counters["have 2 tight photons"]++;
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"probe passes Two Tight Photons"<<endl;
TLorentzVector p0, p1, gg;
p0 = (useMVAphoP?(*p_photonVector)[0]->MVAregEnergyAndErr.first / (*p_photonVector)[0]->momentum.E():1.0)*(*p_photonVector)[0]->momentum;
p1 = (useMVAphoP?(*p_photonVector)[1]->MVAregEnergyAndErr.first / (*p_photonVector)[1]->momentum.E():1.0)*(*p_photonVector)[1]->momentum;
//p0 = useMVAphoP?(*p_photonVector)[0]->MVAcorrMomentum:(*p_photonVector)[0]->momentum;
//p1 = useMVAphoP?(*p_photonVector)[1]->MVAcorrMomentum:(*p_photonVector)[1]->momentum;
gg = p0+p1;
float mgg = gg.M();//mass is fine
float ptgg = gg.Pt();//pt is fine
float mtgg = sqrt(gg.E()*gg.E() - gg.Perp2());
// int ipho = 0;//loop over the first four photons.
// for(std::vector<susy::Photon*>::iterator it = loose_photons.begin();it != loose_photons.end() && ipho<2; it++)
for(std::vector<susy::Photon*>::iterator it = (*p_photonVector).begin(); it != (*p_photonVector).end(); it++) {
vPho += (useMVAphoP?(*it)->MVAregEnergyAndErr.first / (*it)->momentum.E():1.0)*(*it)->momentum;
myPhotonST+= ((useMVAphoP?(*it)->MVAregEnergyAndErr.first / (*it)->momentum.E():1.0)*(*it)->momentum).Et();
//vPho += useMVAphoP?(*it)->MVAcorrMomentum:(*it)->momentum;
//myPhotonST+= useMVAphoP?(*it)->MVAcorrMomentum.Et():(*it)->momentum.Et();
// ipho++;
}
/////////////////////////////////////////////////////////////////
//////////////////////// FIND THE PRIMARY VERTEX ////////////////
/////////////////////////////////////////////////////////////////
if(printLevel > 0) std::cout << "Find primary vertex in the event." << std::endl;
// TVector3* primVtx = &(event->vertices[0].position);
TVector3* primVtx = 0;
if(event->vertices.size() > 0) primVtx = &(event->vertices[0].position);
if(primVtx) h_vtxZ_unsliced->Fill(primVtx->Z());
h_bsZ_unsliced->Fill(event->beamSpot.Z());
for(std::vector<susy::Vertex>::iterator it = event->vertices.begin(); it != event->vertices.end(); it++) {
if(ok_vtx(it)) good_vtx.push_back(&*it);
selvar_vtx_isFake->Fill(it->isFake());
selvar_vtx_ndof->Fill(it->ndof);
selvar_vtx_chi2->Fill(it->chi2);
selvar_vtx_trackSize->Fill(it->tracksSize);
selvar_vtx_rho->Fill(std::sqrt((it->position.X())*(it->position.X()) + (it->position.Y())*(it->position.Y())));
selvar_vtx_Zpos->Fill(std::fabs(it->position.Z()));
}
int nPVertex = good_vtx.size();
selvar_vtx_nVtx->Fill(nPVertex);
if(nPVertex<1){
if(printLevel > 1) cout<<"No Good Vertex!!!! Run: "<<event->runNumber<<" Event: "<<event->eventNumber<<endl;
continue;
}
if(printLevel > 0 && event->eventNumber == ((unsigned int)probeevent)) cout<<"pass Vertex"<<endl;
Counters["pass a primary vertex reqirement"]++;
/////////////////////////////////////////////////////////////////
//////////////////////// COUNT HLT ////////////////////////////
/////////////////////////////////////////////////////////////////
n_passAll++;
for (int i=0; i<NTriggers; i++){
if(pass[i]){
n_passTrig[i]++;
if(!pass_dmason_trigger) n_passTrig_whenDmasonFail[i]++;
}
}
for (int i=0; i<NTriggers; i++){
if(!pass[i]) continue; //if this trig didn't pass, don't bother asking
bool somethingElsePassed = false;
for (int j=0; j<NTriggers; j++){
if(i==j) continue;
somethingElsePassed |= pass[j];
}
if(!somethingElsePassed) n_passTrigExclusive[i]++;
}
for (int i=0; i<4; i++) if(passDMason[i]) n_passDMasonTrig[i]++;
if(pass_dmason_trigger){
n_passDMason++;
for (int i=0; i<4; i++){
if(!passDMason[i]) continue; //if this trig didn't pass, don't bother asking
bool somethingElsePassed = false;
for (int j=0; j<4; j++){
if(i==j) continue;
somethingElsePassed |= passDMason[j];
}
if(!somethingElsePassed) n_passDMTrigExclusive_Dmason[i]++;
}
}//end if pass dmason trig
/////////////////////////////////////////////////////////////////
continue; ///////////////// KILL THE REST OF THE LOOP ////////////////
/////////////////////////////////////////////////////////////////
/////////////////////////////////////////////////////////////////
//////////////////////// FIND MUONS ////////////////////////////
/////////////////////////////////////////////////////////////////
//may need primVtx->Z()
//float myMuSumEt = 0;
if(printLevel > 1) cout << "Find Muons in the event." << endl;
//susy::MuonCollection muonC = event->muons["muidGlobalMuonPromptTight"];//xxx
//muonCollectionTags
//for(std::vector<susy::Muon>::iterator it_Mu = muonC.begin(); it_Mu != muonC.end(); it_Mu++)
////for(std::vector<susy::Muon>::iterator it_Mu = event->muons.begin(); it_Mu != event->muons.end(); it_Mu++)
std::map<TString, std::vector<susy::Muon> >::iterator muMap = event->muons.find("muons");
//std::map<TString, std::vector<susy::Muon> >::iterator muMap = event->muons.find("muidGlobalMuonPromptTight");
//this is probably not the right thing to look for..ask.
//in the ntuplizer, the keys are in muonCollectionTags_.
if(muMap != event->muons.end()) {
//loop over muons collection
for(std::vector<susy::Muon>::iterator it_Mu= muMap->second.begin(); it_Mu!= muMap->second.end(); it_Mu++) {
/*for(std::vector<susy::Muon>::iterator it_Mu = event->muonv.begin(); it_Mu != event->muonv.end(); it_Mu++) {
std::map<TString,UChar_t>::iterator idPair = it_Mu->idPairs.find("muidGlobalMuonPromptTight");
if(idPair == it_Mu->idPairs.end()) continue;
if(int(idPair->second) == 0) continue;
*/
bool same_pho_object = false;
for(std::vector<susy::Photon*>::iterator p_it = (*p_photonVector).begin(); p_it != (*p_photonVector).end(); p_it++) {
same_pho_object |= isSameObject(it_Mu->momentum,(*p_it)->momentum);//dR indep of e scale
//same_pho_object |= isSameObject(it_Mu->momentum,useMVAphoP?(*p_it)->MVAcorrMomentum:(*p_it)->momentum);
}