void makeTable(int nbins = 40, const string label = "HFhits", const char * tag = "Preliminary_NoEffCor_AMPT_d1107", const char* dataset = "DATA"){
bool DATA = false;
bool SIM = true;
bool MC = false;
double EFF = 1;
double MXS = 1. - EFF;
// Retrieving data
int maxEvents = -200;
vector<int> runnums;
// const char* infileName = Form("/net/hisrv0001/home/yetkin/hidsk0001/analysis/prod/%s_RECO_391/test.root",dataset);
const char* infileName = Form("/net/hisrv0001/home/yetkin/hidsk0001/centrality/prod/%s/test.root",dataset);
// TFile* infile = new TFile(infileName,"read");
TChain* t = new TChain("HltTree");
// TChain* t = new TChain("hltanalysis/HltTree");
t->Add(infileName);
// Creating output table
TFile* outFile = new TFile("tables_d1108.root","update");
TDirectory* dir = outFile->mkdir(tag);
dir->cd();
TNtuple* nt = new TNtuple("nt","","hf:bin:b:npart:ncoll:nhard");
CentralityBins* bins = new CentralityBins("noname","Test tag", nbins);
bins->table_.reserve(nbins);
TH1D::SetDefaultSumw2();
int runMC = 1;
TFile * inputMCfile;
CentralityBins* inputMCtable;
if(DATA){
inputMCfile = new TFile("tables_d1103.root","read");
inputMCtable = (CentralityBins*)inputMCfile->Get("CentralityTable_HFhits40_AMPT2760GeV_v1_mc_MC_38Y_V12/run1");
}
// Setting up variables & branches
double binboundaries[nbinsMax+1];
vector<float> values;
float b,npart,ncoll,nhard,hf,hfhit,eb,ee,etmr,parameter;
int npix,ntrks;
// TTree* t = (TTree*)infile->Get("HltTree");
int run;
if(SIM){
t->SetBranchAddress("b",&b);
t->SetBranchAddress("Npart",&npart);
t->SetBranchAddress("Ncoll",&ncoll);
t->SetBranchAddress("Nhard",&nhard);
}
t->SetBranchAddress("hiHFhit",&hfhit);
t->SetBranchAddress("hiHF",&hf);
t->SetBranchAddress("hiEB",&eb);
t->SetBranchAddress("hiEE",&ee);
t->SetBranchAddress("hiET",&etmr);
t->SetBranchAddress("hiNpix",&npix);
t->SetBranchAddress("hiNtracks",&ntrks);
t->SetBranchAddress("Run",&run);
bool binNpart = label.compare("Npart") == 0;
bool binNcoll = label.compare("Ncoll") == 0;
bool binNhard = label.compare("Nhard") == 0;
bool binB = label.compare("b") == 0;
bool binHF = label.compare("HFtowers") == 0;
bool binHFhit = label.compare("HFhits") == 0;
bool binEB = label.compare("EB") == 0;
bool binEE = label.compare("EE") == 0;
bool binETMR = label.compare("ETMR") == 0;
bool binNpix = label.compare("PixelHits") == 0;
bool binNtrks = label.compare("Ntracks") == 0;
// Determining bins of cross section
// loop over events
unsigned int events=t->GetEntries();
for(unsigned int iev = 0; iev < events && (maxEvents < 0 || iev< maxEvents); ++iev){
if( iev % 100 == 0 ) cout<<"Processing event : "<<iev<<endl;
t->GetEntry(iev);
if(binNpart) parameter = npart;
if(binNcoll) parameter = ncoll;
if(binNhard) parameter = nhard;
if(binB) parameter = b;
if(binHF) parameter = hf;
if(binHFhit) parameter = hfhit;
if(binEB) parameter = eb;
if(binEE) parameter = ee;
if(binETMR) parameter = etmr;
if(binNpix) parameter = npix;
if(binNtrks) parameter = ntrks;
values.push_back(parameter);
if(runnums.size() == 0 || runnums[runnums.size()-1] != run) runnums.push_back(run);
}
if(label.compare("b") == 0) sort(values.begin(),values.end(),descend);
else sort(values.begin(),values.end());
double max = values[events-1];
binboundaries[nbins] = max;
cout<<"-------------------------------------"<<endl;
cout<<label.data()<<" based cuts are : "<<endl;
cout<<"(";
int bin = 0;
double dev = events;
for(int i = 0; i< nbins; ++i){
// Find the boundary
int entry = (int)(i*(dev/nbins));
binboundaries[i] = values[entry];
cout<<" "<<binboundaries[i];
if(i < nbins - 1) cout<<",";
else cout<<")"<<endl;
}
cout<<"-------------------------------------"<<endl;
if(!DATA){
// Determining Glauber results in various bins
dir->cd();
TH2D* hNpart = new TH2D("hNpart","",nbins,binboundaries,500,0,500);
TH2D* hNcoll = new TH2D("hNcoll","",nbins,binboundaries,2000,0,2000);
TH2D* hNhard = new TH2D("hNhard","",nbins,binboundaries,250,0,250);
TH2D* hb = new TH2D("hb","",nbins,binboundaries,300,0,30);
for(unsigned int iev = 0; iev < events && (maxEvents < 0 || iev< maxEvents); ++iev){
if( iev % 100 == 0 ) cout<<"Processing event : "<<iev<<endl;
t->GetEntry(iev);
if(binNpart) parameter = npart;
if(binNcoll) parameter = ncoll;
if(binNhard) parameter = nhard;
if(binB) parameter = b;
if(binHF) parameter = hf;
if(binHFhit) parameter = hfhit;
if(binEB) parameter = eb;
if(binEE) parameter = ee;
if(binETMR) parameter = etmr;
if(binNpix) parameter = npix;
if(binNtrks) parameter = ntrks;
hNpart->Fill(parameter,npart);
hNcoll->Fill(parameter,ncoll);
hNhard->Fill(parameter,nhard);
hb->Fill(parameter,b);
int bin = hNpart->GetXaxis()->FindBin(parameter) - 1;
if(bin < 0) bin = 0;
if(bin >= nbins) bin = nbins - 1;
nt->Fill(hf,bin,b,npart,ncoll,nhard);
}
// Fitting Glauber distributions in bins to get mean and sigma values
dir->cd();
TF1* fGaus = new TF1("fb","gaus(0)",0,2);
fGaus->SetParameter(0,1);
fGaus->SetParameter(1,0.04);
fGaus->SetParameter(2,0.02);
fitSlices(hNpart,fGaus);
fitSlices(hNcoll,fGaus);
fitSlices(hNhard,fGaus);
fitSlices(hb,fGaus);
TH1D* hNpartMean = (TH1D*)gDirectory->Get("hNpart_1");
TH1D* hNpartSigma = (TH1D*)gDirectory->Get("hNpart_2");
TH1D* hNcollMean = (TH1D*)gDirectory->Get("hNcoll_1");
TH1D* hNcollSigma = (TH1D*)gDirectory->Get("hNcoll_2");
TH1D* hNhardMean = (TH1D*)gDirectory->Get("hNhard_1");
TH1D* hNhardSigma = (TH1D*)gDirectory->Get("hNhard_2");
TH1D* hbMean = (TH1D*)gDirectory->Get("hb_1");
TH1D* hbSigma = (TH1D*)gDirectory->Get("hb_2");
cout<<"-------------------------------------"<<endl;
cout<<"# Bin NpartMean NpartSigma NcollMean NcollSigma bMean bSigma BinEdge"<<endl;
// Enter values in table
for(int i = 0; i < nbins; ++i){
int ii = nbins-i;
bins->table_[i].n_part_mean = hNpartMean->GetBinContent(ii);
bins->table_[i].n_part_var = hNpartSigma->GetBinContent(ii);
bins->table_[i].n_coll_mean = hNcollMean->GetBinContent(ii);
bins->table_[i].n_coll_var = hNcollSigma->GetBinContent(ii);
bins->table_[i].b_mean = hbMean->GetBinContent(ii);
bins->table_[i].b_var = hbSigma->GetBinContent(ii);
bins->table_[i].n_hard_mean = hNhardMean->GetBinContent(ii);
bins->table_[i].n_hard_var = hNhardSigma->GetBinContent(ii);
bins->table_[i].bin_edge = binboundaries[ii-1];
cout<<i<<" "
<<hNpartMean->GetBinContent(ii)<<" "
<<hNpartSigma->GetBinContent(ii)<<" "
<<hNcollMean->GetBinContent(ii)<<" "
<<hNcollSigma->GetBinContent(ii)<<" "
<<hbMean->GetBinContent(ii)<<" "
<<hbSigma->GetBinContent(ii)<<" "
<<binboundaries[ii]<<" "
<<endl;
}
cout<<"-------------------------------------"<<endl;
// Save the table in output file
if(onlySaveTable){
hNpart->Delete();
hNpartMean->Delete();
hNpartSigma->Delete();
hNcoll->Delete();
hNcollMean->Delete();
hNcollSigma->Delete();
hNhard->Delete();
hNhardMean->Delete();
hNhardSigma->Delete();
hb->Delete();
hbMean->Delete();
hbSigma->Delete();
}
}else{
cout<<"-------------------------------------"<<endl;
cout<<"# Bin NpartMean NpartSigma NcollMean NcollSigma bMean bSigma BinEdge"<<endl;
// Enter values in table
for(int i = 0; i < nbins; ++i){
int ii = nbins-i;
bins->table_[i].n_part_mean = inputMCtable->NpartMeanOfBin(i);
bins->table_[i].n_part_var = inputMCtable->NpartSigmaOfBin(i);
bins->table_[i].n_coll_mean = inputMCtable->NcollMeanOfBin(i);
bins->table_[i].n_coll_var = inputMCtable->NcollSigmaOfBin(i);
bins->table_[i].b_mean = inputMCtable->bMeanOfBin(i);
bins->table_[i].b_var = inputMCtable->bSigmaOfBin(i);
bins->table_[i].n_hard_mean = inputMCtable->NhardMeanOfBin(i);
bins->table_[i].n_hard_var = inputMCtable->NhardSigmaOfBin(i);
bins->table_[i].bin_edge = binboundaries[ii-1];
cout<<i<<" "
<<bins->table_[i].n_part_mean<<" "
<<bins->table_[i].n_part_var<<" "
<<bins->table_[i].n_coll_mean<<" "
<<bins->table_[i].n_coll_var<<" "
<<bins->table_[i].b_mean<<" "
<<bins->table_[i].b_var<<" "
<<bins->table_[i].n_hard_mean<<" "
<<bins->table_[i].n_hard_var<<" "
<<bins->table_[i].bin_edge<<" "<<endl;
}
cout<<"-------------------------------------"<<endl;
}
outFile->cd();
dir->cd();
bins->SetName(Form("run%d",1));
bins->Write();
nt->Write();
bins->Delete();
outFile->Write();
}
void makeCentralityTable(int nbins = 40, const string label = "hf", const char * tag = "HFhitBins", double MXS = 0.){
// This macro assumes all inefficiency is in the most peripheral bin.
double EFF = 1. - MXS;
// Retrieving data
int nFiles = 1;
vector<string> infiles;
// TFile* infile = new TFile("/net/hisrv0001/home/yetkin/pstore02/ana/Hydjet_MinBias_d20100222/Hydjet_MinBias_4TeV_runs1to300.root");
// fwlite::Event event(infile);
infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs1to10.root");
// infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs11to20.root");
infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs21to30.root");
infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs31to40.root");
infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs41to50.root");
infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs51to60.root");
// infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs61to70.root");
// infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs71to80.root");
// infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs81to90.root")
// infiles.push_back("~/hibat0007/aod/JulyExercise/MinBias0707/MinBias0707_runs91to100.root");
fwlite::ChainEvent event(infiles);
vector<int> runnums;
// Creating output table
TFile* outFile = new TFile("tables.root","update");
TDirectory* dir = outFile->mkdir(tag);
dir->cd();
TH1D::SetDefaultSumw2();
CentralityBins* bins = new CentralityBins("noname","Test tag", nbins);
bins->table_.reserve(nbins);
// Setting up variables & branches
double binboundaries[nbinsMax+1];
vector<float> values;
// Determining bins of cross section
// loop over events
unsigned int events=0;
for(event.toBegin(); !event.atEnd(); ++event, ++events){
edm::EventBase const & ev = event;
if( events % 100 == 0 ) cout<<"Processing event : "<<events<<endl;
edm::Handle<edm::GenHIEvent> mc;
ev.getByLabel(edm::InputTag("heavyIon"),mc);
edm::Handle<reco::Centrality> cent;
ev.getByLabel(edm::InputTag("hiCentrality"),cent);
double b = mc->b();
double npart = mc->Npart();
double ncoll = mc->Ncoll();
double nhard = mc->Nhard();
double hf = cent->EtHFhitSum();
double hftp = cent->EtHFtowerSumPlus();
double hftm = cent->EtHFtowerSumMinus();
double eb = cent->EtEBSum();
double eep = cent->EtEESumPlus();
double eem = cent->EtEESumMinus();
double parameter = 0;
if(label.compare("npart") == 0) parameter = npart;
if(label.compare("ncoll") == 0) parameter = ncoll;
if(label.compare("nhard") == 0) parameter = nhard;
if(label.compare("b") == 0) parameter = b;
if(label.compare("hf") == 0) parameter = hf;
if(label.compare("hft") == 0) parameter = hftp + hftm;
if(label.compare("eb") == 0) parameter = eb;
if(label.compare("ee") == 0) parameter = eep+eem;
values.push_back(parameter);
int run = event.id().run();
if(runnums.size() == 0 || runnums[runnums.size()-1] != run) runnums.push_back(run);
}
if(label.compare("b") == 0) sort(values.begin(),values.end(),descend);
else sort(values.begin(),values.end());
double max = values[events-1];
binboundaries[nbins] = max;
cout<<"-------------------------------------"<<endl;
cout<<label.data()<<" based cuts are : "<<endl;
cout<<"(";
int bin = 0;
for(int i = 0; i< nbins; ++i){
// Find the boundary
int offset = (int)(MXS*events);
double xsec = events*(1 + MXS);
// Below should be replaced with an integral
// when inefficiency is better parametrized
// than a step function.
int entry = (int)(i*(xsec/nbins)) - offset;
binboundaries[i] = values[entry];
cout<<" "<<binboundaries[i];
if(i < nbins - 1) cout<<",";
else cout<<")"<<endl;
}
cout<<"-------------------------------------"<<endl;
// Determining Glauber results in various bins
TH2D* hNpart = new TH2D("hNpart","",nbins,binboundaries,500,0,500);
TH2D* hNcoll = new TH2D("hNcoll","",nbins,binboundaries,2000,0,2000);
TH2D* hNhard = new TH2D("hNhard","",nbins,binboundaries,250,0,250);
TH2D* hb = new TH2D("hb","",nbins,binboundaries,300,0,30);
for(event.toBegin(); !event.atEnd(); ++event){
edm::EventBase const & ev = event;
edm::Handle<edm::GenHIEvent> mc;
ev.getByLabel(edm::InputTag("heavyIon"),mc);
edm::Handle<reco::Centrality> cent;
ev.getByLabel(edm::InputTag("hiCentrality"),cent);
double b = mc->b();
double npart = mc->Npart();
double ncoll = mc->Ncoll();
double nhard = mc->Nhard();
double hf = cent->EtHFhitSum();
double hftp = cent->EtHFtowerSumPlus();
double hftm = cent->EtHFtowerSumMinus();
double eb = cent->EtEBSum();
double eep = cent->EtEESumPlus();
double eem = cent->EtEESumMinus();
double parameter = 0;
if(label.compare("npart") == 0) parameter = npart;
if(label.compare("ncoll") == 0) parameter = ncoll;
if(label.compare("nhard") == 0) parameter = nhard;
if(label.compare("b") == 0) parameter = b;
if(label.compare("hf") == 0) parameter = hf;
if(label.compare("hft") == 0) parameter = hftp + hftm;
if(label.compare("eb") == 0) parameter = eb;
if(label.compare("ee") == 0) parameter = eep+eem;
hNpart->Fill(parameter,npart);
hNcoll->Fill(parameter,ncoll);
hNhard->Fill(parameter,nhard);
hb->Fill(parameter,b);
}
// Fitting Glauber distributions in bins to get mean and sigma values
TF1* fGaus = new TF1("fb","gaus(0)",0,2);
fGaus->SetParameter(0,1);
fGaus->SetParameter(1,0.04);
fGaus->SetParameter(2,0.02);
fitSlices(hNpart,fGaus);
fitSlices(hNcoll,fGaus);
fitSlices(hNhard,fGaus);
fitSlices(hb,fGaus);
/*
hNpart->FitSlicesY();
hNcoll->FitSlicesY();
hNhard->FitSlicesY();
hb->FitSlicesY();
*/
TH1D* hNpartMean = (TH1D*)gDirectory->Get("hNpart_1");
TH1D* hNpartSigma = (TH1D*)gDirectory->Get("hNpart_2");
TH1D* hNcollMean = (TH1D*)gDirectory->Get("hNcoll_1");
TH1D* hNcollSigma = (TH1D*)gDirectory->Get("hNcoll_2");
TH1D* hNhardMean = (TH1D*)gDirectory->Get("hNhard_1");
TH1D* hNhardSigma = (TH1D*)gDirectory->Get("hNhard_2");
TH1D* hbMean = (TH1D*)gDirectory->Get("hb_1");
TH1D* hbSigma = (TH1D*)gDirectory->Get("hb_2");
cout<<"-------------------------------------"<<endl;
cout<<"# Bin NpartMean NpartSigma NcollMean NcollSigma bMean bSigma BinEdge"<<endl;
// Enter values in table
for(int i = 0; i < nbins; ++i){
bins->table_[nbins-i-1].n_part_mean = hNpartMean->GetBinContent(i);
bins->table_[nbins-i-1].n_part_var = hNpartSigma->GetBinContent(i);
bins->table_[nbins-i-1].n_coll_mean = hNcollMean->GetBinContent(i);
bins->table_[nbins-i-1].n_coll_var = hNcollSigma->GetBinContent(i);
bins->table_[nbins-i-1].b_mean = hbMean->GetBinContent(i);
bins->table_[nbins-i-1].b_var = hbSigma->GetBinContent(i);
bins->table_[nbins-i-1].n_hard_mean = hNhardMean->GetBinContent(i);
bins->table_[nbins-i-1].n_hard_var = hNhardSigma->GetBinContent(i);
bins->table_[nbins-i-1].bin_edge = binboundaries[i];
cout<<i<<" "
<<hNpartMean->GetBinContent(i)<<" "
<<hNpartSigma->GetBinContent(i)<<" "
<<hNcollMean->GetBinContent(i)<<" "
<<hNcollSigma->GetBinContent(i)<<" "
<<hbMean->GetBinContent(i)<<" "
<<hbSigma->GetBinContent(i)<<" "
<<binboundaries[i]<<" "
<<endl;
}
cout<<"-------------------------------------"<<endl;
// Save the table in output file
if(onlySaveTable){
TH1D* hh = (TH1D*)gDirectory->Get("hNpart_0");
hh->Delete();
hh = (TH1D*)gDirectory->Get("hNcoll_0");
hh->Delete();
hh = (TH1D*)gDirectory->Get("hNhard_0");
hh->Delete();
hh = (TH1D*)gDirectory->Get("hb_0");
hh->Delete();
hNpart->Delete();
hNpartMean->Delete();
hNpartSigma->Delete();
hNcoll->Delete();
hNcollMean->Delete();
hNcollSigma->Delete();
hNhard->Delete();
hNhardMean->Delete();
hNhardSigma->Delete();
hb->Delete();
hbMean->Delete();
hbSigma->Delete();
}
for(int i = 0; i < runnums.size(); ++i){
CentralityBins* binsForRun = (CentralityBins*) bins->Clone();
binsForRun->SetName(Form("run%d",runnums[i]));
binsForRun->Write();
}
bins->Delete();
outFile->Write();
}
HardRecoil_Manager::HardRecoil_Manager(const char* parameter_filename) {
PParameterReader parm(parameter_filename);
std::cout << "HardRecoil_Manager Initialization" << std::endl;
ptnbins = parm.GetInt("HardRecoil_pTbins");
ptbins = parm.GetVDouble("HardRecoil_pTbins_edges");
zbsetmodel = parm.GetBool("HardRecoil_zbsetmodel", kFALSE);
run3bool = parm.GetBool("Run3");
run4bool = parm.GetBool("Run4");
if (run3bool == run4bool && zbsetmodel) {
std::cout << "ERROR: HardRecoil_Manager can only process Run3 or Run4 at a time. Set only one of the Run3 and Run4 parameters at top of parameters file to true." << std::endl;
exit(0);
}
if(zbsetmodel){
ptnbinsset = parm.GetInt("HardRecoil_pTbinsSET");
ptbinsset = parm.GetVDouble("HardRecoil_pTbinsSET_edges");
luminbins = parm.GetInt("HardRecoil_lumibins");
lumibins = parm.GetVDouble("HardRecoil_lumibins_edges");
dphinbins = parm.GetInt("HardRecoil_dphibins");
dphibins = parm.GetVDouble("HardRecoil_dphibins_edges");
zphirespnbins = parm.GetInt("HardRecoil_zphirespbins");
zphirespbins = parm.GetVDouble("HardRecoil_zphirespbins_edges");
if(run3bool){
zphirespA = parm.GetVDouble("HardRecoil_zphiresp_ParameterA");
zphirespB = parm.GetVDouble("HardRecoil_zphiresp_ParameterB");
zphirespC = parm.GetVDouble("HardRecoil_zphiresp_ParameterC");
zphirespD = parm.GetVDouble("HardRecoil_zphiresp_ParameterD");
zphirespMean = parm.GetVDouble("HardRecoil_zphiresp_Mean");
}else{
zphirespA = parm.GetVDouble("HardRecoil_zphiresp_ParameterA_run4");
zphirespB = parm.GetVDouble("HardRecoil_zphiresp_ParameterB_run4");
zphirespC = parm.GetVDouble("HardRecoil_zphiresp_ParameterC_run4");
zphirespD = parm.GetVDouble("HardRecoil_zphiresp_ParameterD_run4");
zphirespMean = parm.GetVDouble("HardRecoil_zphiresp_Mean_run4");
}
}else{
ptnbinsset = ptnbins;
ptbinsset = ptbins;
}
flipped = false;
if(parm.GetInt("EtFlowFudge")==8){//so don't grab file for old versions of etflow, like option 3
TString etflow_fname(parm.GetChar("EtFlowFile"));
TFile* etflow_binned_file = new TFile(etflow_fname);
etflow_binned3 = (TH1D*) etflow_binned_file->Get("etflow_run2b3");
etflow_binned4 = (TH1D*) etflow_binned_file->Get("etflow_run2b4");
etflow_binned3->SetDirectory(0);
etflow_binned4->SetDirectory(0);
etflow_binned_file->Close();
}
// hard recoil library file
if (getenv("HRLibraryRootPath") == NULL ) {
std::cout << "ERROR: HRLibraryRootPath is not defined" << std::endl;
exit(0);
}
TString hrLibraryRootPath(getenv("HRLibraryRootPath"));
TString model_filename = "";
if(run3bool) model_filename = hrLibraryRootPath + '/' + parm.GetChar("HardRecoil_FileName");
else{
if (zbsetmodel) model_filename = hrLibraryRootPath + '/' + parm.GetChar("HardRecoil_FileName_run4");
else model_filename = hrLibraryRootPath + '/' + parm.GetChar("HardRecoil_FileName"); //backwards compatibility
}
std::cout << model_filename << " will be used for hard recoil model" << std::endl;
TFile* tf = new TFile(model_filename);
for (Int_t j=0; j<ptnbins; j++) {
if(! zbsetmodel){
TH2D* HRHist = (TH2D*) tf->Get(TString::Format("recoil_resp_hist_bin_%d", j));
resp_pdf.push_back(new TH2rclsa(*HRHist));
HRHist->Delete();
resp_pdf[j]->SetDirectory(0);
resp_pdf[j]->ComputeYIntegral();
resp_pdf[j]->ComputeIntegral();
}else{ //we will assign histograms below to be resp_pdf and resp_zbset_pdf later in the code
//dphi model is in true phi bins, other two in true zpt bins (and others)
if(luminbins !=7 || dphinbins !=6) {
std::cout<<"settings for number of lumi or dphi bins is not correct. HardRecoil_Manager code must be altered for other binning."<<std::endl;
exit(0);
}
TH2D* HRHist0 = (TH2D*) tf->Get(TString::Format("recoil_resp_hist_truephi0_bin_%d", j)); //0th
resp_pdf0.push_back(new TH2rclsa(*HRHist0));
HRHist0->Delete();
resp_pdf0[j]->SetDirectory(0);
TH2D* HRHist1 = (TH2D*) tf->Get(TString::Format("recoil_resp_hist_truephi1_bin_%d", j));
resp_pdf1.push_back(new TH2rclsa(*HRHist1));
HRHist1->Delete();
resp_pdf1[j]->SetDirectory(0);
TH2D* HRHist2 = (TH2D*) tf->Get(TString::Format("recoil_resp_hist_truephi2_bin_%d", j));
resp_pdf2.push_back(new TH2rclsa(*HRHist2));
HRHist2->Delete();
resp_pdf2[j]->SetDirectory(0);
TH2D* HRHist3 = (TH2D*) tf->Get(TString::Format("recoil_resp_hist_truephi3_bin_%d", j));
resp_pdf3.push_back(new TH2rclsa(*HRHist3));
HRHist3->Delete();
resp_pdf3[j]->SetDirectory(0);
TH2D* HRHist4 = (TH2D*) tf->Get(TString::Format("recoil_resp_hist_truephi4_bin_%d", j));
resp_pdf4.push_back(new TH2rclsa(*HRHist4));
HRHist4->Delete();
resp_pdf4[j]->SetDirectory(0);
TH2D* HRHist5 = (TH2D*) tf->Get(TString::Format("recoil_resp_hist_truephi5_bin_%d", j));
resp_pdf5.push_back(new TH2rclsa(*HRHist5));
HRHist5->Delete();
resp_pdf5[j]->SetDirectory(0);
TH2D* HRZBHist0 = (TH2D*) tf->Get(TString::Format("recoil_resp_zbset_hist_lumibin0_bin_%d", j));
resp_zbset_pdf0.push_back(new TH2rclsa(*HRZBHist0));
HRZBHist0->Delete();
resp_zbset_pdf0[j]->SetDirectory(0);
TH2D* HRZBHist1 = (TH2D*) tf->Get(TString::Format("recoil_resp_zbset_hist_lumibin1_bin_%d", j));
resp_zbset_pdf1.push_back(new TH2rclsa(*HRZBHist1));
HRZBHist1->Delete();
resp_zbset_pdf1[j]->SetDirectory(0);
TH2D* HRZBHist2 = (TH2D*) tf->Get(TString::Format("recoil_resp_zbset_hist_lumibin2_bin_%d", j));
resp_zbset_pdf2.push_back(new TH2rclsa(*HRZBHist2));
HRZBHist2->Delete();
resp_zbset_pdf2[j]->SetDirectory(0);
TH2D* HRZBHist3 = (TH2D*) tf->Get(TString::Format("recoil_resp_zbset_hist_lumibin3_bin_%d", j));
resp_zbset_pdf3.push_back(new TH2rclsa(*HRZBHist3));
HRZBHist3->Delete();
resp_zbset_pdf3[j]->SetDirectory(0);
TH2D* HRZBHist4 = (TH2D*) tf->Get(TString::Format("recoil_resp_zbset_hist_lumibin4_bin_%d", j));
resp_zbset_pdf4.push_back(new TH2rclsa(*HRZBHist4));
HRZBHist4->Delete();
resp_zbset_pdf4[j]->SetDirectory(0);
TH2D* HRZBHist5 = (TH2D*) tf->Get(TString::Format("recoil_resp_zbset_hist_lumibin5_bin_%d", j));
resp_zbset_pdf5.push_back(new TH2rclsa(*HRZBHist5));
HRZBHist5->Delete();
resp_zbset_pdf5[j]->SetDirectory(0);
TH2D* HRZBHist6 = (TH2D*) tf->Get(TString::Format("recoil_resp_zbset_hist_lumibin6_bin_%d", j));
resp_zbset_pdf6.push_back(new TH2rclsa(*HRZBHist6));
HRZBHist6->Delete();
resp_zbset_pdf6[j]->SetDirectory(0);
}//IF ZBSET MODEL
}//PTBINS
for (Int_t j=0; j<ptnbinsset; j++) {
TH2D* SETHist = (TH2D*) tf->Get(TString::Format("set_ut_hist_bin_%d", j));
set_ut_pdf.push_back(new TH2rclsa(*SETHist));
SETHist->Delete();
set_ut_pdf[j]->SetDirectory(0);
}//PTBINS FOR SET
if(!zbsetmodel){
TH2D* PhiHist = (TH2D*) tf->Get("phi_hist");
phi_pdf = new TH2rclsa(*PhiHist);
phi_pdf->SetDirectory(0);
phi_pdf->ComputeYMaximum();
}
tf->Close();
std::cout << "HardRecoil_Manager initialization: DONE" << std::endl;
}