TProfile* plotIsoPerformance( TFile* ftt,
const char* signal, // histogram name
const char* background, // histogram name
const char* name, // unique name
bool reverse = false, // normally signal near zero bin, reverse means signal is around max bin
double bkg_eff_min = 0,
double bkg_eff_max = 1,
double sig_eff_min = 0,
double sig_eff_max = 0
)
{
TH1F* S = dynamic_cast<TH1F*>(ftt->Get(signal));
if ( ! S ) {
std::cout << "Error: histogram not found " << signal << std::endl;
return 0;
}
TH1F* B = dynamic_cast<TH1F*>(ftt->Get(background));
if ( ! B ) {
std::cout << "Error: histogram not found " << background << std::endl;
return 0;
}
char buf[1024];
sprintf(buf,"c_%s",name);
// TCanvas* c = new TCanvas(buf,buf,500,500);
sprintf(buf,"p_%s",name);
TProfile* p = new TProfile(buf,buf,50,bkg_eff_min,bkg_eff_max,sig_eff_min,sig_eff_max);
p->SetLineColor(kBlue);
p->SetLineWidth(2);
p->SetMarkerStyle(20);
p->SetMarkerSize(1);
p->GetXaxis()->SetTitle("Background Efficiency");
p->GetYaxis()->SetTitle("Signal Efficiency");
p->SetStats(kFALSE);
for( int i=0;i<=S->GetNbinsX()+1; ++i )
if ( reverse )
p->Fill(B->Integral(i,B->GetNbinsX()+1)/B->Integral(0,B->GetNbinsX()+1),
S->Integral(i,S->GetNbinsX()+1)/S->Integral(0,S->GetNbinsX()+1));
else
p->Fill(B->Integral(0,i)/B->Integral(0,B->GetNbinsX()+1),
S->Integral(0,i)/S->Integral(0,S->GetNbinsX()+1));
// p->Draw();
return p;
}
void Fake100PeVShower(int opt)
{
// opt == 0 implies save to root file
// opt == 1 implies plot and save to canvas
TFile* file = NULL;
TCanvas* c = NULL;
if(opt == 0)
file = new TFile("fake100PeVShower.root","recreate");
if(opt == 1)
c = makeCanvas("c");
TString gaus = "1.5e7*TMath::Exp(-(pow(x-10,2)/9))";
TString bump = "5e6*TMath::Exp(-(pow(x-17,2)/20))";
TF1* f = new TF1("f",(gaus+"+"+bump).Data(),0,30);
int nbins = 3000;
float xmin = 0;
float xmax = 30;
TProfile* prof = new TProfile("prof","",nbins,xmin,xmax);
prof->SetStats(0);
prof->SetTitle("");
prof->GetYaxis()->SetTitle("Charge excess / 1e7");
prof->GetXaxis()->SetTitle("z [m]");
float step = xmax / nbins;
for(int i =0; i<nbins; ++i){
float x = step * i;
if(opt == 1 ) prof->Fill(x, f->Eval(x)/1e7);
else prof->Fill(x, f->Eval(x));
}
if(opt == 1){
prof->Draw();
c->SaveAs("JaimeCheck/FakeProfile100PeV.png");
}
if(opt == 0){
file->Write();
file->Close();
}
}
void profile()
{
TCanvas* c1 = new TCanvas("canvas","nhitac",1200,600);
c1->Divide(2,1);
c1->cd(1);
TFile *file1 = new TFile("test_nhitac_modified.root");
//TH1F *histo1 = new TH1F("nhitac1","nhitac1",60,0,300);
TProfile *profile1 = new TProfile("profile","nhitac profile",100,0,100,0,300);
TFile *file2 = new TFile("test_nhitac_unmodified.root");
//TH1F *histo2 = new TH1F("nhitac","nhitac",60,0,300);
TProfile *profile2 = new TProfile("profile2","nhitac profile2",100,0,100,0,300);
TProfile *ratio = new TProfile("ratio","nhitac ratio", 100,0,100,0,2);
//histo2->SetMarkerStyle(31);
TLegend *l1 = new TLegend(0.20, 0.60, 0.3, 0.7);
l1->SetBorderSize(0);
TTree* nhitac_modified = (TTree*)file1->Get("testnhitac");
TTree* nhitac_unmodified = (TTree*)file2->Get("testnhitac");
int testnhitac1, testnhitac2;
nhitac_modified->SetBranchAddress("nhitac",&testnhitac1);
nhitac_unmodified->SetBranchAddress("nhitac",&testnhitac2);
for(int i= 0; i < nhitac_modified->GetEntries(); i++)
{
nhitac_modified->GetEntry(i);
nhitac_unmodified->GetEntry(i);
profile1->Fill(i,testnhitac1);
profile2->Fill(i,testnhitac2);
double temp = testnhitac2;
ratio->Fill(i,testnhitac1/temp);
//histo1->Fill(testnhitac1);
//histo2->Fill(testnhitac2);
}
//histo1->SetMarkerColor(kRed);
//histo1->SetLineColor(kRed);
profile1->SetMarkerColor(kRed);
profile1->SetMarkerStyle(5);
profile2->SetMarkerColor(kBlue);
l1->AddEntry(profile1,"modified od bad channel","P");
l1->AddEntry(profile2,"old od bad channel","l");
l1->SetTextSize(0.04);
profile1->Draw("e1p");
profile1->GetXaxis()->SetTitle("event #");
profile1->GetYaxis()->SetTitle("nhitac");
profile2->Draw("same");
l1->Draw();
c1->cd(2);
ratio->GetXaxis()->SetTitle("event #");
ratio->GetYaxis()->SetTitle("new/old");
//ratio->SetMarkerStyle(5);
//ratio->SetMarkerColor(kRed);
ratio->Draw();
}
// Report cut flow findings to screen
void DileptonAnalyzer::reportCutFlow( TFile & outputFile ) {
// Store in a TProfile
TProfile *cutFlow = new TProfile("cutFlow","Cut flow for final set of analysis cuts",20,0.5,20.5,-9.9e9,9.9e9);
TAxis *cutFlowAxis = cutFlow->GetXaxis();
for ( unsigned int iCut = 0; iCut < cutNamesInOrder_.size(); iCut++ ) {
cutFlow->Fill( iCut+1, cutFlowMap_[cutNamesInOrder_[iCut]]);
cutFlowAxis->SetBinLabel( iCut+1, cutNamesInOrder_[iCut]);
}
outputFile.cd();
cutFlow->Write();
}
//----------------------------------------//
// Get profile from all events mixed
//----------------------------------------//
TProfile* getMixProfile(TFile* file, int nbins,
float xmin, float xmax,
int color, int marker)
{
// Histograms all have same base name
string base = "h_evt";
// String stream easy for manipulation
stringstream ss;
// Create Profile
TProfile* p = new TProfile("mixed","",nbins,xmin,xmax);
p->SetMarkerSize(0.75);
p->SetMarkerStyle(marker);
p->SetMarkerColor(color);
p->SetLineColor(color);
// Now loop over events and get result
TH1F* h = NULL;
for(int i=0; i<m_nEvent; ++i){
ss.str("");
ss << base << i;
h = (TH1F*) file->Get(ss.str().c_str());
// Loop over bin content
for(int bin=1; bin<=h->GetNbinsX(); ++bin){
float content = h->GetBinContent(bin);
float center = h->GetBinCenter(bin);
p->Fill(center, content);
}
h = NULL;
}// end loop events
return p;
}
void AnalysisBase::getTDC(){
TProfile *hb = new TProfile("hb","Cluster Charge vs TDC time",12,0,12,100,1000);
Long64_t nentries = fChain->GetEntriesFast();
float lo = 0, hi = 0;
int istrip;
Long64_t nbytes = 0, nb = 0;
std::cout << "============================================" << std::endl;
std::cout << "getTDC(): Determining Optimal TDC time range" << std::endl;
std::cout << "============================================" << std::endl;
for (Long64_t jentry=0; jentry<max(50000,(int)nentries);jentry++) {
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
for(int j=0; j<min((int)clusterNumberPerEvent,10); j++){
//std::cout << "j: " << ", clustersTDC: " << clustersTDC << ", clustersCharge[j]: " << clustersCharge[j] << ", clustersPosition[j]: " << clustersPosition[j] << std::endl;
istrip = clustersSeedPosition[j];
if(badStrips[istrip]==0) continue; // exclude bad strips
if(clustersPosition[j] < 0.1) continue;
if(polarity*clustersCharge[j] < kClusterChargeMin) continue;
if(clustersPosition[j]>=iLo && clustersPosition[j]<=iHi && clustersTDC>1.0 &&
polarity*clustersCharge[j]>150 && polarity*clustersCharge[j]<500) hb->Fill(clustersTDC+0.1,polarity*clustersCharge[j]);
}
}
getTDCBins(hb,lo,hi);
tdcLo = lo;
tdcHi = hi;
std::cout << "====> TDC Range determined to be from " << tdcLo << " -- " << tdcHi << std::endl;
hb->Draw();
//delete hb;
return;
}
void DileptonAnalyzer::storeSignalEfficiencies( TFile & outputFile ) {
// Store in a TProfile
TProfile *sigEffOne = new TProfile("SignalEfficOneDecay","Signal efficiencies when one exotic decays in this channel",10,0.5,10.5,-9.9e9,9.9e9);
TAxis *sigEffOneAxis = sigEffOne->GetXaxis();
TProfile *sigEffTwo = new TProfile("SignalEfficTwoDecay","Signal efficiencies when two exotic decays in this channel",10,0.5,10.5,-9.9e9,9.9e9);
TAxis *sigEffTwoAxis = sigEffTwo->GetXaxis();
// Fill set of 3 bins in each TProfile for each exotic
for ( int iExotic = 0; iExotic < nSignalParticles_; iExotic++ ) {
TString axisTitle;
sigEffOne->Fill( iExotic*nSignalParticles_+1, numEvents_oneSensitiveDecay_[iExotic] );
axisTitle.Form("Number of events coming into macro for exotic %d",signalPdgId_[iExotic]);
sigEffOneAxis->SetBinLabel( iExotic*nSignalParticles_+1, axisTitle.Data());
sigEffOne->Fill( iExotic*nSignalParticles_+2, numExoticsRECO_oneSensitiveDecay_[iExotic] );
axisTitle.Form("Number of candidates RECO'd for exotic %d",signalPdgId_[iExotic]);
sigEffOneAxis->SetBinLabel( iExotic*nSignalParticles_+2, axisTitle.Data());
sigEffOne->Fill( iExotic*nSignalParticles_+3, numExoticsCorrectRECO_oneSensitiveDecay_[iExotic] );
axisTitle.Form("Number of exotics correctly RECO'd for exotic %d",signalPdgId_[iExotic]);
sigEffOneAxis->SetBinLabel( iExotic*nSignalParticles_+3, axisTitle.Data());
sigEffTwo->Fill( iExotic*nSignalParticles_+1, numEvents_twoSensitiveDecay_[iExotic] );
axisTitle.Form("Number of events coming into macro for exotic %d",signalPdgId_[iExotic]);
sigEffTwoAxis->SetBinLabel( iExotic*nSignalParticles_+1, axisTitle.Data());
sigEffTwo->Fill( iExotic*nSignalParticles_+2, numExoticsRECO_twoSensitiveDecay_[iExotic] );
axisTitle.Form("Number of candidates RECO'd for exotic %d",signalPdgId_[iExotic]);
sigEffTwoAxis->SetBinLabel( iExotic*nSignalParticles_+2, axisTitle.Data());
sigEffTwo->Fill( iExotic*nSignalParticles_+3, numExoticsCorrectRECO_twoSensitiveDecay_[iExotic] );
axisTitle.Form("Number of exotics correctly RECO'd for exotic %d",signalPdgId_[iExotic]);
sigEffTwoAxis->SetBinLabel( iExotic*nSignalParticles_+3, axisTitle.Data());
}
outputFile.cd();
sigEffOne->Write();
sigEffTwo->Write();
}
void RunPidGetterQAEff()
{
TString PidFrameworkDir = "/lustre/nyx/cbm/users/klochkov/soft/PidFramework/";
gSystem->Load( PidFrameworkDir + "build/libPid");
gStyle->SetOptStat(0000);
TFile *f2 = new TFile("pid_0.root");
TTree *PidTree = (TTree*) f2->Get("PidTree");
TofPidGetter *getter = new TofPidGetter();
TBranch *PidGet = PidTree->GetBranch("TofPidGetter");
PidGet->SetAddress(&getter);
PidGet->GetEntry(0);
Float_t ret[3];
TProfile *hEffP = new TProfile ("hEffP", "", 100, 0, 10);
TProfile *hEffPi = new TProfile ("hEffPi", "", 100, 0, 6);
TProfile *hEffK = new TProfile ("hEffK", "", 100, 0, 5);
TProfile *hEffPSigma = new TProfile ("hEffPSigma", "", 100, 0, 10);
TProfile *hEffPiSigma = new TProfile ("hEffPiSigma", "", 100, 0, 6);
TProfile *hEffKSigma = new TProfile ("hEffKSigma", "", 100, 0, 5);
TProfile2D *hEffPtYP = new TProfile2D ("hEffPtYP", "", 100, -2.5, 2.5, 100, 0, 4);
TProfile2D *hEffPtYK = new TProfile2D ("hEffPtYK", "", 100, -2.5, 2.5, 100, 0, 4);
TProfile2D *hEffPtYPi = new TProfile2D ("hEffPtYPi", "", 100, -2.5, 2.5, 100, 0, 4);
TString InTreeFileName = "/lustre/nyx/cbm/users/dblau/cbm/mc/UrQMD/AuAu/10AGeV/sis100_electron/SC_ON/2016_09_01/tree/11111.root";
TFile *InFile = new TFile(InTreeFileName);
TTree *InTree = (TTree*) InFile->Get("fDataTree");
DataTreeEvent* DTEvent;
InTree -> SetBranchAddress("DTEvent",&DTEvent);
int nevents = 100000;//InTree->GetEntries();
int outputstep = 100;
std::cout << "Entries = " << nevents << std::endl;
for (int j=0;j<nevents;j++)
{
if ( (j+1) % outputstep == 0) std::cout << j+1 << "/" << nevents << "\r" << std::flush;
InTree->GetEntry(j);
Int_t Nmc[3] = {100,100,100};
Int_t Ntof[3] = {0,0,0};
Int_t PdgCode[3] = {2212, 212, 211};
Double_t sigmas [3] = {0,0,0};
for (int i=0;i<DTEvent->GetNTracks(); i++)
{
TLorentzVector v;
DataTreeTrack* track = DTEvent -> GetTrack(i);
DataTreeMCTrack* mctrack = DTEvent -> GetMCTrack(i);
Double_t p = mctrack->GetPt() * TMath::CosH( mctrack->GetEta() );
if (track->GetTOFHitId() < 0)
{
if (mctrack->GetPdgId() == 2212 )
{
v.SetPtEtaPhiM (track->GetPt(0), track->GetEta(0), track->GetPhi(0), 0.9386);
hEffP->Fill ( p, 0 );
hEffPSigma->Fill ( p, 0 );
hEffPtYP -> Fill( v.Rapidity() - 1.52, v.Pt(), 0 );
}
if (mctrack->GetPdgId() == 321 )
{
v.SetPtEtaPhiM (track->GetPt(0), track->GetEta(0), track->GetPhi(0), 0.5);
hEffK->Fill ( p, 0 );
hEffKSigma->Fill ( p, 0 );
hEffPtYK -> Fill( v.Rapidity() - 1.52, v.Pt(), 0 );
}
if (mctrack->GetPdgId() == 211 )
{
v.SetPtEtaPhiM (track->GetPt(0), track->GetEta(0), track->GetPhi(0), 0.14);
hEffPi->Fill ( p, 0 );
hEffPiSigma->Fill ( p, 0);
hEffPtYPi -> Fill( v.Rapidity() - 1.52, v.Pt(), 0 );
}
continue;
}
//
DataTreeTOFHit* toftrack = DTEvent -> GetTOFHit(track->GetTOFHitId());
p = toftrack->GetP();
Double_t m2 = toftrack->GetMass2 ();
Bool_t cut = toftrack->GetBeta() > 0.1 && ( track->GetChiSq(0)/track->GetNDF(0) < 3 ) && p > 1.0 ;
if ( !cut ) continue;
getter->GetBayesProbability (m2, p, ret);
sigmas[0] = getter->GetSigmaProton (m2, p);
sigmas[1] = getter->GetSigmaKaon (m2, p);
sigmas[2] = getter->GetSigmaPion (m2, p);
// std::cout << "pdg = " << mctrack->GetPdgId() << " p = " << p << " Sp = " << sigmas[0] << " Sk = " << sigmas[1]<< " Spi = " << sigmas[2] << std::endl;
if (mctrack->GetPdgId() == 2212 )
{
v.SetPtEtaPhiM (track->GetPt(0), track->GetEta(0), track->GetPhi(0), 0.9386);
hEffP->Fill ( p, ret[0] > 0.9 );
hEffPSigma->Fill ( p, sigmas[0] < 3&& sigmas[1] > 2 && sigmas[2] > 2 );
hEffPtYP -> Fill( v.Rapidity() - 1.52, v.Pt(), ret[0] > 0.9 );
}
if (mctrack->GetPdgId() == 321 )
{
v.SetPtEtaPhiM (track->GetPt(0), track->GetEta(0), track->GetPhi(0), 0.5);
hEffK->Fill ( p, ret[1] > 0.9 );
hEffKSigma->Fill ( p, sigmas[1] < 3&& sigmas[2] > 2 && sigmas[0] > 2 );
hEffPtYK -> Fill( v.Rapidity() - 1.52, v.Pt(), ret[1] > 0.9 );
}
if (mctrack->GetPdgId() == 211 )
{
v.SetPtEtaPhiM (track->GetPt(0), track->GetEta(0), track->GetPhi(0), 0.14);
hEffPi->Fill ( p, ret[2] > 0.9 );
hEffPiSigma->Fill ( p, sigmas[2] < 3&& sigmas[0] > 2 && sigmas[1] > 2 );
hEffPtYPi -> Fill( v.Rapidity() - 1.52, v.Pt(), ret[2] > 0.9 );
}
}
}
hEffP -> SetMarkerStyle(21); hEffP -> SetMarkerColor(kRed); hEffP -> SetLineColor(kRed);
hEffPi -> SetMarkerStyle(21); hEffPi -> SetMarkerColor(kRed); hEffPi -> SetLineColor(kRed);
hEffK -> SetMarkerStyle(21); hEffK -> SetMarkerColor(kRed); hEffK -> SetLineColor(kRed);
hEffPSigma -> SetMarkerStyle(22); hEffPSigma -> SetMarkerColor(kBlue); hEffPSigma -> SetLineColor(kBlue);
hEffPiSigma -> SetMarkerStyle(22); hEffPiSigma -> SetMarkerColor(kBlue); hEffPiSigma -> SetLineColor(kBlue);
hEffKSigma -> SetMarkerStyle(22); hEffKSigma -> SetMarkerColor(kBlue); hEffKSigma -> SetLineColor(kBlue);
hEffP->GetXaxis()->SetTitle( "p, GeV/c" );
hEffP->GetYaxis()->SetTitle( "Efficiency" );
hEffP->GetYaxis()->SetRangeUser(0.0, 1.);
hEffK->GetXaxis()->SetTitle( "p, GeV/c" );
hEffK->GetYaxis()->SetTitle( "Efficiency" );
hEffK->GetYaxis()->SetRangeUser(0.0, 1.);
hEffPi->GetXaxis()->SetTitle( "p, GeV/c" );
hEffPi->GetYaxis()->SetTitle( "Efficiency" );
hEffPi->GetYaxis()->SetRangeUser(0.0, 1.);
hEffPtYP->GetYaxis()->SetTitle( "p_{T}, GeV/c" );
hEffPtYP->GetXaxis()->SetTitle( "Rapidity" );
hEffPtYK->GetYaxis()->SetTitle( "p_{T}, GeV/c" );
hEffPtYK->GetXaxis()->SetTitle( "Rapidity" );
hEffPtYPi->GetYaxis()->SetTitle( "p_{T}, GeV/c" );
hEffPtYPi->GetXaxis()->SetTitle( "Rapidity" );
TCanvas *c1 = new TCanvas ("c1", "c1", 1400, 700);
c1->Divide(3,1);
c1->cd(1);
hEffP->Draw();
hEffPSigma->Draw("same");
c1->cd(2);
hEffK->Draw();
hEffKSigma->Draw("same");
c1->cd(3);
hEffPi->Draw();
hEffPiSigma->Draw("same");
// c1->cd(4);
// getter->GetProtonSigma()->Draw();
// getter->GetKaonSigma()->Draw("same");
// getter->GetPionSigma()->Draw("same");
//
// c1->cd(5);
// getter->GetProtonA()->Draw();
// getter->GetKaonA()->Draw("same");
// getter->GetPionA()->Draw("same");
//
// c1->cd(6);
// getter->GetProtonM2()->Draw();
// getter->GetKaonM2()->Draw("same");
// getter->GetPionM2()->Draw("same");
TCanvas *c2 = new TCanvas ("c2", "c2", 1400, 700);
c2->Divide(3,1);
c2->cd(1);
hEffPtYP->Draw("colz");
c2->cd(2);
hEffPtYK->Draw("colz");
c2->cd(3);
hEffPtYPi->Draw("colz");
c1->SaveAs("Canvas_Eff_p_all.root");
c1->SaveAs("Canvas_Eff_p_all.C");
c1->SaveAs("Canvas_Eff_p_all.png");
c2->SaveAs("Canvas_Eff_pT_Y_all.root");
c2->SaveAs("Canvas_Eff_pT_Y_all.C");
c2->SaveAs("Canvas_Eff_pT_Y_all.png");
}
void calibrateEM()
{
// FIXME: There are two possibilities to execute the script:
// i) root run_hadron_g4.C
// root[] .L calibrateEM.C
// root[] calibrateEM()
// or ii) Include the basics from run_hadron_g4.C here and
// execute simply:
// root calibrateEM.C
// Load basic libraries
// Load basic libraries
gROOT->LoadMacro("/opt/geant4_vmc.2.15a/examples/macro/basiclibs.C");
basiclibs();
// Load Geant4 libraries
gROOT->LoadMacro("/opt/geant4_vmc.2.15a/examples/macro/g4libs.C");
g4libs();
// Load the tutorial application library
gSystem->Load("libTutorialApplication");
// MC application
TutorialApplication* app
= new TutorialApplication("TutorialApplication",
"Tutorial Application for HEP Lecture @EKP");
// configure Geant4
gROOT->LoadMacro("g4Config.C");
Config();
// instantiate graphical user interface for tutorial application
new TutorialMainFrame(app);
//FIXME: Load "CountChargedinScint.C"
gROOT->ProcessLine(".L CountChargedinScint.C");
//FIXME: Initialize the geometry
app->InitMC("geometry/calor(1,0.2)");
//FIXME: Set the primary particle to photon
app->SetPrimaryPDG(22);
// Profile histogram - will show us the mean numbers of counts in bins of the energy.
// The given binning refers to the energy, the other binning will be inferred automatically.
TProfile* hcounts = new TProfile("hcounts","Counts per particle energy",
10,0,10);
hcounts->SetXTitle("energy [GeV]");
hcounts->SetYTitle("mean number of counts");
// FIXME loop over different particle momenta, and for each momentum simulate several events (e.g. 10)
for(Int_t i = 0 ; i < 10 ; ++i) {
for(Int_t k = 0 ; k < 10; k ++) {
//FIXME: Set the momentum of the primary particle to p
Double_t p = i;
app->SetPrimaryMomentum(p);
//FIXME: Run the simulation
app->RunMC();
//FIXME: Fill both the momentum and the output from CountChargedinScint
// into the profile histogram hcounts
Double_t x = CountChargedinScint();
hcounts->Fill(p,x);
}
}
TCanvas* c = new TCanvas();
c->cd();
hcounts->Draw();
TF1 *fitter = new TF1("fitf","[0]*x", 0,10);
fitter->SetParameter(0,1.0);
fitter->SetParNames("calibration factor");
//FIXME: Fit the histogram to get the calibration factor
hcounts->Fit("fitf");
}
int main (int argc, char* argv[])
{
int EEradStart = 15 ;
int EEradEnd = 50 ;
int EEphiStart = 0 ;
int EEphiEnd = 360 ;
std::string filename = "coeffcompareEE.root" ;
// std::string NameDBOracle1 = "oracle://cms_orcoff_int2r/CMS_COND_ECAL";
// std::string TagDBOracle1 = "EcalIntercalibConstants_startup_csa08_mc";
//
// std::string NameDBOracle2 = "oracle://cms_orcoff_int2r/CMS_COND_ECAL";
// std::string TagDBOracle2 = "EcalIntercalibConstants_inv_startup_csa08_mc";
std::string NameDBOracle1 = "oracle://cms_orcoff_prod/CMS_COND_20X_ECAL";
std::string TagDBOracle1 = "EcalIntercalibConstants_phi_Zee_csa08_s156_mc";
std::string NameDBOracle2 = "oracle://cms_orcoff_prod/CMS_COND_20X_ECAL";
std::string TagDBOracle2 = "EcalIntercalibConstants_startup_csa08_mc";
//---- location of the xml file ----
std::string calibFile = "/afs/cern.ch/user/a/amassiro/scratch0/CMSSW_2_1_2/src/CalibCalorimetry/CaloMiscalibTools/data/miscalib_endcap_startup_csa08.xml";
if (argc == 1) {
std::cout << "Help:"<<std::endl;
std::cout << " 0-> Help"<< std::endl;
std::cout << " 1-> Name of 1st Database. e.g. oracle://cms_orcoff_int2r/CMS_COND_ECAL"<< std::endl;
std::cout << " 2-> Name of 1st Database Tag. e.g. EcalIntercalibConstants_startup_csa08_mc"<< std::endl;
std::cout << " 3-> Location of the xml file, e.g. /afs/cern.ch/user/.../CMSSW_2_1_2/src/CalibCalorimetry/CaloMiscalibTools/data/miscalib_endcap_startup_csa08.xml. Make sure it is on your afs."<< std::endl;
std::cout << " 4-> Name of 2nd Database. e.g. oracle://cms_orcoff_int2r/CMS_COND_ECAL"<< std::endl;
std::cout << " 5-> Name of 2nd Database Tag. e.g. EcalIntercalibConstants_startup_csa08_mc"<< std::endl;
std::cout << " 6-> EEradStart"<< std::endl;
std::cout << " 7-> EEradEnd"<< std::endl;
std::cout << " 8-> EEphiStart"<< std::endl;
std::cout << " 9-> EEphiEnd"<< std::endl;
std::cout << " 10-> filename output"<< std::endl;
std::cout << std::endl << std::endl << "Now working with default values" << std::endl;
}
if (argc == 2) {
//---- Help option ----
std::string testName = "--help";
std::string testNameLoad = argv[1];
if (argv[1] == testName){
std::cout << "Help:"<<std::endl;
std::cout << " 0-> Help. --help option"<< std::endl;
std::cout << " 1-> Name of 1st Database. e.g. oracle://cms_orcoff_int2r/CMS_COND_ECAL"<< std::endl;
std::cout << " 2-> Name of 1st Database Tag. e.g. EcalIntercalibConstants_startup_csa08_mc"<< std::endl;
std::cout << " 3-> Location of the xml file, e.g. /afs/cern.ch/user/.../CMSSW_2_1_2/src/CalibCalorimetry/CaloMiscalibTools/data/miscalib_endcap_startup_csa08.xml. Make sure it is on your afs."<< std::endl;
std::cout << " 4-> Name of 2nd Database. e.g. oracle://cms_orcoff_int2r/CMS_COND_ECAL"<< std::endl;
std::cout << " 5-> Name of 2nd Database Tag. e.g. EcalIntercalibConstants_startup_csa08_mc"<< std::endl;
std::cout << " 6-> EEradStart"<< std::endl;
std::cout << " 7-> EEradEnd"<< std::endl;
std::cout << " 8-> EEphiStart"<< std::endl;
std::cout << " 9-> EEphiEnd"<< std::endl;
std::cout << " 10-> filename output"<< std::endl;
exit (1);
}
}
if (argc > 1){
NameDBOracle1 = argv[1];
TagDBOracle1 = argv[2];
std::cout << "NameDBOracle1 = " << NameDBOracle1 << std::endl;
std::cout << "TagDBOracle1 = " << TagDBOracle1 << std::endl;
if (argc > 3){
calibFile = argv[3];
std::cout << "calibFile = " << calibFile << std::endl;
if (argc > 4){
NameDBOracle2 = argv[4];
TagDBOracle2 = argv[5];
std::cout << "NameDBOracle2 = " << NameDBOracle2 << std::endl;
std::cout << "TagDBOracle2 = " << TagDBOracle2 << std::endl;
}
}
}
if (argc > 6)
{
if (argc < 10)
{
std::cerr << "Too few (or too many) arguments passed" << std::endl ;
exit (1) ;
}
EEradStart = atoi (argv[6]) ;
EEradEnd = atoi (argv[7]) ;
EEphiStart = atoi (argv[8]) ;
EEphiEnd = atoi (argv[9]) ;
}
if (argc == 11) filename = argv[10] ;
//---- export of the DB from oracle to sqlite db ----
std::string Command2LineStr1 = "cmscond_export_iov -s " + NameDBOracle1 + " -d sqlite_file:Uno.db -D CondFormatsEcalObjects -t " + TagDBOracle1 + " -P /afs/cern.ch/cms/DB/conddb/";
std::string Command2LineStr2 = "cmscond_export_iov -s " + NameDBOracle2 + " -d sqlite_file:Due.db -D CondFormatsEcalObjects -t " + TagDBOracle2 + " -P /afs/cern.ch/cms/DB/conddb/";
gSystem->Exec(Command2LineStr1.c_str());
//---- now the second set analysed through xml file ----
gSystem->Exec(Command2LineStr2.c_str());
std::string NameDB;
std::string FileData;
//----------------------------------
//---- First Database Analyzed -----
//----------------------------------
NameDB = "sqlite_file:Uno.db";
FileData = TagDBOracle1;
CondIter<EcalIntercalibConstants> Iterator1;
Iterator1.create(NameDB,FileData);
//-----------------------------------
//---- Second Database Analyzed -----
//-----------------------------------
NameDB = "sqlite_file:Due.db";
FileData = TagDBOracle2;
CondIter<EcalIntercalibConstants> Iterator2;
Iterator2.create(NameDB,FileData);
//---------------------------------------------------------------------
//-------------------------------------------------
//---- Ottengo Mappe da entrambi gli Iterators ----
//-------------------------------------------------
const EcalIntercalibConstants* EEconstants1;
EEconstants1 = Iterator1.next();
EcalIntercalibConstantMap iEEcalibMap = EEconstants1->getMap () ;
const EcalIntercalibConstants* EEconstants2;
EEconstants2 = Iterator2.next();
EcalIntercalibConstantMap iEEscalibMap = EEconstants2->getMap () ;
//---- load form xml file ----
//---- name of the xml file defined at the beginning ----
// CaloMiscalibMapEcal EEscalibMap ;
// EEscalibMap.prefillMap () ;
// MiscalibReaderFromXMLEcalEndcap endcapreader (EEscalibMap) ;
// if (!calibFile.empty ()) endcapreader.parseXMLMiscalibFile (calibFile) ;
// EcalIntercalibConstants* EEconstants = new EcalIntercalibConstants (EEscalibMap.get ()) ;
// EcalIntercalibConstantMap iEEscalibMap = EEconstants->getMap () ; //MF prende i vecchi coeff
//---- Xml way ----
// CaloMiscalibMapEcal EEscalibMap ;
// EEscalibMap.prefillMap () ;
// MiscalibReaderFromXMLEcalEndcap endcapreader (EEscalibMap) ;
// if (!endcapfile.empty ()) endcapreader.parseXMLMiscalibFile (endcapfile) ;
// EcalIntercalibConstants* EEconstants =
// new EcalIntercalibConstants (EEscalibMap.get ()) ;
// EcalIntercalibConstantMap iEEscalibMap = EEconstants->getMap () ; //MF prende i vecchi coeff
//
// //PG get the recalibration files for EB and EE
// //PG -----------------------------------------
//
// CaloMiscalibMapEcal EEcalibMap ;
// EEcalibMap.prefillMap () ;
// MiscalibReaderFromXMLEcalEndcap calibEndcapreader (EEcalibMap) ;
// if (!calibEndcapfile.empty ()) calibEndcapreader.parseXMLMiscalibFile (calibEndcapfile) ;
// EcalIntercalibConstants* EECconstants =
// new EcalIntercalibConstants (EEcalibMap.get ()) ;
// EcalIntercalibConstantMap iEEcalibMap = EECconstants->getMap () ; //MF prende i vecchi coeff
//PG fill the histograms
//PG -------------------
TH1F EEPCompareCoeffDistr ("EEPCompareCoeffDistr","EEPCompareCoeffDistr",5000,0,2) ;
TH2F EEPCompareCoeffMap ("EEPCompareCoeffMap","EEPCompareCoeffMap",101,0,101,101,0,101) ;
TH2F EEPCompareCoeffEtaTrend ("EEPCompareCoeffEtaTrend",
"EEPCompareCoeffEtaTrend",
51,0,50,500,0,2) ;
TProfile EEPCompareCoeffEtaProfile ("EEPCompareCoeffEtaProfile",
"EEPCompareCoeffEtaProfile",
51,0,50,0,2) ;
TH1F EEPCompareCoeffDistr_R1 ("EEPCompareCoeff_R1","EEPCompareCoeff_R1",1000,0,2) ;
TH1F EEPCompareCoeffDistr_R2 ("EEPCompareCoeff_R2","EEPCompareCoeff_R2",1000,0,2) ;
TH1F EEPCompareCoeffDistr_R3 ("EEPCompareCoeff_R3","EEPCompareCoeff_R3",1000,0,2) ;
TH1F EEPCompareCoeffDistr_R4 ("EEPCompareCoeff_R4","EEPCompareCoeff_R4",1000,0,2) ;
TH1F EEPCompareCoeffDistr_R5 ("EEPCompareCoeff_R5","EEPCompareCoeff_R5",1000,0,2) ;
// ECAL endcap +
for (int ix = 1 ; ix <= 100 ; ++ix)
for (int iy = 1 ; iy <= 100 ; ++iy)
{
int rad = static_cast<int> (sqrt ((ix - 50) * (ix - 50) +
(iy - 50) * (iy - 50))) ;
if (rad < EEradStart || rad > EEradEnd) continue ;
double phiTemp = atan2 (iy - 50, ix - 50) ;
if (phiTemp < 0) phiTemp += 2 * PI_GRECO ;
int phi = static_cast<int> ( phiTemp * 180 / PI_GRECO) ;
if (phi < EEphiStart || phi > EEphiEnd) continue ;
if (!EEDetId::validDetId (ix,iy,1)) continue ;
EEDetId det = EEDetId (ix, iy, 1, EEDetId::XYMODE) ;
double factor = *(iEEcalibMap.find (det.rawId ())) /
*(iEEscalibMap.find (det.rawId ())) ;
// std::cout << " iEEcalibMap rad = " << rad << " --> " << *(iEEcalibMap.find (det.rawId ()));
// std::cout << " iEEscalibMap --> " << *(iEEscalibMap.find (det.rawId ())) << std::endl;
EEPCompareCoeffDistr.Fill (factor) ;
EEPCompareCoeffMap.Fill (ix,iy,factor) ;
EEPCompareCoeffEtaTrend.Fill (rad,factor) ;
EEPCompareCoeffEtaProfile.Fill (rad,factor) ;
if (abs(rad) < 22) continue ;
else if (abs(rad) < 27) EEPCompareCoeffDistr_R1.Fill (factor) ;
else if (abs(rad) < 32) EEPCompareCoeffDistr_R2.Fill (factor) ;
else if (abs(rad) < 37) EEPCompareCoeffDistr_R3.Fill (factor) ;
else if (abs(rad) < 42) EEPCompareCoeffDistr_R4.Fill (factor) ;
else EEPCompareCoeffDistr_R5.Fill (factor) ;
} // ECAL endcap +
// ECAL endcap-
TH1F EEMCompareCoeffDistr ("EEMCompareCoeffDistr","EEMCompareCoeffDistr",200,0,2) ;
TH2F EEMCompareCoeffMap ("EEMCompareCoeffMap","EEMCompareCoeffMap",100,0,100,100,0,100) ;
TH2F EEMCompareCoeffEtaTrend ("EEMCompareCoeffEtaTrend",
"EEMCompareCoeffEtaTrend",
51,0,50,500,0,2) ;
TProfile EEMCompareCoeffEtaProfile ("EEMCompareCoeffEtaProfile",
"EEMCompareCoeffEtaProfile",
51,0,50,0,2) ;
// ECAL endcap -
for (int ix = 1 ; ix <= 100 ; ++ix)
for (int iy = 1 ; iy <= 100 ; ++iy)
{
int rad = static_cast<int> (sqrt ((ix - 50) * (ix - 50) +
(iy - 50) * (iy - 50))) ;
if (rad < EEradStart || rad > EEradEnd) continue ;
double phiTemp = atan2 (iy - 50, ix - 50) ;
if (phiTemp < 0) phiTemp += 2 * PI_GRECO ;
if (!EEDetId::validDetId (ix,iy,-1)) continue ;
EEDetId det = EEDetId (ix, iy, -1, EEDetId::XYMODE) ;
double factor = *(iEEcalibMap.find (det.rawId ())) *
*(iEEscalibMap.find (det.rawId ())) ;
EEMCompareCoeffDistr.Fill (factor) ;
EEMCompareCoeffMap.Fill (ix,iy,factor) ;
EEMCompareCoeffEtaTrend.Fill (rad,factor) ;
EEMCompareCoeffEtaProfile.Fill (rad,factor) ;
} // ECAL endcap -
TFile out (filename.c_str (),"recreate") ;
EEMCompareCoeffMap.Write() ;
EEMCompareCoeffDistr.Write() ;
EEMCompareCoeffEtaTrend.Write () ;
EEMCompareCoeffEtaProfile.Write () ;
EEPCompareCoeffMap.Write() ;
EEPCompareCoeffDistr.Write() ;
EEPCompareCoeffEtaTrend.Write () ;
EEPCompareCoeffEtaProfile.Write () ;
EEPCompareCoeffDistr_R1.Write () ;
EEPCompareCoeffDistr_R2.Write () ;
EEPCompareCoeffDistr_R3.Write () ;
EEPCompareCoeffDistr_R4.Write () ;
EEPCompareCoeffDistr_R5.Write () ;
out.Close() ;
//---- remove local database ----
gSystem->Exec("rm Uno.db");
gSystem->Exec("rm Due.db");
}
Float_t doCoinc(const char *fileIn="coincCERN_0102n.root",TCanvas *cout=NULL,Float_t &rate,Float_t &rateErr){
// Print settings
printf("SETTINGS\nAnalyze output from new Analyzer\n");
printf("Input file = %s\n",fileIn);
printf("School distance = %f m, angle = %f deg\n",distance,angle);
printf("School orientation: tel1=%f deg, tel2=%f deg\n",phi1Corr,phi2Corr);
printf("Max Chi2 = %f\n",maxchisquare);
printf("Theta Rel Range = %f - %f deg\n",minthetarel,maxthetarel);
printf("Range for N sattellite in each run = (tel1) %f - %f, (tel2) %f - %f \n",minAvSat[0],maxAvSat[0],minAvSat[1],maxAvSat[1]);
printf("Min N satellite in a single event = %i\n",satEventThr);
Int_t adayMin = (yearRange[0]-2014) * 1000 + monthRange[0]*50 + dayRange[0];
Int_t adayMax = (yearRange[1]-2014) * 1000 + monthRange[1]*50 + dayRange[1];
Float_t nsigPeak=0;
Float_t nbackPeak=0;
angle *= TMath::DegToRad();
// define some histos
TH1F *hDeltaTheta = new TH1F("hDeltaTheta","#Delta#theta below the peak (500 ns);#Delta#theta (#circ)",100,-60,60);
TH1F *hDeltaPhi = new TH1F("hDeltaPhi","#Delta#phi below the peak (500 ns);#Delta#phi (#circ)",200,-360,360);
TH1F *hDeltaThetaBack = new TH1F("hDeltaThetaBack","#Delta#theta out of the peak (> 1000 ns) - normalized;#Delta#theta (#circ)",100,-60,60);
TH1F *hDeltaPhiBack = new TH1F("hDeltaPhiBack","#Delta#phi out of the peak (> 1000 ns) - normalized;#Delta#phi (#circ)",200,-360,360);
TH1F *hThetaRel = new TH1F("hThetaRel","#theta_{rel} below the peak (500 ns);#theta_{rel} (#circ)",100,0,120);
TH1F *hThetaRelBack = new TH1F("hThetaRelBack","#theta_{rel} out of the peak (> 1000 ns) - normalized;#theta_{rel} (#circ)",100,0,120);
TH2F *hAngle = new TH2F("hAngle",";#Delta#theta (#circ);#Delta#phi (#circ}",20,-60,60,20,-360,360);
TH2F *hAngleBack = new TH2F("hAngleBack",";#Delta#theta (#circ);#Delta#phi (#circ}",20,-60,60,20,-360,360);
TProfile *hModulation = new TProfile("hModulation","#theta^{rel} < 10#circ;#phi - #alpha;dist (m)",50,0,360);
TProfile *hModulation2 = new TProfile("hModulation2","#theta^{rel} < 10#circ;#phi - #alpha;dist (m)",50,0,360);
TProfile *hModulationAv = new TProfile("hModulationAv","#theta^{rel} < 10#circ;#phi - #alpha;dist (m)",50,0,360);
TProfile *hModulationAvCorr = new TProfile("hModulationAvCorr","#theta^{rel} < 10#circ;#phi - #alpha;diff (ns)",50,0,360);
TH1F *hnsigpeak = new TH1F("hnsigpeak","",50,0,360);
TH1F *hnbackpeak = new TH1F("hnbackpeak","",50,0,360);
TProfile *hSinTheta = new TProfile("hSinTheta",";#phi - #alpha;sin(#theta)",50,0,360);
TProfile *hSinTheta2 = new TProfile("hSinTheta2",";#phi - #alpha;sin(#theta)",50,0,360);
TH1F *hRunCut[2];
hRunCut[0] = new TH1F("hRunCut1","Reason for Run Rejection Tel-1;Reason;runs rejected",11,0,11);
hRunCut[1] = new TH1F("hRunCut2","Reason for Run Rejection Tel-2;Reason;runs rejected",11,0,11);
for(Int_t i=0;i<2;i++){
hRunCut[i]->Fill("DateRange",0);
hRunCut[i]->Fill("LowFractionGT",0);
hRunCut[i]->Fill("TimeDuration",0);
hRunCut[i]->Fill("rateGT",0);
hRunCut[i]->Fill("RunNumber",0);
hRunCut[i]->Fill("MissingHitFrac",0);
hRunCut[i]->Fill("DeadStripBot",0);
hRunCut[i]->Fill("DeadStripMid",0);
hRunCut[i]->Fill("DeadStripTop",0);
hRunCut[i]->Fill("NSatellites",0);
hRunCut[i]->Fill("NoGoodWeather",0);
}
TFile *f = new TFile(fileIn);
TTree *t = (TTree *) f->Get("tree");
TTree *tel[2];
tel[0] = (TTree *) f->Get("treeTel1");
tel[1] = (TTree *) f->Get("treeTel2");
TTree *telC = (TTree *) f->Get("treeTimeCommon");
// quality info of runs
const Int_t nyearmax = 5;
Bool_t runstatus[2][nyearmax][12][31][500]; //#telescope, year-2014, month, day, run
Float_t effTel[2][nyearmax][12][31][500];
Int_t nStripDeadBot[2][nyearmax][12][31][500];
Int_t nStripDeadMid[2][nyearmax][12][31][500];
Int_t nStripDeadTop[2][nyearmax][12][31][500];
Float_t nstripDeadB[2]={0,0},nstripDeadM[2]={0,0},nstripDeadT[2]={0,0};
// sat info
Float_t NsatAv[2][nyearmax][12][31][500];
// weather info
Float_t pressureTel[2][nyearmax][12][31][500];
Float_t TempInTel[2][nyearmax][12][31][500];
Float_t TempOutTel[2][nyearmax][12][31][500];
Float_t timeWeath[2][nyearmax][12][31][500];
Float_t rateGT;
Float_t phirelative;
Float_t phirelative2;
Float_t phirelativeAv;
printf("Check Run quality\n");
if(tel[0] && tel[1]){
for(Int_t i=0;i < 2;i++){ // loop on telescopes
printf("Tel-%i\n",i+1);
for(Int_t j=0;j < tel[i]->GetEntries();j++){ // loop on runs
tel[i]->GetEvent(j);
rateGT = tel[i]->GetLeaf("FractionGoodTrack")->GetValue()*tel[i]->GetLeaf("rateHitPerRun")->GetValue();
Int_t aday = (tel[i]->GetLeaf("year")->GetValue()-2014) * 1000 + tel[i]->GetLeaf("month")->GetValue()*50 + tel[i]->GetLeaf("day")->GetValue();
if(i==1) printf("%f %f\n",rateGT , rateMin[i]);
if(aday < adayMin || aday > adayMax){
hRunCut[i]->Fill("DateRange",1); continue;}
if(tel[i]->GetLeaf("FractionGoodTrack")->GetValue() < fracGT[i]){
hRunCut[i]->Fill("LowFractionGT",1); continue;} // cut on fraction of good track
if(tel[i]->GetLeaf("timeduration")->GetValue()*tel[i]->GetLeaf("rateHitPerRun")->GetValue() < hitevents[i]){
hRunCut[i]->Fill("TimeDuration",1); continue;} // cut on the number of event
if(rateGT < rateMin[i] || rateGT > rateMax[i]){
hRunCut[i]->Fill("rateGT",1); continue;} // cut on the rate
if(tel[i]->GetLeaf("run")->GetValue() > 499){
hRunCut[i]->Fill("RunNumber",1); continue;} // run < 500
if(i==1) printf("GR\n");
Float_t missinghitfrac = (tel[i]->GetLeaf("ratePerRun")->GetValue()-tel[i]->GetLeaf("rateHitPerRun")->GetValue()-2)/(tel[i]->GetLeaf("ratePerRun")->GetValue()-2);
if(missinghitfrac < minmissingHitFrac[i] || missinghitfrac > maxmissingHitFrac[i]){
hRunCut[i]->Fill("MissingHitFrac",1); continue;}
// active strip maps
if(tel[i]->GetLeaf("maskB")) nStripDeadBot[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = countBits(Int_t(tel[i]->GetLeaf("maskB")->GetValue()));
if(tel[i]->GetLeaf("maskM")) nStripDeadMid[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = countBits(Int_t(tel[i]->GetLeaf("maskM")->GetValue()));
if(tel[i]->GetLeaf("maskT")) nStripDeadTop[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = countBits(Int_t(tel[i]->GetLeaf("maskT")->GetValue()));
if(nStripDeadBot[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] > ndeadBotMax[i] || nStripDeadBot[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] < ndeadBotMin[i]) {
hRunCut[i]->Fill("DeadStripBot",1); continue;}
if(nStripDeadMid[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] > ndeadMidMax[i] || nStripDeadMid[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] < ndeadMidMin[i]){
hRunCut[i]->Fill("DeadStripMid",1); continue;}
if(nStripDeadTop[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] > ndeadTopMax[i] || nStripDeadTop[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] < ndeadTopMin[i]){
hRunCut[i]->Fill("DeadStripTop",1); continue;}
// nsat averaged per run
if(tel[i]->GetLeaf("nSat")) NsatAv[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = tel[i]->GetLeaf("nSat")->GetValue();
if(NsatAv[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] < minAvSat[i] || NsatAv[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] > maxAvSat[i]){
hRunCut[i]->Fill("NSatellites",1); continue;}
// weather info
if(tel[i]->GetLeaf("Pressure")) pressureTel[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = tel[i]->GetLeaf("Pressure")->GetValue();
if(tel[i]->GetLeaf("IndoorTemperature")) TempInTel[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = tel[i]->GetLeaf("IndoorTemperature")->GetValue();
if(tel[i]->GetLeaf("OutdoorTemperature")) TempOutTel[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = tel[i]->GetLeaf("OutdoorTemperature")->GetValue();
if(tel[i]->GetLeaf("TimeWeatherUpdate")) timeWeath[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = tel[i]->GetLeaf("TimeWeatherUpdate")->GetValue();
if(timeWeath[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] < minWeathTimeDelay[i] || timeWeath[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] > maxWeathTimeDelay[i]){ hRunCut[i]->Fill("NoGoodWeather",1); continue; }
// Set good runs
runstatus[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = kTRUE;
effTel[i][Int_t(tel[i]->GetLeaf("year")->GetValue())-2014][Int_t(tel[i]->GetLeaf("month")->GetValue())][Int_t(tel[i]->GetLeaf("day")->GetValue())][Int_t(tel[i]->GetLeaf("run")->GetValue())] = 1;//rateGT/refRate[i];
}
}
}
else{
telC = NULL;
}
printf("Start to process correlations\n");
Int_t n = t->GetEntries();
// counter for seconds
Int_t nsec = 0;
Int_t nsecGR = 0; // for good runs
Int_t isec = -1; // used only in case the tree with time info is not available
Float_t neventsGR = 0;
Float_t neventsGRandSat = 0;
if(telC){
for(Int_t i=0; i < telC->GetEntries();i++){
telC->GetEvent(i);
nsec += telC->GetLeaf("timeduration")->GetValue();
if(telC->GetLeaf("run")->GetValue() > 499 || telC->GetLeaf("run2")->GetValue() > 499) continue;
if(!runstatus[0][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run")->GetValue())]) continue;
if(!runstatus[1][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run2")->GetValue())]) continue;
nsecGR += telC->GetLeaf("timeduration")->GetValue();
nstripDeadB[0] += countBits(nStripDeadBot[0][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run")->GetValue())])*telC->GetLeaf("timeduration")->GetValue();
nstripDeadM[0] += countBits(nStripDeadMid[0][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run")->GetValue())])*telC->GetLeaf("timeduration")->GetValue();
nstripDeadT[0] += countBits(nStripDeadTop[0][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run")->GetValue())])*telC->GetLeaf("timeduration")->GetValue();
nstripDeadB[1] += countBits(nStripDeadBot[1][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run")->GetValue())])*telC->GetLeaf("timeduration")->GetValue();
nstripDeadM[1] += countBits(nStripDeadMid[1][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run")->GetValue())])*telC->GetLeaf("timeduration")->GetValue();
nstripDeadT[1] += countBits(nStripDeadTop[1][Int_t(telC->GetLeaf("year")->GetValue())-2014][Int_t(telC->GetLeaf("month")->GetValue())][Int_t(telC->GetLeaf("day")->GetValue())][Int_t(telC->GetLeaf("run")->GetValue())])*telC->GetLeaf("timeduration")->GetValue();
}
nstripDeadB[0] /= nsecGR;
nstripDeadM[0] /= nsecGR;
nstripDeadT[0] /= nsecGR;
nstripDeadB[1] /= nsecGR;
nstripDeadM[1] /= nsecGR;
nstripDeadT[1] /= nsecGR;
printf("Dead channel tel1 = %f - %f - %f\n",nstripDeadB[0],nstripDeadM[0],nstripDeadT[0]);
printf("Dead channel tel2 = %f - %f - %f\n",nstripDeadB[1],nstripDeadM[1],nstripDeadT[1]);
}
char title[300];
TH1F *h;
sprintf(title,"correction assuming #Delta#phi = %4.2f, #DeltaL = %.1f m;#Deltat (ns);entries",angle,distance);
h = new TH1F("hCoinc",title,nbint,tmin,tmax);
Float_t DeltaT;
Float_t phiAv,thetaAv,corr;
Float_t Theta1,Theta2;
Float_t Phi1,Phi2;
Int_t nsatel1cur,nsatel2cur,ntrack1,ntrack2;
Float_t v1[3],v2[3],vSP; // variable to recompute ThetaRel on the fly
Float_t eff = 1;
for(Int_t i=0;i<n;i++){
t->GetEvent(i);
if(t->GetLeaf("RunNumber1") && (t->GetLeaf("RunNumber1")->GetValue() > 499 || t->GetLeaf("RunNumber2")->GetValue() > 499)) continue;
if(tel[0] && !runstatus[0][Int_t(t->GetLeaf("year")->GetValue())-2014][Int_t(t->GetLeaf("month")->GetValue())][Int_t(t->GetLeaf("day")->GetValue())][Int_t(t->GetLeaf("RunNumber1")->GetValue())]) continue;
if(tel[1] && !runstatus[1][Int_t(t->GetLeaf("year")->GetValue())-2014][Int_t(t->GetLeaf("month")->GetValue())][Int_t(t->GetLeaf("day")->GetValue())][Int_t(t->GetLeaf("RunNumber2")->GetValue())]) continue;
eff = effTel[0][Int_t(t->GetLeaf("year")->GetValue())-2014][Int_t(t->GetLeaf("month")->GetValue())][Int_t(t->GetLeaf("day")->GetValue())][Int_t(t->GetLeaf("RunNumber1")->GetValue())];
eff *= effTel[1][Int_t(t->GetLeaf("year")->GetValue())-2014][Int_t(t->GetLeaf("month")->GetValue())][Int_t(t->GetLeaf("day")->GetValue())][Int_t(t->GetLeaf("RunNumber2")->GetValue())];
Int_t timec = t->GetLeaf("ctime1")->GetValue();
if(! telC){
if(isec == -1) isec = timec;
if(timec != isec){
if(timec - isec < 20){
// printf("diff = %i\n",timec-isec);
nsec +=(timec - isec);
nsecGR +=(timec - isec);
}
isec = timec;
}
}
Float_t thetarel = t->GetLeaf("ThetaRel")->GetValue();
Theta1 = (t->GetLeaf("Theta1")->GetValue())*TMath::DegToRad();
Theta2 = t->GetLeaf("Theta2")->GetValue()*TMath::DegToRad();
Phi1 = t->GetLeaf("Phi1")->GetValue()*TMath::DegToRad();
Phi2 = t->GetLeaf("Phi2")->GetValue()*TMath::DegToRad();
nsatel1cur = t->GetLeaf("Nsatellite1")->GetValue();
nsatel2cur = t->GetLeaf("Nsatellite2")->GetValue();
ntrack1 = t->GetLeaf("Ntracks1")->GetValue();
ntrack2 = t->GetLeaf("Ntracks2")->GetValue();
if(recomputeThetaRel){ // recompute ThetaRel applying corrections
Phi1 += phi1Corr*TMath::DegToRad();
Phi2 += phi2Corr*TMath::DegToRad();
if(Phi1 > 2*TMath::Pi()) Phi1 -= 2*TMath::Pi();
if(Phi1 < 0) Phi1 += 2*TMath::Pi();
if(Phi2 > 2*TMath::Pi()) Phi2 -= 2*TMath::Pi();
if(Phi2 < 0) Phi2 += 2*TMath::Pi();
v1[0] = TMath::Sin(Theta1)*TMath::Cos(Phi1);
v1[1] = TMath::Sin(Theta1)*TMath::Sin(Phi1);
v1[2] = TMath::Cos(Theta1);
v2[0] = TMath::Sin(Theta2)*TMath::Cos(Phi2);
v2[1] = TMath::Sin(Theta2)*TMath::Sin(Phi2);
v2[2] = TMath::Cos(Theta2);
v1[0] *= v2[0];
v1[1] *= v2[1];
v1[2] *= v2[2];
vSP = v1[0] + v1[1] + v1[2];
thetarel = TMath::ACos(vSP)*TMath::RadToDeg();
}
// cuts
if(thetarel < minthetarel) continue;
if(thetarel > maxthetarel) continue;
if(t->GetLeaf("ChiSquare1")->GetValue() > maxchisquare) continue;
if(t->GetLeaf("ChiSquare2")->GetValue() > maxchisquare) continue;
neventsGR++;
// reject events with not enough satellites
if(nsatel1cur < satEventThr || nsatel1cur < satEventThr) continue;
neventsGRandSat++;
DeltaT = t->GetLeaf("DiffTime")->GetValue();
// get primary direction
if(TMath::Abs(Phi1-Phi2) < TMath::Pi()) phiAv = (Phi1+Phi2)*0.5;
else phiAv = (Phi1+Phi2)*0.5 + TMath::Pi();
thetaAv = (Theta1+Theta2)*0.5;
// extra cuts if needed
// if(TMath::Cos(Phi1-Phi2) < 0.) continue;
Float_t resFactor = 1;
if(thetarel > 10 ) resFactor *= 0.5;
if(thetarel > 20 ) resFactor *= 0.5;
if(thetarel > 30 ) resFactor *= 0.5;
corr = distance * TMath::Sin(thetaAv)*TMath::Cos(phiAv-angle)/2.99792458000000039e-01 + deltatCorr;
phirelative = (Phi1-angle)*TMath::RadToDeg();
if(phirelative < 0) phirelative += 360;
if(phirelative < 0) phirelative += 360;
if(phirelative > 360) phirelative -= 360;
if(phirelative > 360) phirelative -= 360;
phirelative2 = (Phi2-angle)*TMath::RadToDeg();
if(phirelative2 < 0) phirelative2 += 360;
if(phirelative2 < 0) phirelative2 += 360;
if(phirelative2 > 360) phirelative2 -= 360;
if(phirelative2 > 360) phirelative2 -= 360;
phirelativeAv = (phiAv-angle)*TMath::RadToDeg();
if(phirelativeAv < 0) phirelativeAv += 360;
if(phirelativeAv < 0) phirelativeAv += 360;
if(phirelativeAv > 360) phirelativeAv -= 360;
if(phirelativeAv > 360) phirelativeAv -= 360;
// if(TMath::Abs(DeltaT- deltatCorr) < windowAlignment){
// }
if(thetarel < 10){//cos(thetarel*TMath::DegToRad())>0.98 && sin(thetaAv)>0.1){
if(TMath::Abs(DeltaT- corr) < windowAlignment)
hModulationAvCorr->Fill(phirelativeAv,DeltaT-corr);
if(TMath::Abs(DeltaT- deltatCorr) < windowAlignment){
hModulation->Fill(phirelative,(DeltaT-deltatCorr)/sin(thetaAv)*2.99792458000000039e-01);
hModulation2->Fill(phirelative2,(DeltaT-deltatCorr)/sin(thetaAv)*2.99792458000000039e-01);
hModulationAv->Fill(phirelativeAv,(DeltaT-deltatCorr)/sin(thetaAv)*2.99792458000000039e-01);
hSinTheta->Fill(phirelative,sin(thetaAv));
hSinTheta2->Fill(phirelative2,sin(thetaAv));
nsigPeak++;
hnsigpeak->Fill(phirelativeAv);
}
else if(TMath::Abs(DeltaT- deltatCorr) < windowAlignment*10){
nbackPeak++;
hnbackpeak->Fill(phirelativeAv);
}
}
h->Fill(DeltaT-corr,1./eff);
if(TMath::Abs(DeltaT-corr) < windowAlignment){
hDeltaTheta->Fill((Theta1-Theta2)*TMath::RadToDeg());
hDeltaPhi->Fill((Phi1-Phi2)*TMath::RadToDeg());
hThetaRel->Fill(thetarel);
hAngle->Fill((Theta1-Theta2)*TMath::RadToDeg(),(Phi1-Phi2)*TMath::RadToDeg());
}
else if(TMath::Abs(DeltaT-corr) > windowAlignment*2 && TMath::Abs(DeltaT-corr) < windowAlignment*12){
hDeltaThetaBack->Fill((Theta1-Theta2)*TMath::RadToDeg());
hDeltaPhiBack->Fill((Phi1-Phi2)*TMath::RadToDeg());
hThetaRelBack->Fill(thetarel);
hAngleBack->Fill((Theta1-Theta2)*TMath::RadToDeg(),(Phi1-Phi2)*TMath::RadToDeg());
}
}
// compute (S+B)/S
for(Int_t i=1;i<=50;i++){
Float_t corrfactorPeak = 1;
if(nsigPeak-nbackPeak*0.1 > 0)
corrfactorPeak = hnsigpeak->GetBinContent(i)/(hnsigpeak->GetBinContent(i)-hnbackpeak->GetBinContent(i)*0.1);
else
printf("bin %i) not enough statistics\n",i);
hnsigpeak->SetBinContent(i,corrfactorPeak);
}
TF1 *fpol0 = new TF1("fpol0","pol0");
hnsigpeak->Fit(fpol0);
hModulation->Scale(fpol0->GetParameter(0));
hModulation2->Scale(fpol0->GetParameter(0));
hModulationAv->Scale(fpol0->GetParameter(0));
hModulationAvCorr->Scale(fpol0->GetParameter(0));
TF1 *fmod = new TF1("fmod","[0] + [1]*cos((x-[2])*TMath::DegToRad())");
hModulationAv->Fit(fmod);
printf("Estimates from time delay: Distance = %f +/- %f m -- Angle = %f +/- %f deg\n",fmod->GetParameter(1),fmod->GetParError(1),fmod->GetParameter(2),fmod->GetParError(2));
h->SetStats(0);
hDeltaThetaBack->Sumw2();
hDeltaPhiBack->Sumw2();
hThetaRelBack->Sumw2();
hDeltaThetaBack->Scale(0.1);
hDeltaPhiBack->Scale(0.1);
hThetaRelBack->Scale(0.1);
hAngleBack->Scale(0.1);
hAngle->Add(hAngleBack,-1);
printf("bin counting: SIGNAL = %f +/- %f\n",hDeltaPhi->Integral()-hDeltaPhiBack->Integral(),sqrt(hDeltaPhi->Integral()));
rate = (hDeltaPhi->Integral()-hDeltaPhiBack->Integral())/nsecGR*86400;
rateErr = sqrt(hDeltaPhi->Integral())/nsecGR*86400;
Float_t val,eval;
TCanvas *c1=new TCanvas();
TF1 *ff = new TF1("ff","[0]*[4]/[2]/sqrt(2*TMath::Pi())*TMath::Exp(-(x-[1])*(x-[1])*0.5/[2]/[2]) + [3]*[4]/6/[2]");
ff->SetParName(0,"signal");
ff->SetParName(1,"mean");
ff->SetParName(2,"sigma");
ff->SetParName(3,"background");
ff->SetParName(4,"bin width");
ff->SetParameter(0,42369);
ff->SetParameter(1,0);
ff->SetParLimits(2,10,maxwidth);
ff->SetParameter(2,350); // fix witdh if needed
ff->SetParameter(3,319);
ff->FixParameter(4,(tmax-tmin)/nbint); // bin width
ff->SetNpx(1000);
if(cout) cout->cd();
h->Fit(ff,"EI","",-10000,10000);
val = ff->GetParameter(2);
eval = ff->GetParError(2);
printf("significance = %f\n",ff->GetParameter(0)/sqrt(ff->GetParameter(0) + ff->GetParameter(3)));
h->Draw();
new TCanvas;
TF1 *func1 = (TF1 *) h->GetListOfFunctions()->At(0);
func1->SetLineColor(2);
h->SetLineColor(4);
TPaveText *text = new TPaveText(1500,(h->GetMinimum()+(h->GetMaximum()-h->GetMinimum())*0.6),9500,h->GetMaximum());
text->SetFillColor(0);
sprintf(title,"width = %5.1f #pm %5.1f",func1->GetParameter(2),func1->GetParError(2));
text->AddText(title);
sprintf(title,"signal (S) = %5.1f #pm %5.1f",func1->GetParameter(0),func1->GetParError(0));
text->AddText(title);
sprintf(title,"background (B) (3#sigma) = %5.1f #pm %5.1f",func1->GetParameter(3),func1->GetParError(3));
text->AddText(title);
sprintf(title,"significance (S/#sqrt{S+B}) = %5.1f",func1->GetParameter(0)/sqrt(func1->GetParameter(0)+func1->GetParameter(3)));
text->AddText(title);
text->SetFillStyle(0);
text->SetBorderSize(0);
text->Draw("SAME");
// correct nsecGR for the event rejected because of the number of satellites (event by event cut)
nsecGR *= neventsGRandSat/neventsGR;
printf("n_day = %f\nn_dayGR = %f\n",nsec*1./86400,nsecGR*1./86400);
text->AddText(Form("rate = %f #pm %f per day",func1->GetParameter(0)*86400/nsecGR,func1->GetParError(0)*86400/nsecGR));
TFile *fo = new TFile("outputCERN-01-02.root","RECREATE");
h->Write();
hDeltaTheta->Write();
hDeltaPhi->Write();
hThetaRel->Write();
hDeltaThetaBack->Write();
hDeltaPhiBack->Write();
hThetaRelBack->Write();
hAngle->Write();
hModulation->Write();
hModulation2->Write();
hModulationAv->Write();
hModulationAvCorr->Write();
hSinTheta->Write();
hSinTheta2->Write();
hnsigpeak->Write();
hRunCut[0]->Write();
hRunCut[1]->Write();
fo->Close();
return nsecGR*1./86400;
}
// Soft radiation corrections for L3Res
void softrad(double etamin=0.0, double etamax=1.3, bool dodijet=false) {
setTDRStyle();
writeExtraText = false; // for JEC paper CWR
TDirectory *curdir = gDirectory;
// Open jecdata.root produced by reprocess.C
TFile *fin = new TFile("rootfiles/jecdata.root","UPDATE");
assert(fin && !fin->IsZombie());
const int ntypes = 3;
const char* types[ntypes] = {"data", "mc", "ratio"};
const int nmethods = 2;
const char* methods[nmethods] = {"mpfchs1", "ptchs"};
const int nsamples = (dodijet ? 4 : 3);
const char* samples[4] = {"gamjet", "zeejet", "zmmjet", "dijet"};
string sbin = Form("eta%02.0f-%02.0f",10*etamin,10*etamax);
const char* bin = sbin.c_str();
const int nalphas = 4;
const int alphas[nalphas] = {30, 20, 15, 10};
// Z+jet bins
const double ptbins1[] = {30, 40, 50, 60, 75, 95, 125, 180, 300, 1000};
const int npt1 = sizeof(ptbins1)/sizeof(ptbins1[0])-1;
TH1D *hpt1 = new TH1D("hpt1","",npt1,&ptbins1[0]);
TProfile *ppt1 = new TProfile("ppt1","",npt1,&ptbins1[0]);
// gamma+jet bins
const double ptbins2[] = {30, 40, 50, 60, 75, 100, 125, 155, 180,
210, 250, 300, 350, 400, 500, 600, 800};
const int npt2 = sizeof(ptbins2)/sizeof(ptbins2[0])-1;
TH1D *hpt2 = new TH1D("hpt2","",npt2,&ptbins2[0]);
TProfile *ppt2 = new TProfile("ppt2","",npt2,&ptbins2[0]);
// dijet bins
const double ptbins4[] = {20, 62, 107, 175, 242, 310, 379, 467,
628, 839, 1121, 1497, 2000};
const int npt4 = sizeof(ptbins4)/sizeof(ptbins4[0])-1;
TH1D *hpt4 = new TH1D("hpt4","",npt4,&ptbins4[0]);
TProfile *ppt4 = new TProfile("ppt4","",npt4,&ptbins4[0]);
TLatex *tex = new TLatex();
tex->SetNDC();
tex->SetTextSize(0.045);
map<string,const char*> texlabel;
texlabel["gamjet"] = "#gamma+jet";
texlabel["zeejet"] = "Z#rightarrowee+jet";
texlabel["zmmjet"] = "Z#rightarrow#mu#mu+jet";
texlabel["dijet"] = "Dijet";
texlabel["ptchs"] = "p_{T} balance (CHS)";
texlabel["mpfchs"] = "MPF raw (CHS)";
texlabel["mpfchs1"] = "MPF type-I (CHS)";
// overlay of various alpha values
TCanvas *c1 = new TCanvas("c1","c1",ntypes*400,nmethods*400);
c1->Divide(ntypes,nmethods);
TH1D *h1 = new TH1D("h1",";p_{T} (GeV);Response",1270,30,1300);
// extrapolation vs alpha for each pT bin
vector<TCanvas*> c2s(ntypes*nmethods);
for (unsigned int icanvas = 0; icanvas != c2s.size(); ++icanvas) {
TCanvas *c2 = new TCanvas(Form("c2_%d",icanvas),Form("c2_%d",icanvas),
1200,1200);
c2->Divide(3,3);
c2s[icanvas] = c2;
}
TH1D *h2 = new TH1D("h2",";#alpha;Response",10,0.,0.4);
h2->SetMaximum(1.08);
h2->SetMinimum(0.88);
// krad corrections
TCanvas *c3 = new TCanvas("c3","c3",ntypes*400,nmethods*400);
c3->Divide(ntypes,nmethods);
TH1D *h3 = new TH1D("h3",";p_{T,ref} (GeV);FSR sensitivity: -dR/d#alpha [%]",
1270,30,1300);
cout << "Reading in data" << endl << flush;
// Read in plots vs pT (and alpha)
map<string, map<string, map<string, map<int, TGraphErrors*> > > > gemap;
map<string, map<string, map<string, map<int, TGraphErrors*> > > > gamap;
for (int itype = 0; itype != ntypes; ++itype) {
for (int imethod = 0; imethod != nmethods; ++imethod) {
for (int isample = 0; isample != nsamples; ++isample) {
for (int ialpha = 0; ialpha != nalphas; ++ialpha) {
fin->cd();
assert(gDirectory->cd(types[itype]));
assert(gDirectory->cd(bin));
TDirectory *d = gDirectory;
const char *ct = types[itype];
const char *cm = methods[imethod];
const char *cs = samples[isample];
const int a = alphas[ialpha];
// Get graph made vs pT
string s = Form("%s/%s/%s_%s_a%d",types[itype],bin,cm,cs,a);
TGraphErrors *g = (TGraphErrors*)fin->Get(s.c_str());
if (!g) cout << "Missing " << s << endl << flush;
assert(g);
// Clean out empty points
// as well as trigger-biased ones for dijets
// as well as weird gamma+jet high pT point
for (int i = g->GetN()-1; i != -1; --i) {
if (g->GetY()[i]==0 || g->GetEY()[i]==0 ||
(string(cs)=="dijet" && g->GetX()[i]<70.) ||
(string(cs)=="gamjet" && g->GetX()[i]>600. && etamin!=0))
g->RemovePoint(i);
}
gemap[ct][cm][cs][a] = g;
// Sort points into new graphs vs alpha
TH1D *hpt = (isample==0 ? hpt2 : hpt1);
TProfile *ppt = (isample==0 ? ppt2 : ppt1);
if (isample==3) { hpt = hpt4; ppt = ppt4; } // pas-v6
for (int i = 0; i != g->GetN(); ++i) {
double pt = g->GetX()[i];
ppt->Fill(pt, pt);
int ipt = int(hpt->GetBinLowEdge(hpt->FindBin(pt))+0.5);
//int ipt = int(pt+0.5);
TGraphErrors *ga = gamap[ct][cm][cs][ipt];
if (!ga) {
ga = new TGraphErrors(0);
ga->SetMarkerStyle(g->GetMarkerStyle());
ga->SetMarkerColor(g->GetMarkerColor());
ga->SetLineColor(g->GetLineColor());
gamap[ct][cm][cs][ipt] = ga;
}
int n = ga->GetN();
ga->SetPoint(n, 0.01*a, g->GetY()[i]);
ga->SetPointError(n, 0, g->GetEY()[i]);
} // for i
} // for ialpha
} // for isample
} // for imethod
} // for itype
cout << "Drawing plots vs pT for each alpha" << endl << flush;
// 2x6 plots
for (int itype = 0; itype != ntypes; ++itype) {
for (int imethod = 0; imethod != nmethods; ++imethod) {
const char *ct = types[itype];
const char *cm = methods[imethod];
int ipad = ntypes*imethod + itype + 1; assert(ipad<=6);
c1->cd(ipad);
gPad->SetLogx();
h1->SetMaximum(itype<2 ? 1.15 : 1.08);
h1->SetMinimum(itype<2 ? 0.85 : 0.93);
h1->SetYTitle(Form("Response (%s)",ct));
h1->DrawClone("AXIS");
tex->DrawLatex(0.20,0.85,texlabel[cm]);
tex->DrawLatex(0.20,0.80,"|#eta| < 1.3, #alpha=0.1--0.3");
TLegend *leg = tdrLeg(0.60,0.75,0.90,0.90);
for (int isample = 0; isample != nsamples; ++isample) {
for (int ialpha = 0; ialpha != nalphas; ++ialpha) {
const char *cs = samples[isample];
const int a = alphas[ialpha];
TGraphErrors *g = gemap[ct][cm][cs][a]; assert(g);
// Clean out points with very large uncertainty for plot readability
for (int i = g->GetN()-1; i != -1; --i) {
if (g->GetEY()[i]>0.02) g->RemovePoint(i);
}
g->Draw("SAME Pz");
if (ialpha==0) leg->AddEntry(g,texlabel[cs],"P");
}
} // for isample
// Individual plots for JEC paper
if ( true ) { // paper
TH1D *h = new TH1D(Form("h_5%s_%s",ct,cm),
Form(";p_{T} (GeV);Response (%s)",ct),
1270,30,1300);
h->GetXaxis()->SetMoreLogLabels();
h->GetXaxis()->SetNoExponent();
h->SetMinimum(0.88);
h->SetMaximum(1.13);
writeExtraText = true;
extraText = (string(ct)=="mc" ? "Simulation" : "");
lumi_8TeV = (string(ct)=="mc" ? "" : "19.7 fb^{-1}");
TCanvas *c0 = tdrCanvas(Form("c0_%s_%s",cm,ct), h, 2, 11, true);
c0->SetLogx();
TLegend *leg = tdrLeg(0.55,0.68,0.85,0.83);
tex->DrawLatex(0.55,0.85,texlabel[cm]);
tex->DrawLatex(0.55,0.18,"|#eta| < 1.3, #alpha=0.3");
//tex->DrawLatex(0.55,0.18,"Anti-k_{T} R=0.5");
// Loop over Z+jet and gamma+jet (only, no dijet/multijet)
for (int isample = 0; isample != min(3,nsamples); ++isample) {
const char *cs = samples[isample];
TGraphErrors *g = gemap[ct][cm][cs][30]; assert(g);
g->Draw("SAME Pz");
leg->AddEntry(g,texlabel[cs],"P");
} // for isample
if (etamin==0) {
c0->SaveAs(Form("pdf/paper_softrad_%s_%s_vspt.pdf",ct,cm));
c0->SaveAs(Form("pdfC/paper_softrad_%s_%s_vspt.C",ct,cm));
}
else {
c0->SaveAs(Form("pdf/an_softrad_%s_%s_eta%1.0f-%1.0f_vspt.pdf",
ct,cm,10*etamin,10*etamax));
}
} // paper
} // for imethod
} // for itype
c1->cd(0);
//cmsPrel(_lumi, true);
CMS_lumi(c1, 2, 33);
c1->SaveAs("pdf/softrad_2x6_vspt.pdf");
cout << "Drawing plots vs alpha for each pT" << endl << flush;
cout << "...and fitting slope vs alpha" << endl << flush;
map<string, map<string, map<string, TGraphErrors* > > > gkmap;
// 2x6 plots
for (int itype = 0; itype != ntypes; ++itype) {
for (int imethod = 0; imethod != nmethods; ++imethod) {
int icanvas = nmethods*imethod + itype; assert(icanvas<=6);
TCanvas *c2 = c2s[icanvas]; assert(c2);
const char *ct = types[itype];
const char *cm = methods[imethod];
const int npads = 9;
for (int ipad = 0; ipad != npads; ++ipad) {
c2->cd(ipad+1);
h2->SetYTitle(Form("Response (%s)",ct));
h2->DrawClone("AXIS");
tex->DrawLatex(0.20,0.85,texlabel[cm]);
tex->DrawLatex(0.20,0.80,"|#eta| < 1.3");
tex->DrawLatex(0.20,0.75,Form("%1.0f < p_{T} < %1.0f GeV",
hpt1->GetBinLowEdge(ipad+1),
hpt1->GetBinLowEdge(ipad+2)));
TLegend *leg = tdrLeg(0.65,0.75,0.90,0.90);
leg->AddEntry(gemap[ct][cm]["gamjet"][30], texlabel["gamjet"], "P");
leg->AddEntry(gemap[ct][cm]["zeejet"][30], texlabel["zeejet"], "P");
leg->AddEntry(gemap[ct][cm]["zmmjet"][30], texlabel["zmmjet"], "P");
leg->AddEntry(gemap[ct][cm]["dijet"][30], texlabel["dijet"], "P");
}
for (int isample = 0; isample != nsamples; ++isample) {
const char *cs = samples[isample];
map<int, TGraphErrors*> &gam = gamap[ct][cm][cs];
map<int, TGraphErrors*>::iterator itpt;
for (itpt = gam.begin(); itpt != gam.end(); ++itpt) {
int ipt = itpt->first;
int jpt = hpt1->FindBin(ipt);
if (jpt>npads) continue;
assert(jpt<=npads);
c2->cd(jpt);
TGraphErrors *ga = itpt->second; assert(ga);
ga->Draw("SAME Pz");
// Fit slope
TF1 *f1 = new TF1(Form("f1_%s_%s_%s_%d",ct,cm,cs,ipt),
"(x<1)*([0]+[1]*x) + (x>1 && x<2)*[0] +"
"(x>2)*[1]",-1,1);
f1->SetLineColor(ga->GetLineColor());
f1->SetParameters(1,0);
const double minalpha = (isample==0 ? 10./ipt : 5./ipt);
// Constrain slope to within reasonable values
// in the absence of sufficient data using priors
if (true) { // use priors
int n = ga->GetN();
// For response, limit to 1+/-0.02 (we've corrected for L3Res
ga->SetPoint(n, 1.5, 1);
ga->SetPointError(n, 0, 0.02);
n = ga->GetN();
if (imethod==1) { // pT balance
// For pT balance, estimate slope of <vecpT2>/alpha from data
// => 7.5%/0.30 = 25%
// Approximate uncertainty on this to be
// 0.5%/0.30 ~ 1.5% for data, 0.5%/0.30 ~ 1.5% for Z+jet MC, and
// 2%/0.30 ~ 6% for gamma+jet MC (same as slope)
if (itype==0) ga->SetPoint(n, 2.5, -0.250); // DT
if (itype==1 && isample!=0) ga->SetPoint(n, 2.5, -0.250); // MC
if (itype==1 && isample==0) ga->SetPoint(n, 2.5, -0.190);
if (itype==2 && isample!=0) ga->SetPoint(n, 2.5, -0.000); // rt
if (itype==2 && isample==0) ga->SetPoint(n, 2.5, -0.060);
//
// BUG: found 2015-01-08 (no effect on ratio)
//if (itype==1) ga->SetPointError(n, 0, -0.015);
if (itype==0) ga->SetPointError(n, 0, -0.015); // DT
if (itype==1 && isample!=0) ga->SetPointError(n, 0, -0.015); // MC
if (itype==1 && isample==0) ga->SetPointError(n, 0, -0.060);
if (itype==2 && isample!=0) ga->SetPointError(n, 0, -0.015); // rt
if (itype==2 && isample==0) ga->SetPointError(n, 0, -0.060);
}
if (imethod==0) { // MPF
// For MPF, expectation is no slope
// Maximal slope would be approximately
// (<vecpT2>/alpha ~ 25% from pT balance) times
// (response difference between pT1 and vecpT2~10%)
// => 0.25*0.10 = 2.5%
// For data/MC, estimate uncertainty as half of this
// => 1.25%
ga->SetPoint(n, 2.5, 0.);
if (itype!=2) ga->SetPointError(n, 0, 0.025);
if (itype==2) ga->SetPointError(n, 0, 0.0125);
} // MPF
} // use priors
if (ga->GetN()>2) {
f1->SetRange(minalpha, 3.);
ga->Fit(f1,"QRN");
if (f1->GetNDF()>=0) {
f1->DrawClone("SAME");
f1->SetRange(0,0.4);
f1->SetLineStyle(kDashed);
f1->DrawClone("SAME");
// Store results
TGraphErrors *gk = gkmap[ct][cm][cs];
if (!gk) {
gk = new TGraphErrors(0);
gk->SetMarkerStyle(ga->GetMarkerStyle());
gk->SetMarkerColor(ga->GetMarkerColor());
gk->SetLineColor(ga->GetLineColor());
gkmap[ct][cm][cs] = gk;
}
int n = gk->GetN();
TProfile *ppt = (isample==0 ? ppt2 : ppt1);
if (isample==3) { ppt = ppt4; } // pas-v6
double pt = ppt->GetBinContent(ppt->FindBin(ipt));
gk->SetPoint(n, pt, f1->GetParameter(1));
gk->SetPointError(n, 0, f1->GetParError(1));
} // f1->GetNDF()>=0
} // ga->GetN()>2
} // for itpt
} // for isample
c2->SaveAs(Form("pdf/softrad_3x3_%s_%s_vsalpha.pdf",ct,cm));
}
}
cout << "Drawing plots of kFSR vs pT" << endl;
// 2x6 plots
for (int itype = 0; itype != ntypes; ++itype) {
for (int imethod = 0; imethod != nmethods; ++imethod) {
const char *ct = types[itype];
const char *cm = methods[imethod];
TMultiGraph *mgk = new TMultiGraph();
int ipad = ntypes*imethod + itype + 1; assert(ipad<=6);
c3->cd(ipad);
gPad->SetLogx();
h3->SetMaximum(imethod==0 ? 0.05 : (itype!=2 ? 0.1 : 0.25));
h3->SetMinimum(imethod==0 ? -0.05 : (itype!=2 ? -0.4 : -0.25));
h3->SetYTitle(Form("k_{FSR} = dR/d#alpha (%s)",ct));
h3->DrawClone("AXIS");
tex->DrawLatex(0.20,0.85,texlabel[cm]);
tex->DrawLatex(0.20,0.80,"|#eta| < 1.3");
TLegend *leg = tdrLeg(0.60,0.75,0.90,0.90);
for (int isample = 0; isample != nsamples; ++isample) {
const char *cs = samples[isample];
TGraphErrors *gk = gkmap[ct][cm][cs]; assert(gk);
leg->AddEntry(gk,texlabel[cs],"P");
// Fit each sample separately for pT balance
if (true) {
TF1 *fk = new TF1(Form("fk_%s_%s_%s",ct,cm,cs),
"[0]+[1]*log(0.01*x)+[2]*pow(log(0.01*x),2)",
30,1300);
fk->SetParameters(-0.25,-0.5);
fk->SetLineColor(gk->GetLineColor());
gk->Fit(fk, "QRN");
tex->SetTextColor(fk->GetLineColor());
tex->DrawLatex(0.55,0.27-0.045*isample,
Form("#chi^{2}/NDF = %1.1f / %d",
fk->GetChisquare(), fk->GetNDF()));
tex->SetTextColor(kBlack);
// Error band
const int n = fk->GetNpar();
TMatrixD emat(n,n);
gMinuit->mnemat(emat.GetMatrixArray(), n);
TF1 *fke = new TF1(Form("fk_%s_%s_%s",ct,cm,cs),
sr_fitError, 30, 1300, 1);
_sr_fitError_func = fk;
_sr_fitError_emat = &emat;
fke->SetLineStyle(kSolid);
fke->SetLineColor(fk->GetLineColor()-10);
fke->SetParameter(0,-1);
fke->DrawClone("SAME");
fke->SetParameter(0,+1);
fke->DrawClone("SAME");
fk->DrawClone("SAME");
gk->DrawClone("SAME Pz");
// Store soft radiation corrections in fsr subdirectory
assert(fin->cd(ct));
assert(gDirectory->cd(bin));
if (!gDirectory->FindObject("fsr")) gDirectory->mkdir("fsr");
assert(gDirectory->cd("fsr"));
TH1D *hk = (TH1D*)(isample==0 ? hpt2->Clone() : hpt1->Clone());
hk->SetName(Form("hkfsr_%s_%s",cm,cs));
TProfile *ppt = (isample==0 ? ppt2 : ppt1);
if (isample==3) { ppt = ppt4; } // pas-v6
for (int i = 1; i != hk->GetNbinsX()+1; ++i) {
double pt = ppt->GetBinContent(i);
if (pt>30 && pt<1300) {
hk->SetBinContent(i, fk->Eval(pt));
hk->SetBinError(i, fabs(fke->Eval(pt)-fk->Eval(pt)));
}
else {
hk->SetBinContent(i, 0);
hk->SetBinError(i, 0);
}
}
hk->Write(hk->GetName(), TObject::kOverwrite);
// Factorize error matrix into eigenvectors
// Remember: A = Q*Lambda*Q^-1, where
// A is emat, Q is eigmat, and Lambda is a diagonal matrix with
// eigenvalues from eigvec on the diagonal. For eigenmatrix
// Q^-1 = Q^T, i.e. inverse matrix is the original transposed
TVectorD eigvec(n);
TMatrixD eigmat = emat.EigenVectors(eigvec);
// Eigenvectors are the columns and sum of eigenvectors squared
// equals original uncertainty. Calculate histograms from the
// eigenvectors and store them
TF1 *fkeig = (TF1*)fk->Clone(Form("%s_eig",fk->GetName()));
fkeig->SetLineStyle(kDotted);
for (int ieig = 0; ieig != n; ++ieig) {
// Eigenvector functions
for (int i = 0; i != n; ++i) {
fkeig->SetParameter(i, fk->GetParameter(i)
+ eigmat[i][ieig] * sqrt(eigvec[ieig]));
}
fkeig->DrawClone("SAMEL");
// Eigenvector histograms evaluated at bin mean pT
TH1D *hke = (TH1D*)hk->Clone(Form("%s_eig%d",hk->GetName(),ieig));
hke->Reset();
for (int i = 0; i != gk->GetN(); ++i) {
double pt = gk->GetX()[i];
int ipt = hke->FindBin(pt);
// Need to store central value as well, because
// uncertainty sources are signed
hke->SetBinContent(ipt, fkeig->Eval(pt)-fk->Eval(pt));
hke->SetBinError(ipt, fabs(fkeig->Eval(pt)-fk->Eval(pt)));
}
hke->Write(hke->GetName(), TObject::kOverwrite);
}
cout << "." << flush;
} // if tree
} // for isample
} // for imethod
} // for itype
c3->cd(0);
//cmsPrel(_lumi, true);
CMS_lumi(c3, 2, 33);
c3->SaveAs("pdf/softrad_2x6_kfsr.pdf");
fin->Close();
curdir->cd();
} // softrad
void tauStudy(const TString inputfile = "/afs/cern.ch/work/k/klawhorn/HHToBBTT/Conf4_10GeV/HHToBBTT_10GeVJets_14TeV.root") {
// set up input tree
LorentzVector *genTau1=0, *genTau2=0, *genJetTau1=0, *genJetTau2=0, *jetTau1=0, *jetTau2=0;
Float_t genTau1pt, genTau2pt, genJetTau1pt, genJetTau2pt, jetTau1pt, jetTau2pt, corrJetTau1pt, corrJetTau2pt;
Float_t genTau1eta, genTau2eta, genJetTau1eta, genJetTau2eta, jetTau1eta, jetTau2eta;
TFile *infile = new TFile(inputfile, "READ"); assert(infile);
TTree *intree = (TTree*) infile->Get("Events"); assert(intree);
intree->SetBranchAddress("genTau1", &genTau1);
intree->SetBranchAddress("genTau2", &genTau2);
intree->SetBranchAddress("genJetTau1", &genJetTau1);
intree->SetBranchAddress("genJetTau2", &genJetTau2);
intree->SetBranchAddress("jetTau1", &jetTau1);
intree->SetBranchAddress("jetTau2", &jetTau2);
const Float_t PT_MAX = 500;
const Float_t PT_MIN = 0;
const Int_t PT_BINS = 50;
const Float_t ETA_MAX = 2.4;
const Float_t ETA_MIN = -2.4;
const Int_t ETA_BINS = 16;
TProfile *tauTagEffWithPT = new TProfile("tauTagEffWithPT", "Tau Tagging Efficiency", PT_BINS, PT_MIN, PT_MAX);
TProfile *tauTagEffWithEta = new TProfile("tauTagEffWithEta", "Tau Tagging Efficiency", ETA_BINS, ETA_MIN, ETA_MAX);
//TProfile *ptScaleWithPT = new TProfile("ptScaleWithPT", "P_{T} Scale Factor between gen Tau and reco Jet", PT_BINS, PT_MIN, PT_MAX);
//TProfile *ptJetScaleWithPT = new TProfile("ptJetScaleWithPT", "P_{T} Scale Factor between gen Jet and reco Jet", PT_BINS, PT_MIN, PT_MAX);
//TProfile *ptScaleWithEta = new TProfile("ptScaleWithEta", "P_{T} Scale Factor between gen Tau and reco Jet", ETA_BINS, ETA_MIN, ETA_MAX);
//TProfile *ptJetScaleWithEta = new TProfile("ptJetScaleWithEta", "P_{T} Scale Factor between gen Jet and reco Jet", ETA_BINS, ETA_MIN, ETA_MAX);
//TProfile *ptResWithPT = new TProfile("ptResWithPT", "P_{T} Resolution between gen Tau and reco Jet", PT_BINS, PT_MIN, PT_MAX);
TProfile *ptJetResWithPT = new TProfile("ptJetResWithPT", "P_{T} Resolution: (genJet-recoJet)/(genJet)", PT_BINS, PT_MIN, PT_MAX);
TProfile *ptJetResCorrWithPT = new TProfile("ptJetResCorrWithPT", "P_{T} Resolution: (genJet-recoJet)/(genJet)", PT_BINS, PT_MIN, PT_MAX);
//TProfile *ptResWithEta = new TProfile("ptResWithEta", "P_{T} Resolution between gen Tau and reco Jet", ETA_BINS, ETA_MIN, ETA_MAX);
TProfile *ptJetResWithEta = new TProfile("ptJetResWithEta", "P_{T} Resolution: (genJet-recoJet)/(genJet)", ETA_BINS, ETA_MIN, ETA_MAX);
TProfile *ptJetResCorrWithEta = new TProfile("ptJetResCorrWithEta", "P_{T} Resolution: (genJet-recoJet)/(genJet)", ETA_BINS, ETA_MIN, ETA_MAX);
for (Int_t iEntry=0; iEntry<intree->GetEntries(); iEntry++) {
intree->GetEntry(iEntry);
genTau1pt = genTau1->Pt(); genTau1eta = genTau1->Eta();
genTau2pt = genTau2->Pt(); genTau2eta = genTau2->Eta();
genJetTau1pt = genJetTau1->Pt(); genJetTau1eta = genJetTau1->Eta();
genJetTau2pt = genJetTau2->Pt(); genJetTau2eta = genJetTau2->Eta();
jetTau1pt = jetTau1->Pt(); jetTau1eta = jetTau1->Eta();
jetTau2pt = jetTau2->Pt(); jetTau2eta = jetTau2->Eta();
// jet corrections
//if ( (jetTau1pt != 999) ) cout << "eta " << jetTau1eta << " pt " << jetTau1pt << " scaleCorr " << getJetScaleFactor(jetTau1pt, jetTau1eta) << endl;
corrJetTau1pt = jetTau1pt*getJetScaleFactor(jetTau1pt, jetTau1eta);
corrJetTau2pt = jetTau2pt*getJetScaleFactor(jetTau2pt, jetTau2eta);
if ( (genTau1pt != 999) && (jetTau1pt != 999) ) {
tauTagEffWithPT->Fill(genTau1pt, 1);
//ptScaleWithPT->Fill(genTau1pt, jetTau1pt/genTau1pt);
//ptJetScaleWithPT->Fill(genJetTau1pt, jetTau1pt/genJetTau1pt);
//ptResWithPT->Fill(genTau1pt, (genTau1pt-jetTau1pt)/genTau1pt);
ptJetResWithPT->Fill(genJetTau1pt, (genJetTau1pt-jetTau1pt)/genJetTau1pt);
ptJetResCorrWithPT->Fill(genJetTau1pt, (genJetTau1pt-corrJetTau1pt)/genJetTau1pt);
tauTagEffWithEta->Fill(genTau1eta, 1);
//ptScaleWithEta->Fill(genTau1eta, jetTau1pt/genTau1pt);
//ptJetScaleWithEta->Fill(genJetTau1eta, jetTau1pt/genJetTau1pt);
//ptResWithEta->Fill(genTau1eta, (genTau1pt-jetTau1pt)/genTau1pt);
ptJetResWithEta->Fill(genJetTau1eta, (genJetTau1pt-jetTau1pt)/genJetTau1pt);
ptJetResCorrWithEta->Fill(genJetTau1eta, (genJetTau1pt-corrJetTau1pt)/genJetTau1pt);
}
else if ( (genTau1pt != 999) && (jetTau1pt == 999) ) {
tauTagEffWithPT->Fill(genTau1pt, 0);
tauTagEffWithEta->Fill(genTau1eta, 0);
}
if ( (genTau2pt != 999) && (jetTau2pt != 999) ) {
tauTagEffWithPT->Fill(genTau2pt, 1);
//ptScaleWithPT->Fill(genTau2pt, jetTau2pt/genTau2pt);
//ptJetScaleWithPT->Fill(genJetTau2pt, jetTau2pt/genJetTau2pt);
//ptResWithPT->Fill(genTau2pt, (genTau2pt-jetTau2pt)/genTau2pt);
ptJetResWithPT->Fill(genJetTau2pt, (genJetTau2pt-jetTau2pt)/genJetTau2pt);
ptJetResCorrWithPT->Fill(genJetTau2pt, (genJetTau2pt-corrJetTau2pt)/genJetTau2pt);
tauTagEffWithEta->Fill(genTau2eta, 1);
//ptScaleWithEta->Fill(genTau2eta, jetTau2pt/genTau2pt);
//ptJetScaleWithEta->Fill(genJetTau2eta, jetTau2pt/genJetTau2pt);
//ptResWithEta->Fill(genTau2eta, (genTau2pt-jetTau2pt)/genTau2pt);
ptJetResWithEta->Fill(genJetTau2eta, (genJetTau2pt-jetTau2pt)/genJetTau2pt);
ptJetResCorrWithEta->Fill(genJetTau2eta, (genJetTau2pt-corrJetTau2pt)/genJetTau2pt);
}
else if ( (genTau2pt != 999) && (jetTau2pt == 999) ) {
tauTagEffWithPT->Fill(genTau2pt, 0);
tauTagEffWithEta->Fill(genTau2eta, 0);
}
}
TCanvas *c1 = MakeCanvas("c1", "Tau Tagging Efficiency", 800, 600);
tauTagEffWithPT->SetMarkerStyle(1);
tauTagEffWithPT->GetXaxis()->SetTitle("P_{T} of Generator Tau");
tauTagEffWithPT->GetYaxis()->SetTitle("Efficiency");
tauTagEffWithPT->Draw();
c1->SaveAs("tauTagEffWithPT.png");
TCanvas *c2 = MakeCanvas("c2", "Tau Tagging Efficiency", 800, 600);
tauTagEffWithEta->SetMarkerStyle(1);
tauTagEffWithEta->GetXaxis()->SetTitle("Eta of Generator Tau");
tauTagEffWithEta->GetYaxis()->SetTitle("Efficiency");
tauTagEffWithEta->Draw();
c2->SaveAs("tauTagEffWithEta.png");
/*
TCanvas *c3 = MakeCanvas("c3", "Tau P_{T} Scale (reco Tau Jet P_{T}/gen Tau P_{T})", 800, 600);
ptScaleWithPT->SetMarkerStyle(1);
ptScaleWithPT->GetXaxis()->SetTitle("P_{T} of Generator Tau");
ptScaleWithPT->GetYaxis()->SetTitle("P_{T} Scale");
ptScaleWithPT->Draw();
c3->SaveAs("ptScaleWithPT.png");
TCanvas *c4 = MakeCanvas("c4", "Tau P_{T} Scale (reco Tau Jet P_{T}/gen Tau P_{T})", 800, 600);
ptScaleWithEta->SetMarkerStyle(1);
ptScaleWithEta->GetXaxis()->SetTitle("Eta of Generator Tau");
ptScaleWithEta->GetYaxis()->SetTitle("P_{T} Scale");
ptScaleWithEta->Draw();
c4->SaveAs("ptScaleWithEta.png");
TCanvas *c5 = MakeCanvas("c5", "Tau P_{T} Scale (reco Tau Jet P_{T}/gen Tau Jet P_{T})", 800, 600);
ptJetScaleWithPT->SetMarkerStyle(1);
ptJetScaleWithPT->GetXaxis()->SetTitle("P_{T} of Generator Tau Jet");
ptJetScaleWithPT->GetYaxis()->SetTitle("P_{T} Scale");
ptJetScaleWithPT->Draw();
c5->SaveAs("ptJetScaleWithPT.png");
TCanvas *c6 = MakeCanvas("c6", "Tau P_{T} Scale (reco Tau Jet P_{T}/gen Tau Jet P_{T})", 800, 600);
ptJetScaleWithEta->SetMarkerStyle(1);
ptJetScaleWithEta->GetXaxis()->SetTitle("Eta of Generator Tau Jet");
ptJetScaleWithEta->GetYaxis()->SetTitle("P_{T} Scale");
ptJetScaleWithEta->Draw();
c6->SaveAs("ptJetScaleWithEta.png");
TCanvas *c7 = MakeCanvas("c7", "Tau P_{T} Resolution ((reco Tau Jet P_{T} - gen Tau P_{T})/gen Tau P_{T})", 800, 600);
ptResWithPT->SetMarkerStyle(1);
ptResWithPT->GetXaxis()->SetTitle("P_{T} of Generator Tau");
ptResWithPT->GetYaxis()->SetTitle("P_{T} Resolution");
ptResWithPT->Draw();
c7->SaveAs("ptResWithPT.png");
TCanvas *c8 = MakeCanvas("c8", "Tau P_{T} Resolution", 800, 600);
ptResWithEta->SetMarkerStyle(1);
ptResWithEta->GetXaxis()->SetTitle("Eta of Generator Tau");
ptResWithEta->GetYaxis()->SetTitle("P_{T} Resolution");
ptResWithEta->Draw();
c8->SaveAs("ptResWithEta.png");
TCanvas *c9 = MakeCanvas("c9", "Tau P_{T} Resolution", 800, 600);
ptJetResWithPT->SetMarkerStyle(1);
ptJetResWithPT->GetXaxis()->SetTitle("P_{T} of Generator Tau Jet");
ptJetResWithPT->GetYaxis()->SetTitle("P_{T} Resolution");
ptJetResWithPT->Draw();
ptJetResCorrWithPT->SetMarkerStyle(1);
ptJetResCorrWithPT->SetLineColor(2);
ptJetResCorrWithPT->Draw("same");
c9->SaveAs("ptJetResWithPT.png");
TCanvas *c10 = MakeCanvas("c10", "Tau P_{T} Resolution ((reco Tau Jet P_{T} - gen Tau Jet P_{T})/gen Tau Jet P_{T})", 800, 600);
ptJetResWithEta->SetMarkerStyle(1);
ptJetResWithEta->GetXaxis()->SetTitle("Eta of Generator Tau Jet");
ptJetResWithEta->GetYaxis()->SetTitle("P_{T} Resolution");
ptJetResWithEta->Draw();
ptJetResCorrWithEta->SetMarkerStyle(1);
ptJetResCorrWithEta->SetLineColor(2);
ptJetResCorrWithEta->Draw("same");
c10->SaveAs("ptJetResWithEta.png");
*/
}
void fitBjetJES(int ppPbPb=1, int cbinlo=12, int cbinhi=40){
if(!ppPbPb){
cbinlo=0;
cbinhi=40;
}
gStyle->SetOptTitle(0);
gStyle->SetOptStat(0);
TFile *fL;
if(!ppPbPb)fL=new TFile("histos/ppMC_hiReco_jetTrig_highPurity_JEC.root");
else fL=new TFile("histos/PbPbQCDMC_pt30by3_ipHICalibCentWeight.root");
// these are dummy files for pp
TFile *fB=new TFile("histos/PbPbBMC_pt30by3_ipHICalibCentWeight.root");
TFile *fC=new TFile("histos/PbPbCMC_pt30by3_ipHICalibCentWeight.root");
TNtuple *tL = (TNtuple*) fL->Get("nt");
TNtuple *tB = (TNtuple*) fB->Get("nt");
TNtuple *tC = (TNtuple*) fC->Get("nt");
float jtptL, refptL, jtetaL, weightL, refparton_flavorForBL, binL;
tL->SetBranchAddress("jtpt",&jtptL);
tL->SetBranchAddress("jteta",&jtetaL);
tL->SetBranchAddress("refpt",&refptL);
tL->SetBranchAddress("weight",&weightL);
if(ppPbPb)tL->SetBranchAddress("bin",&binL);
tL->SetBranchAddress("refparton_flavorForB",&refparton_flavorForBL);
float jtptB, refptB, jtetaB, weightB, refparton_flavorForBB, binB;
tB->SetBranchAddress("jtpt",&jtptB);
tB->SetBranchAddress("jteta",&jtetaB);
tB->SetBranchAddress("refpt",&refptB);
tB->SetBranchAddress("weight",&weightB);
if(ppPbPb)tB->SetBranchAddress("bin",&binB);
tB->SetBranchAddress("refparton_flavorForB",&refparton_flavorForBB);
float jtptC, refptC, jtetaC, weightC, refparton_flavorForBC, binC;
tC->SetBranchAddress("jtpt",&jtptC);
tC->SetBranchAddress("jteta",&jtetaC);
tC->SetBranchAddress("refpt",&refptC);
tC->SetBranchAddress("weight",&weightC);
if(ppPbPb)tC->SetBranchAddress("bin",&binC);
tC->SetBranchAddress("refparton_flavorForB",&refparton_flavorForBC);
TProfile *hL = new TProfile("hL","hL",250,50,300,0,10);
TProfile *hB = new TProfile("hB","hB",250,50,300,0,10);
TProfile *hC = new TProfile("hC","hC",250,50,300,0,10);
hL->Sumw2(),hB->Sumw2(),hC->Sumw2();
for(int i=0;i<tL->GetEntries();i++){
tL->GetEntry(i);
if(!ppPbPb) binL=39;
if(fabs(jtetaL)<2 && binL>=cbinlo && binL<cbinhi)
hL->Fill(refptL,jtptL/refptL,weightL);
if(!ppPbPb){
if(fabs(jtetaL)<2 && binL>=cbinlo && binL<cbinhi && abs(refparton_flavorForBL)==5)
hB->Fill(refptL,jtptL/refptL,weightL);
if(fabs(jtetaL)<2 && binL>=cbinlo && binL<cbinhi && abs(refparton_flavorForBL)==4)
hC->Fill(refptL,jtptL/refptL,weightL);
}
}
if(ppPbPb){
for(int i=0;i<tB->GetEntries();i++){
tB->GetEntry(i);
if(fabs(jtetaB)<2 && binB>=cbinlo && binB<cbinhi && abs(refparton_flavorForBB)==5)
hB->Fill(refptB,jtptB/refptB,weightB);
}
for(int i=0;i<tC->GetEntries();i++){
tC->GetEntry(i);
if(fabs(jtetaC)<2 && binC>=cbinlo && binC<cbinhi && abs(refparton_flavorForBC)==4)
hC->Fill(refptC,jtptC/refptC,weightC);
}
}
hL->SetMinimum(0.);
hL->SetLineColor(kBlue);
hB->SetLineColor(kRed);
hC->SetLineColor(kGreen);
hL->SetMarkerColor(kBlue);
hB->SetMarkerColor(kRed);
hC->SetMarkerColor(kGreen);
//hL->SetMarkerStyle(4);
//hB->SetMarkerStyle(4);
//hC->SetMarkerStyle(4);
hL->SetXTitle("genJet p_{T} (GeV/c)");
hL->SetYTitle("<reco p_{T} / gen p_{T} >");
hL->GetXaxis()->SetRangeUser(50.,199.999);
hL->GetYaxis()->SetRangeUser(0.5,1.05);
TCanvas *c1=new TCanvas("c1","c1",800,600);
c1->SetGridx(1);
c1->SetGridy(1);
hL->Draw("e1");
hB->Draw("e1,same");
hC->Draw("e1,same");
TLegend *leg=new TLegend(0.4,0.15,0.9,0.45);
leg->SetBorderSize(0);
leg->SetFillStyle(0);
if(ppPbPb&&cbinlo==0&&cbinhi==40)leg->SetHeader("Pythia+Hydjet, 0-100%");
leg->AddEntry(hL,"Inclusive jets","pl");
leg->AddEntry(hC,"c-jets","pl");
leg->AddEntry(hB,"b-jets","pl");
leg->Draw();
TCanvas *c2=new TCanvas("c2","c2",1);
/*
TH1F *hL2 = (TH1F*)hL->Clone("hL2");
TH1F *hB2 = (TH1F*)hB->Clone("hB2");
hL2->Add(hB2,-1);
hL2->Draw();
*/
TH1F *hcorr = new TH1F("hcorr","hcorr",250,50,300);
hcorr->Sumw2();
for(int i=0;i<hL->GetNbinsX();i++){
cout<<" b resp "<<hB->GetBinContent(i+1)<<endl;
cout<<" l resp "<<hL->GetBinContent(i+1)<<endl;
cout<<" l offset "<<1.-hL->GetBinContent(i+1)<<endl;
cout<<" corrected b resp "<<hB->GetBinContent(i+1)+1.-hL->GetBinContent(i+1)<<endl;
float jesOffset = 1.-hL->GetBinContent(i+1);
hcorr->SetBinContent(i+1,hB->GetBinContent(i+1)+jesOffset);
hcorr->SetBinError(i+1,sqrt(hB->GetBinError(i+1)*hB->GetBinError(i+1)+hL->GetBinError(i+1)*hL->GetBinError(i+1)));
}
hcorr->SetMinimum(0.5);
hcorr->SetMaximum(1.1);
hcorr->SetLineColor(kRed);
hcorr->SetMarkerColor(kRed);
hcorr->SetMarkerStyle(4);
hcorr->Draw();
TF1 *fCorr = new TF1("fCorr","[0]+[1]*log(x)+[2]*log(x)*log(x)",50,300);
fCorr->SetLineWidth(1);
fCorr->SetLineColor(kBlue);
hcorr->Fit(fCorr);
TFile *fout;
if(ppPbPb) fout =new TFile(Form("bJEShistos/bJetScale_PbPb_Cent_fineBin_%d_%d.root",cbinlo,cbinhi),"recreate");
else fout =new TFile("bJEShistos/bJetScale_PP_fineBin.root","recreate");
hcorr->Write();
fCorr->Write();
fout->Close();
}
void Analyzer(string MODE="COMPILE")
{
if(MODE=="COMPILE") return;
system("mkdir pictures");
setTDRStyle();
gStyle->SetPadTopMargin (0.06);
gStyle->SetPadBottomMargin(0.15);
gStyle->SetPadRightMargin (0.03);
gStyle->SetPadLeftMargin (0.07);
gStyle->SetTitleSize(0.04, "XYZ");
gStyle->SetTitleXOffset(1.1);
gStyle->SetTitleYOffset(1.35);
gStyle->SetPalette(1);
gStyle->SetNdivisions(505,"X");
TH1::AddDirectory(kTRUE);
system("mkdir pictures/");
string saveName = "dedx";
TFile* OutputHisto = new TFile((string("pictures/") + "/Histos.root").c_str(),"RECREATE");
TH1D* HdedxMIP = new TH1D( (saveName + "_MIP" ).c_str(), "MIP" , 1000, 0, 10);
TH2D* HdedxVsP = new TH2D( (saveName + "_dedxVsP").c_str(), "dedxVsP", 3000, 0, 30,1500,0,15);
TH2D* HdedxVsPM = new TH2D( (saveName + "_dedxVsPM").c_str(), "dedxVsPM", 3000, 0, 30,1500,0,15);
TH2D* HdedxVsQP = new TH2D( (saveName + "_dedxVsQP").c_str(), "dedxVsQP", 6000, -30, 30,1500,0,25);
TProfile* HdedxVsPProfile = new TProfile((saveName + "_Profile").c_str(), "Profile", 100, 0,100);
TProfile* HdedxVsEtaProfile = new TProfile((saveName + "_Eta" ).c_str(), "Eta" , 100,-3, 3);
TH2D* HdedxVsEta = new TH2D ((saveName + "_Eta2D" ).c_str(), "Eta" , 100,-3, 3, 1000,0,5);
TProfile* HNOSVsEtaProfile = new TProfile((saveName + "_NOS" ).c_str(), "NOS" , 100,-3, 3);
TProfile* HNOMVsEtaProfile = new TProfile((saveName + "_NOM" ).c_str(), "NOM" , 100,-3, 3);
TProfile* HNOMSVsEtaProfile = new TProfile((saveName + "_NOMS" ).c_str(), "NOMS" , 100,-3, 3);
TH1D* HMass = new TH1D( (saveName + "_Mass" ).c_str(), "Mass" , 500, 0, 10);
TH1D* HP = new TH1D( (saveName + "_P" ).c_str(), "P" , 500, 0, 100);
TH1D* HHit = new TH1D( (saveName + "_Hit" ).c_str(), "P" , 600, 0, 6);
TH2D* HIasVsP = new TH2D( (saveName + "_IasVsP").c_str(), "IasVsP", 3000, 0, 30,1500,0,1);
TH2D* HIasVsPM = new TH2D( (saveName + "_IasVsPM").c_str(), "IasVsPM", 3000, 0, 30,1500,0,1);
TH1D* HIasMIP = new TH1D( (saveName + "_IasMIP" ).c_str(), "IasMIP" , 1000, 0, 1);
reco::DeDxData* emptyDeDx = new reco::DeDxData(0,0,0);
// TH3F* dEdxTemplates = loadDeDxTemplate("../../../data/Data7TeV_Deco_SiStripDeDxMip_3D_Rcd.root");
// TH3F* dEdxTemplates = loadDeDxTemplate("../../../data/MC7TeV_Deco_SiStripDeDxMip_3D_Rcd.root");
// TH3F* dEdxTemplates = loadDeDxTemplate("../../../data/Discrim_Templates_MC_2012b.root");
TH3F* dEdxTemplates = loadDeDxTemplate("../../../data/Discrim_Templates_MC_2012_new2.root");
double SF = 1.05; //0.9;
std::vector<string> FileName;
// FileName.push_back("root://eoscms//eos/cms/store/cmst3/user/querten/12_11_19_MC_dEdx/dedx_data_2012.root");
FileName.push_back("root://eoscms//eos/cms/store/cmst3/user/querten/12_11_19_MC_dEdx/dedx_mc_2012.root");
fwlite::ChainEvent ev(FileName);
printf("Progressing Bar :0%% 20%% 40%% 60%% 80%% 100%%\n");
printf("Looping on Tree :");
int TreeStep = ev.size()/50;
if(TreeStep==0)TreeStep=1;
for(Long64_t e=0; e<ev.size(); e++) {
// if(e>5000)break;
ev.to(e);
if(e%TreeStep==0) {
printf(".");
fflush(stdout);
}
fwlite::Handle< std::vector<reco::Track> > trackCollHandle;
trackCollHandle.getByLabel(ev,"TrackRefitter");
if(!trackCollHandle.isValid()) {
printf("Invalid trackCollHandle\n");
continue;
}
for(unsigned int c=0; c<trackCollHandle->size(); c++) {
reco::TrackRef track = reco::TrackRef( trackCollHandle.product(), c );
if(track->chi2()/track->ndof()>5 )continue; //WAS >1
if(track->found()<8)continue;
///////////////
fwlite::Handle<HSCPDeDxInfoValueMap> dEdxHitsH;
dEdxHitsH.getByLabel(ev, "dedxHitInfo");
if(!dEdxHitsH.isValid()) {
printf("Invalid dEdxHitInfo\n");
return;
}
const ValueMap<HSCPDeDxInfo>& dEdxHitMap = *dEdxHitsH.product();
const HSCPDeDxInfo& hscpHitsInfo = dEdxHitMap.get((size_t)track.key());
for(unsigned int h=0; h<hscpHitsInfo.charge.size(); h++) {
DetId detid(hscpHitsInfo.detIds[h]);
if(detid.subdetId()<3)continue; // skip pixels
if(!hscpHitsInfo.shapetest[h])continue;
double Norm = (detid.subdetId()<3)?3.61e-06:3.61e-06*265;
Norm*=10.0; //mm --> cm
Norm*=SF;
HHit->Fill(Norm * hscpHitsInfo.charge[h]/hscpHitsInfo.pathlength[h]);
// vect_charge.push_back(Norm*hscpHitsInfo.charge[h]/hscpHitsInfo.pathlength[h]);
}
//////////////
reco::DeDxData* dedxObj = dEdxEstimOnTheFly(ev, track, emptyDeDx, SF);
reco::DeDxData* dedxIasObj = dEdxOnTheFly(ev, track, emptyDeDx, SF, dEdxTemplates, false);
if(track->pt()>20 && track->pt()<40 && dedxObj->numberOfMeasurements()>6 ) {
HdedxVsEtaProfile->Fill(track->eta(), dedxObj->dEdx() );
HdedxVsEta->Fill(track->eta(), dedxObj->dEdx() );
HNOMVsEtaProfile->Fill(track->eta(),dedxObj->numberOfMeasurements() );
HNOSVsEtaProfile->Fill(track->eta(),dedxObj->numberOfSaturatedMeasurements() );
HNOMSVsEtaProfile->Fill(track->eta(),dedxObj->numberOfMeasurements() - dedxObj->numberOfSaturatedMeasurements() );
}
if(fabs(track->eta())>2.1)continue;
if((int)dedxObj->numberOfMeasurements()<10)continue;
if(track->p()>5 && track->p()<40) {
HdedxMIP->Fill(dedxObj->dEdx());
HP->Fill(track->p());
HIasMIP->Fill(dedxIasObj->dEdx());
}
HdedxVsP ->Fill(track->p(), dedxObj->dEdx() );
HdedxVsQP->Fill(track->p()*track->charge(), dedxObj->dEdx() );
HIasVsP ->Fill(track->p(), dedxIasObj->dEdx() );
if(fabs(track->eta())<0.4)HdedxVsPProfile->Fill(track->p(), dedxObj->dEdx() );
double Mass = GetMass(track->p(),dedxObj->dEdx(), false);
if(dedxObj->dEdx()>4.0 && track->p()<3.0) {
HMass->Fill(Mass);
if(isnan((float)Mass) || Mass<0.94-0.3 || Mass>0.94+0.3)continue;
HdedxVsPM ->Fill(track->p(), dedxObj->dEdx() );
HIasVsPM ->Fill(track->p(), dedxIasObj->dEdx() );
}
}
}
OutputHisto->Write();
OutputHisto->Close();
}
// ****************************************************************
//XXX: main
int main(int argc, char* argv[])
{
//
// **** May 20 2010 update ****
// Usage: CreateEcalTimingCalibsEE fileWithTree options...
//
using namespace std;
// Ao dependent timing corrections
timeCorrectionEE_ = new TF1("timeCorrectionEE_","pol4(0)",0,1.2);
//coefficients obtained in the interval (0, 1.5) from Low eta region < 2.2, run 144011
timeCorrectionEE_->SetParameters(-0.461192,0.0876435,-0.234752,0.143774,-0.051990);
// For selection cuts
string inBxs, inOrbits, inTrig, inTTrig, inLumi, inRuns;
float avgTimeMin, avgTimeMax;
float minAmpEB, minAmpEE;
float maxE1E9, maxSwissCrossNoise; // EB only, no spikes seen in EE
float maxHitTimeEE, minHitTimeEE;
// init to sensible defaults
avgTimeMin = -1; // in ns
avgTimeMax = 1; // in ns
minAmpEB = 5; // GeV
minAmpEE = 5; // GeV
maxHitTimeEE = 15; // ns
minHitTimeEE = -15; // ns
maxE1E9 = 0.95; // EB only
maxSwissCrossNoise = 0.95; // EB only
inBxs = "-1";
inOrbits = "-1";
inTrig = "-1";
inTTrig = "-1";
inLumi = "-1";
inRuns = "-1";
char* infile = argv[1];
if (!infile)
{
cout << " No input file specified !" << endl;
return -1;
}
//TODO: Replace this with the parseArguments function from the pi0 binary
std::string stringGenericOption = "--";
for (int i=1 ; i<argc ; i++) {
if (argv[i] == std::string("-bxs") && argc>i+1) inBxs = std::string(argv[i+1]);
if (argv[i] == std::string("-orbits") && argc>i+1) inOrbits = std::string(argv[i+1]);
if (argv[i] == std::string("-trig") && argc>i+1) inTrig = std::string(argv[i+1]);
if (argv[i] == std::string("-ttrig") && argc>i+1) inTTrig = std::string(argv[i+1]);
if (argv[i] == std::string("-lumi") && argc>i+1) inLumi = std::string(argv[i+1]);
if (argv[i] == std::string("-runs") && argc>i+1) inRuns = std::string(argv[i+1]);
if (argv[i] == std::string("-ebampmin") && argc>i+1) minAmpEB = atof(argv[i+1]);
if (argv[i] == std::string("-eeampmin") && argc>i+1) minAmpEE = atof(argv[i+1]);
if (argv[i] == std::string("-e1e9max") && argc>i+1) maxE1E9 = atof(argv[i+1]);
if (argv[i] == std::string("-swisskmax") && argc>i+1) maxSwissCrossNoise = atof(argv[i+1]);
if (argv[i] == std::string("-avgtimemin") && argc>i+1) avgTimeMin = atof(argv[i+1]);
if (argv[i] == std::string("-avgtimemax") && argc>i+1) avgTimeMax = atof(argv[i+1]);
if (argv[i] == std::string("-eehittimemax") && argc>i+1) maxHitTimeEE = atof(argv[i+1]);
if (argv[i] == std::string("-eehittimemin") && argc>i+1) minHitTimeEE = atof(argv[i+1]);
// handle here the case of multiple arguments for input files
if (argv[i] == std::string("--i"))// && argc>i+1)
{
for (int u=i+1; u<argc; u++)
{
if ( 0==std::string(argv[u]).find( stringGenericOption ) )
{
if ( 0==listOfFiles_.size()) {std::cout << "no input files listed" << std::cout;}
else {std::cout << "no more files listed, found: " << argv[u] << std::cout;}
break;
}
else
{
listOfFiles_.push_back(argv[u]);
i++;
}
}// loop on arguments following --i
continue;
}//end 'if input files'
}
// Open the input files
if (listOfFiles_.size()==0){
std::cout << "\tno input file found" << std::endl;
return(1);
}
else{
std::cout << "\tfound " << listOfFiles_.size() << " input files: " << std::endl;
for(std::vector<std::string>::const_iterator file_itr=listOfFiles_.begin(); file_itr!=listOfFiles_.end(); file_itr++){
std::cout << "\t" << (*file_itr) << std::endl;
}
}
// Tree construction
TChain* chain = new TChain ("EcalTimeAnalysis") ;
std::vector<std::string>::const_iterator file_itr;
for(file_itr=listOfFiles_.begin(); file_itr!=listOfFiles_.end(); file_itr++){
chain->Add( (*file_itr).c_str() );
}
cout << "Running with options: "
<< "avgTimeMin: " << avgTimeMin << " avgTimeMax: " << avgTimeMax
<< " minAmpEB: " << minAmpEB << " minAmpEE: " << minAmpEE
<< " maxHitTimeEE: " << maxHitTimeEE << " minHitTimeEE: " << minHitTimeEE
<< " inTrig: " << inTrig << " inTTrig: " << inTTrig << " inLumi: " << inLumi
<< " inBxs: " << inBxs << " inRuns: " << inRuns << " inOrbits: " << inOrbits
<< endl;
// Ignore warnings
gErrorIgnoreLevel = 2001;
setBranchAddresses(chain,treeVars_);
// Generate all the vectors for skipping selections
std::vector<std::vector<double> > bxIncludeVector;
std::vector<std::vector<double> > bxExcludeVector;
std::vector<std::vector<double> > orbitIncludeVector;
std::vector<std::vector<double> > orbitExcludeVector;
std::vector<std::vector<double> > trigIncludeVector;
std::vector<std::vector<double> > trigExcludeVector;
std::vector<std::vector<double> > ttrigIncludeVector;
std::vector<std::vector<double> > ttrigExcludeVector;
std::vector<std::vector<double> > lumiIncludeVector;
std::vector<std::vector<double> > lumiExcludeVector;
std::vector<std::vector<double> > runIncludeVector;
std::vector<std::vector<double> > runExcludeVector;
//recall: string inBxs, inOrbits, inTrig, inTTrig, inLumi, inRuns;
genIncludeExcludeVectors(inBxs,bxIncludeVector,bxExcludeVector);
genIncludeExcludeVectors(inOrbits,orbitIncludeVector,orbitExcludeVector);
genIncludeExcludeVectors(inTrig,trigIncludeVector,trigExcludeVector);
genIncludeExcludeVectors(inTTrig,ttrigIncludeVector,ttrigExcludeVector);
genIncludeExcludeVectors(inLumi,lumiIncludeVector,lumiExcludeVector);
genIncludeExcludeVectors(inRuns,runIncludeVector,runExcludeVector);
// Open output file and book hists
string fileNameBeg = "timingCalibsEE";
string rootFilename = fileNameBeg+".root";
TFile* outfile = new TFile(rootFilename.c_str(),"RECREATE");
outfile->cd();
TH1F* calibHistEE = new TH1F("timingCalibsEE","timingCalibs EE [ns]",2000,-100,100);
TH1F* calibErrorHistEE = new TH1F("timingCalibErrorEE","timingCalibError EE [ns]",500,0,5);
calibHistEE->Sumw2();
calibErrorHistEE->Sumw2();
TH2F* calibsVsErrors = new TH2F("timingCalibsAndErrors","TimingCalibs vs. errors [ns]",500,0,5,100,0,10);
calibsVsErrors->Sumw2();
//TH2F* calibMapEE = new TH2F("calibMapEE","time calib map EE",360,1,361,170,-86,86);
//TH2F* calibMapEEFlip = new TH2F("calibMapEEFlip","time calib map EE",170,-86,86,360,1,361);
//TH2F* calibMapEEPhase = new TH2F("calibMapEEPhase","time calib map EE (phase of Tmax)",360,1,361,170,-86,86);
//TH2F* calibMapEtaAvgEE = new TH2F("calibMapEtaAvgEE","time calibs raw eta avg map EE",360,1,361,170,-86,86);
//TH1F* calibHistEtaAvgEE = new TH1F("timingCalibsEtaAvgEE","EtaAvgTimingCalibs EE [ns]",2000,-100,100);
TH2F* hitsPerCryMapEEM = new TH2F("hitsPerCryMapEEM","Hits per cry EEM;ix;iy",100,1,101,100,1,101);
TH2F* hitsPerCryMapEEP = new TH2F("hitsPerCryMapEEP","Hits per cry EEP;ix;iy",100,1,101,100,1,101);
TH1F* hitsPerCryHistEEM = new TH1F("hitsPerCryHistEEM","Hits per cry EEM;hashedIndex",14648,0,14648);
TH1F* hitsPerCryHistEEP = new TH1F("hitsPerCryHistEEP","Hits per cry EEP;hashedIndex",14648,0,14648);
//TH1C* eventsEEMHist = new TH1C("numEventsEEM","Number of events, EEM",100,0,100);
//TH1C* eventsEEPHist = new TH1C("numEventsEEP","Number of events, EEP",100,0,100);
TProfile* ampProfileEEM = new TProfile("ampProfileEEM","Amp. profile EEM;hashedIndex",14648,0,14648);
TProfile* ampProfileEEP = new TProfile("ampProfileEEP","Amp. profile EEP;hashedIndex",14648,0,14648);
TProfile2D* ampProfileMapEEP = new TProfile2D("ampProfileMapEEP","Amp. profile EEP;ix;iy",100,1,101,100,1,101);
TProfile2D* ampProfileMapEEM = new TProfile2D("ampProfileMapEEM","Amp. profile EEM;ix;iy",100,1,101,100,1,101);
//TH1F* eventsEEHist = new TH1F("numEventsEE","Number of events, EE",100,0,100);
//TH1F* calibSigmaHist = new TH1F("timingSpreadEE","Crystal timing spread [ns]",1000,-5,5);
TH1F* sigmaHistEE = new TH1F("sigmaCalibsEE"," Sigma of calib distributions EE [ns]",100,0,1);
//TH1F* chiSquaredEachEventHist = new TH1F("chi2eachEvent","Chi2 of each event",500,0,500);
//TH2F* chiSquaredVsAmpEachEventHist = new TH2F("chi2VsAmpEachEvent","Chi2 vs. amplitude of each event",500,0,500,750,0,750);
//TH2F* chiSquaredHighMap = new TH2F("chi2HighMap","Channels with event #Chi^{2} > 100",360,1,361,170,-86,86);
//TH1F* chiSquaredTotalHist = new TH1F("chi2Total","Total chi2 of all events in each crystal",500,0,500);
//TH1F* chiSquaredSingleOverTotalHist = new TH1F("chi2SingleOverTotal","Chi2 of each event over total chi2",100,0,1);
//TH1F* ampEachEventHist = new TH1F("energyEachEvent","Energy of all events [GeV]",1000,0,10);
//TH1F* numPointsErasedHist = new TH1F("numPointsErased","Number of points erased per crystal",25,0,25);
//TProfile2D* myAmpProfile = (TProfile2D*)EBampProfile->Clone();
//myAmpProfile->Write();
TH1F* expectedStatPresHistEEM = new TH1F("expectedStatPresEEM","Avg. expected statistical precision EEM [ns], all crys",200,0,2);
TH2F* expectedStatPresVsObservedMeanErrHistEEM = new TH2F("expectedStatPresVsObsEEM","Expected stat. pres. vs. obs. error on mean each event EEM [ns]",200,0,2,200,0,2);
TH1F* expectedStatPresEachEventHistEEM = new TH1F("expectedStatPresSingleEventEEM","Expected stat. pres. each event EEM [ns]",200,0,2);
TH1F* expectedStatPresHistEEP = new TH1F("expectedStatPresEEP","Avg. expected statistical precision EEP [ns], all crys",200,0,2);
TH2F* expectedStatPresVsObservedMeanErrHistEEP = new TH2F("expectedStatPresVsObsEEP","Expected stat. pres. vs. obs. error on mean each event [ns] EEP",200,0,2,200,0,2);
TH1F* expectedStatPresEachEventHistEEP = new TH1F("expectedStatPresSingleEventEEP","Expected stat. pres. each event EEP [ns]",200,0,2);
TH2F* errorOnMeanVsNumEvtsHist = new TH2F("errorOnMeanVsNumEvts","Error_on_mean vs. number of events",50,0,50,200,0,2);
errorOnMeanVsNumEvtsHist->Sumw2();
TH1F* calibHistEEM = new TH1F("timingCalibsEEM","timingCalibs EEM [ns]",500,-25,25);
TH1F* calibHistEEP = new TH1F("timingCalibsEEP","timingCalibs EEP [ns]",500,-25,25);
TH1F* calibErrorHistEEM = new TH1F("calibErrorEEM","timingCalibError EEM [ns]",250,0,5);
TH1F* calibErrorHistEEP = new TH1F("calibErrorEEP","timingCalibError EEP [ns]",250,0,5);
calibHistEEM->Sumw2();
calibHistEEP->Sumw2();
calibErrorHistEEM->Sumw2();
calibErrorHistEEP->Sumw2();
TH2F* calibMapEEM = new TH2F("calibMapEEM","time calib map EEM",100,1,101,100,1,101);
TH2F* calibMapEEP = new TH2F("calibMapEEP","time calib map EEP",100,1,101,100,1,101);
calibMapEEM->Sumw2();
calibMapEEP->Sumw2();
TH2F* sigmaMapEEM = new TH2F("sigmaMapEEM","Sigma of time calib map EEM [ns];ix;iy",100,1.,101.,100,1,101);
TH2F* sigmaMapEEP = new TH2F("sigmaMapEEP","Sigma of time calib map EEP [ns];ix;iy",100,1.,101.,100,1,101);
TH2F* calibErrorMapEEM = new TH2F("calibErrorMapEEM","Error of time calib map EEM [ns];ix;iy",100,1.,101.,100,1,101);
TH2F* calibErrorMapEEP = new TH2F("calibErrorMapEEP","Error of time calib map EEP [ns];ix;iy",100,1.,101.,100,1,101);
TDirectory* cryDirEEP = gDirectory->mkdir("crystalTimingHistsEEP");
cryDirEEP->cd();
TH1C* cryTimingHistsEEP[100][100]; // [0][0] = ix 1, iy 1
for(int x=0; x < 100; ++x)
{
for(int y=0; y < 100; ++y)
{
if(!EEDetId::validDetId(x+1,y+1,1))
continue;
string histname = "EEP_cryTiming_ix";
histname+=intToString(x+1);
histname+="_iy";
histname+=intToString(y+1);
cryTimingHistsEEP[x][y] = new TH1C(histname.c_str(),histname.c_str(),660,-33,33);
cryTimingHistsEEP[x][y]->Sumw2();
}
}
outfile->cd();
TDirectory* cryDirEEM = gDirectory->mkdir("crystalTimingHistsEEM");
cryDirEEM->cd();
TH1C* cryTimingHistsEEM[100][100]; // [0][0] = ix 1, iy 1
for(int x=0; x < 100; ++x)
{
for(int y=0; y < 100; ++y)
{
if(!EEDetId::validDetId(x+1,y+1,-1))
continue;
string histname = "EEM_cryTiming_ix";
histname+=intToString(x+1);
histname+="_iy";
histname+=intToString(y+1);
cryTimingHistsEEM[x][y] = new TH1C(histname.c_str(),histname.c_str(),660,-33,33);
cryTimingHistsEEM[x][y]->Sumw2();
}
}
outfile->cd();
cout << "Making calibs..." << endl;
CrystalCalibration* eeCryCalibs[14648];
//XXX: Making calibs with weighted/unweighted mean
for(int i=0; i < 14648; ++i)
eeCryCalibs[i] = new CrystalCalibration(); //use weighted mean!
//eeCryCalibs[i] = new CrystalCalibration(false); //don't use weighted mean!
cout << "Looping over TTree...";
// Loop over the TTree
int numEventsUsed = 0;
int nEntries = chain->GetEntries();
cout << "Begin loop over TTree." << endl;
for(int entry = 0; entry < nEntries; ++entry)
{
chain->GetEntry(entry);
// Loop once to calculate average event time
float sumTime = 0;
int numCrysEE = 0;
for(int bCluster=0; bCluster < treeVars_.nClusters; bCluster++)
{
if(treeVars_.xtalInBCIEta[bCluster][0] != -999999) continue; // skip EB clusters
for(int cryInBC=0; cryInBC < treeVars_.nXtalsInCluster[bCluster]; cryInBC++)
{
sumTime += treeVars_.xtalInBCTime[bCluster][cryInBC];
numCrysEE++;
}
}
//debug
//cout << "Number of EE crys in event: " << numEEcrys << endl;
//XXX: Event cuts
if(sumTime/numCrysEE > avgTimeMax || sumTime/numCrysEE < avgTimeMin)
{
//cout << "Average event time: " << sumTime/numCrysEE << " so event rejected." << endl;
continue;
}
// check BX, orbit, lumi, run, L1 tech/phys triggers
bool keepEvent = includeEvent(treeVars_.bx,bxIncludeVector,bxExcludeVector)
&& includeEvent(treeVars_.orbit,orbitIncludeVector,orbitExcludeVector)
&& includeEvent(treeVars_.lumiSection,lumiIncludeVector,lumiExcludeVector)
&& includeEvent(treeVars_.runId,runIncludeVector,runExcludeVector)
&& includeEvent(treeVars_.l1ActiveTriggers,
treeVars_.l1NActiveTriggers,trigIncludeVector,trigExcludeVector)
&& includeEvent(treeVars_.l1ActiveTechTriggers,
treeVars_.l1NActiveTechTriggers,ttrigIncludeVector,ttrigExcludeVector);
if(!keepEvent)
continue;
numEventsUsed++;
// Loop over the EE crys and fill the map
for(int bCluster=0; bCluster < treeVars_.nClusters; bCluster++)
{
if(treeVars_.xtalInBCIEta[bCluster][0] != -999999) continue; // skip EB clusters
for(int cryInBC=0; cryInBC < treeVars_.nXtalsInCluster[bCluster]; cryInBC++)
{
int hashedIndex = treeVars_.xtalInBCHashedIndex[bCluster][cryInBC];
float cryTime = treeVars_.xtalInBCTime[bCluster][cryInBC];
float cryTimeError = treeVars_.xtalInBCTimeErr[bCluster][cryInBC];
float cryAmp = treeVars_.xtalInBCAmplitudeADC[bCluster][cryInBC];
float Ao = cryAmp/sigmaNoiseEE;
float AoLog = log10(Ao/25);
EEDetId det = EEDetId::unhashIndex(hashedIndex);
if(det==EEDetId()) // make sure DetId is valid
continue;
int ix = det.ix();
int iy = det.iy();
//XXX: RecHit cuts
bool keepHit = cryAmp >= minAmpEE
&& cryTime > minHitTimeEE
&& cryTime < maxHitTimeEE
&& AoLog > 0
&& AoLog < 1.2;
if(!keepHit)
continue;
//cout << "STUPID DEBUG: " << hashedIndex << " cryTime: " << cryTime << " cryTimeError: " << cryTimeError << " cryAmp: " << cryAmp << endl;
// Timing correction to take out the energy dependence if log10(ampliOverSigOfThis/25)
// is between 0 and 1.2 (about 1 and 13 GeV)
// amplitude dependent timing corrections
float timing = cryTime - timeCorrectionEE_->Eval(AoLog);
//FIXME
cryTimeError = 1;
eeCryCalibs[hashedIndex]->insertEvent(cryAmp,timing,cryTimeError,false);
//SIC Use when we don't have time_error available
//eeCryCalibs[hashedIndex]->insertEvent(cryAmp,cryTime,35/(cryAmp/1.2),false);
if(det.zside() < 0)
{
ampProfileEEM->Fill(hashedIndex,cryAmp);
ampProfileMapEEM->Fill(ix,iy,cryAmp);
}
else
{
ampProfileEEP->Fill(hashedIndex,cryAmp);
ampProfileMapEEP->Fill(ix,iy,cryAmp);
}
}
}
}
//create output text file
ofstream fileStream;
string fileName = fileNameBeg+".calibs.txt";
fileStream.open(fileName.c_str());
if(!fileStream.good() || !fileStream.is_open())
{
cout << "Couldn't open text file." << endl;
return -1;
}
//create problem channels text file
ofstream fileStreamProb;
string fileName2 = fileNameBeg+".problems.txt";
fileStreamProb.open(fileName2.c_str());
if(!fileStreamProb.good() || !fileStreamProb.is_open())
{
cout << "Couldn't open text file." << endl;
return -1;
}
// Create calibration container objects
EcalTimeCalibConstants timeCalibConstants;
EcalTimeCalibErrors timeCalibErrors;
cout << "Using " << numEventsUsed << " out of " << nEntries << " in the tree." << endl;
cout << "Creating calibs..." << endl;
float cryCalibAvg = 0;
int numCrysCalibrated = 0;
vector<int> hashesToCalibrateToAvg;
//Loop over all the crys
for(int hashedIndex=0; hashedIndex < 14648; ++hashedIndex)
{
EEDetId det = EEDetId::unhashIndex(hashedIndex);
if(det==EEDetId())
continue;
CrystalCalibration cryCalib = *(eeCryCalibs[hashedIndex]);
int x = det.ix();
int y = det.iy();
//chiSquaredTotalHist->Fill(cryCalib.totalChi2);
//expectedStatPresHistEB->Fill(sqrt(1/expectedPresSumEB));
//expectedStatPresVsObservedMeanErrHistEB->Fill(sigmaM,sqrt(1/expectedPresSumEB));
//XXX: Filter events at default 0.5*meanE threshold
cryCalib.filterOutliers();
//numPointsErasedHist->Fill(numPointsErased);
//Write cryTimingHists
vector<TimingEvent> times = cryCalib.timingEvents;
for(vector<TimingEvent>::const_iterator timeItr = times.begin();
timeItr != times.end(); ++timeItr)
{
if(det.zside() < 0)
{
float weight = 1/((timeItr->sigmaTime)*(timeItr->sigmaTime));
cryTimingHistsEEM[x-1][y-1]->Fill(timeItr->time,weight);
}
else
{
float weight = 1/((timeItr->sigmaTime)*(timeItr->sigmaTime));
cryTimingHistsEEP[x-1][y-1]->Fill(timeItr->time,weight);
}
}
if(det.zside() < 0)
{
cryDirEEM->cd();
cryTimingHistsEEM[x-1][y-1]->Write();
}
else
{
cryDirEEP->cd();
cryTimingHistsEEP[x-1][y-1]->Write();
}
outfile->cd();
if(det.zside() < 0)
{
hitsPerCryHistEEM->SetBinContent(hashedIndex+1,cryCalib.timingEvents.size());
hitsPerCryMapEEM->Fill(x,y,cryCalib.timingEvents.size());
}
else
{
hitsPerCryHistEEP->SetBinContent(hashedIndex+1,cryCalib.timingEvents.size());
hitsPerCryMapEEP->Fill(x,y,cryCalib.timingEvents.size());
}
// Make timing calibs
double p1 = cryCalib.mean;
double p1err = cryCalib.meanE;
//cout << "cry ieta: " << ieta << " cry iphi: " << iphi << " p1: " << p1 << " p1err: " << p1err << endl;
if(cryCalib.timingEvents.size() < 10)
{
fileStreamProb << "Cry (only " << cryCalib.timingEvents.size() << " events) was calibrated to avg: " << det.zside() << ", "
<< x <<", " << y << ", hash: "
<< hashedIndex
<< "\t Calib: " << p1 << "\t Error: " << p1err << std::endl;
hashesToCalibrateToAvg.push_back(hashedIndex);
continue;
}
// Make it so we can add calib to reco time
p1*=-1;
if(p1err < 0.5 && p1err > 0)
{
fileStream << "EE\t" << hashedIndex << "\t" << p1 << "\t\t" << p1err << endl;
if(det.zside() < 0)
{
calibHistEEM->Fill(p1);
//calibMapEEMFlip->Fill(y-85,x+1,p1);
calibMapEEM->Fill(x,y,p1);
//calibMapEEMPhase->Fill(x+1,y-85,p1/25-floor(p1/25));
//errorOnMeanVsNumEvtsHist->Fill(times.size(),p1err);
}
else
{
calibHistEEP->Fill(p1);
//calibMapEEPFlip->Fill(y-85,x+1,p1);
calibMapEEP->Fill(x,y,p1);
//calibMapEEPPhase->Fill(x+1,y-85,p1/25-floor(p1/25));
//errorOnMeanVsNumEvtsHist->Fill(times.size(),p1err);
}
cryCalibAvg+=p1;
++numCrysCalibrated;
//Store in timeCalibration container
EcalTimeCalibConstant tcConstant = p1;
EcalTimeCalibError tcError = p1err;
uint32_t rawId = EEDetId::unhashIndex(hashedIndex);
timeCalibConstants[rawId] = tcConstant;
timeCalibErrors[rawId] = tcError;
}
else
{
//std::cout << "Cry: " << y <<", " << x << ", hash: " << itr->first
// << "\t Calib: " << p1 << "\t Error: " << p1err << std::endl;
fileStreamProb << "Cry was calibrated to avg: " << x <<", " << y << ", hash: " << hashedIndex
<< "\t Calib: " << p1 << "\t Error: " << p1err << std::endl;
}
sigmaHistEE->Fill(cryCalib.stdDev);
if(det.zside() < 0)
{
//calibsVsErrorsEEM->Fill(p1err, p1 > 0 ? p1 : -1*p1);
calibErrorHistEEM->Fill(p1err);
calibErrorMapEEM->Fill(x,y,p1err);
sigmaMapEEM->Fill(x,y,cryCalib.stdDev);
}
else
{
//calibsVsErrorsEEP->Fill(p1err, p1 > 0 ? p1 : -1*p1);
calibErrorHistEEP->Fill(p1err);
calibErrorMapEEP->Fill(x,y,p1err);
sigmaMapEEP->Fill(x,y,cryCalib.stdDev);
}
}
fileStream.close();
fileStreamProb.close();
// Calc average
if(numCrysCalibrated > 0)
cryCalibAvg/=numCrysCalibrated;
cryCalibAvg-= 2.0833; // Global phase shift
// calibrate uncalibratable crys
for(vector<int>::const_iterator hashItr = hashesToCalibrateToAvg.begin();
hashItr != hashesToCalibrateToAvg.end(); ++hashItr)
{
//Store in timeCalibration container
EcalTimeCalibConstant tcConstant = cryCalibAvg;
EcalTimeCalibError tcError = 999;
uint32_t rawId = EEDetId::unhashIndex(*hashItr);
timeCalibConstants[rawId] = tcConstant;
timeCalibErrors[rawId] = tcError;
}
//Write XML files
cout << "Writing XML files." << endl;
EcalCondHeader header;
header.method_="testmethod";
header.version_="testversion";
header.datasource_="testdata";
header.since_=123;
header.tag_="testtag";
header.date_="Mar 24 1973";
string timeCalibFile = "EcalTimeCalibsEE.xml";
string timeCalibErrFile = "EcalTimeCalibErrorsEE.xml";
// Hack to prevent seg fault
EcalTimeCalibConstant tcConstant = 0;
EcalTimeCalibError tcError = 0;
uint32_t rawId = EBDetId::unhashIndex(0);
timeCalibConstants[rawId] = tcConstant;
timeCalibErrors[rawId] = tcError;
// End hack
EcalTimeCalibConstantsXMLTranslator::writeXML(timeCalibFile,header,timeCalibConstants);
EcalTimeCalibErrorsXMLTranslator::writeXML(timeCalibErrFile,header,timeCalibErrors);
cout << "Writing histograms." << endl;
outfile->cd();
calibHistEEM->SetXTitle("timingCalib [ns]");
calibHistEEM->Write();
calibHistEEP->SetXTitle("timingCalib [ns]");
calibHistEEP->Write();
calibErrorHistEEP->SetXTitle("uncertainty on mean [ns]");
calibErrorHistEEP->Write();
calibErrorHistEEM->SetXTitle("uncertainty on mean [ns]");
calibErrorHistEEM->Write();
calibErrorMapEEP->Write();
calibErrorMapEEM->Write();
sigmaHistEE->Write();
sigmaMapEEM->Write();
sigmaMapEEP->Write();
//can->Print("calibs1D.png");
//cout << "Writing calibVsErrors" << endl;
//calibsVsErrors->SetYTitle("AbsCalibConst");
//calibsVsErrors->SetXTitle("calibConstError");
//calibsVsErrors->Write();
//Move empty bins out of the way
int nxbins = calibMapEEM->GetNbinsX();
int nybins = calibMapEEM->GetNbinsY();
for(int i=0;i<=(nxbins+2)*(nybins+2); ++i)
{
double binentsM = calibMapEEM->GetBinContent(i);
if(binentsM==0)
{
calibMapEEM->SetBinContent(i,-1000);
}
double binentsP = calibMapEEP->GetBinContent(i);
if(binentsP==0)
{
calibMapEEP->SetBinContent(i,-1000);
}
}
calibMapEEM->SetXTitle("ix");
calibMapEEM->SetYTitle("iy");
calibMapEEM->Write();
calibMapEEP->SetXTitle("ix");
calibMapEEP->SetYTitle("iy");
calibMapEEP->Write();
//calibSigmaHist->SetXTitle("#sigma_{cryTime} [ns]");
//calibSigmaHist->Write();
// Old hist, commented Jun 15 2009
//avgAmpVsSigmaTHist->SetXTitle("#sigma_{cryTime} [ns]");
//avgAmpVsSigmaTHist->SetYTitle("Avg. amp. [adc]");
//avgAmpVsSigmaTHist->Write();
//errorOnMeanVsNumEvtsHist->SetXTitle("Events");
//errorOnMeanVsNumEvtsHist->SetYTitle("Error_on_mean [ns]");
//TProfile* theProf = (TProfile*) errorOnMeanVsNumEvtsHist->ProfileX();
//TF1* myFit = new TF1("myFit","[0]/sqrt(x)+[1]",0,50);
//myFit->SetRange(0,50);
////theProf->Fit("myFit");
//theProf->Write();
//errorOnMeanVsNumEvtsHist->Write();
//
//chiSquaredEachEventHist->Write();
//chiSquaredVsAmpEachEventHist->SetXTitle("amplitude [ADC]");
//chiSquaredVsAmpEachEventHist->SetYTitle("#Chi^{2}");
//chiSquaredVsAmpEachEventHist->Write();
//chiSquaredHighMap->SetXTitle("iphi");
//chiSquaredHighMap->SetYTitle("ieta");
//chiSquaredHighMap->Write();
//chiSquaredTotalHist->Write();
//chiSquaredSingleOverTotalHist->Write();
expectedStatPresHistEEM->Write();
expectedStatPresVsObservedMeanErrHistEEM->Write();
expectedStatPresEachEventHistEEM->Write();
expectedStatPresHistEEP->Write();
expectedStatPresVsObservedMeanErrHistEEP->Write();
expectedStatPresEachEventHistEEP->Write();
//ampEachEventHist->Write();
//numPointsErasedHist->Write();
hitsPerCryHistEEP->Write();
hitsPerCryMapEEP->Write();
hitsPerCryHistEEM->Write();
hitsPerCryMapEEM->Write();
ampProfileEEP->Write();
ampProfileMapEEP->Write();
ampProfileEEM->Write();
ampProfileMapEEM->Write();
//cout << "All done! Close input." << endl;
//f->Close();
//cout << "Close output and quit!" << endl;
outfile->Close();
cout << "done." << endl;
}
int main(int argc,char **argv){
//======================================================================
printf("z1: gROOT Reset \n");
// gROOT->Reset();
// gROOT->SetStyle("Plain");
gStyle->SetTitleFont(42); // title font
gStyle->SetTitleFontSize(0.07); // title font size
gStyle->SetLabelSize(0.05,"xy"); //
gStyle->SetStatFontSize(0.05); //for box size
gStyle->SetStatX(0.97); // for box x position
gStyle->SetStatW(0.25); // for box width
gStyle->SetOptFit(1111); // pcev
// for several root files:
//ifstream fnames("fileList");
ifstream fnames("../fileListV3");
TList* trList=new TList();
const int N=58;
const int n=N; // for 1st N files from fileList
TChain muon("prom/Muon/muonHB");
string fname;
char tmp[100];
for (int i=0; i<N; i++)
{
fnames>>fname;
fnames.getline(tmp,100,'\n');
cout<<fname<<"\n";
muon.Add(fname.c_str());
}
//muon.Print();
/*
TChain muon("prom/Muon/muonHB");
muon.Add("/afs/cern.ch/user/k/kropiv/scratch0/CosmicMuons/CosmicMuons43410_01.root");
muon.Add("/afs/cern.ch/user/k/kropiv/scratch0/CosmicMuons/CosmicMuons43410_02.root");
muon.Add("/afs/cern.ch/user/k/kropiv/scratch0/CosmicMuons/CosmicMuons43410_03.root");
*/
// creat root-file with histo
TH1::AddDirectory(true); // automatic add histograms (for latest versions of ROOT)
TFile *theFile =new TFile("Golden.root", "RECREATE");
theFile->cd();
/////////////////////////////////////////////////////////
//Declaration of leaves types
// ntuple creation:
// TFile* hOutputFile ;
Int_t run, event, NumMuonHBphiPlane, NumHBTowersMuon[50];
Int_t IdTowerPhiMuonIn[50], IdTowerPhiMuonOut[50], IdTowerEtaMuonIn[50], IdTowerEtaMuonOut[50];
Float_t TimeAvMuonHB[50];
Float_t PHIoutMuonHB[50], PHIinMuonHB[50], ETAoutMuonHB[50], ETAinMuonHB[50];
Float_t ImpXYmuonHB[50], ZImpXYmuonHB[50];
// Float_t ImpXYmuon[50], ZImpXYmuon[50],
Float_t PHIinTowerHB[50];
Float_t EmuonHB[50];
//
Float_t XinPosMuonDT[50], YinPosMuonDT[50], ZinPosMuonDT[50];
Float_t XoutPosMuonDT[50], YoutPosMuonDT[50], ZoutPosMuonDT[50];
Float_t LengthMuonHB[50], LengthMuonDT[50];
Int_t NumHitsMuonDT[50], NumHitsMuonDTall[50];
//
//int NumHBTowersMuon2[50];
Int_t IdTowerPhiMuonIn2[50], IdTowerPhiMuonOut2[50], IdTowerEtaMuonIn2[50], IdTowerEtaMuonOut2[50];
Float_t TimeAvMuonHB2[50], TimeAvMuonHBcut2[50], TimeAvMuonHBcutwide2[50], LengthMuonHB2[50];
Float_t EmuonHB2[50], EmuonHBcut2[50], EmuonHBcutwide2[50];
// make initialisation of Muons that not belong to the same Phi Plane in HB
Int_t NumMuonHBnoPhiPlane;
Int_t IdTowerMuonNoPlanePhiIn[50], IdTowerMuonNoPlanePhiOut[50];
Int_t IdTowerMuonNoPlaneEtaIn[50], IdTowerMuonNoPlaneEtaOut[50];
Float_t XinPosMuonNoPlaneDT[50], YinPosMuonNoPlaneDT[50], ZinPosMuonNoPlaneDT[50];
Float_t XoutPosMuonNoPlaneDT[50], YoutPosMuonNoPlaneDT[50], ZoutPosMuonNoPlaneDT[50];
Float_t ImpXYmuonNoPlaneDT[50], ZImpXYmuonNoPlaneDT[50], LengthMuonNoPlaneDT[50];
Int_t NumHitsMuonNoPlaneDTall[50];
// end ntuple creation
// Set branch addresses.
muon.SetBranchAddress("run",&run);
muon.SetBranchAddress("event",&event);
muon.SetBranchAddress("NumMuonHBphiPlane",&NumMuonHBphiPlane);
muon.SetBranchAddress("NumHBTowersMuon",NumHBTowersMuon);
muon.SetBranchAddress("TimeAvMuonHB",TimeAvMuonHB);
muon.SetBranchAddress("PHIoutMuonHB",PHIoutMuonHB);
muon.SetBranchAddress("ETAoutMuonHB",ETAoutMuonHB);
muon.SetBranchAddress("PHIinMuonHB",PHIinMuonHB);
muon.SetBranchAddress("ETAinMuonHB",ETAinMuonHB);
muon.SetBranchAddress("IdTowerPhiMuonIn",IdTowerPhiMuonIn);
muon.SetBranchAddress("IdTowerPhiMuonOut",IdTowerPhiMuonOut);
muon.SetBranchAddress("IdTowerEtaMuonIn",IdTowerEtaMuonIn);
muon.SetBranchAddress("IdTowerEtaMuonOut",IdTowerEtaMuonOut);
muon.SetBranchAddress("LengthMuonHB",LengthMuonHB);
muon.SetBranchAddress("ImpXYmuonHB",ImpXYmuonHB);
muon.SetBranchAddress("ZImpXYmuonHB",ZImpXYmuonHB);
muon.SetBranchAddress("EmuonHB",EmuonHB);
muon.SetBranchAddress("PHIinTowerHB",PHIinTowerHB);
muon.SetBranchAddress("IdTowerPhiMuonIn2",IdTowerPhiMuonIn2);
muon.SetBranchAddress("IdTowerPhiMuonOut2",IdTowerPhiMuonOut2);
muon.SetBranchAddress("IdTowerEtaMuonIn2",IdTowerEtaMuonIn2);
muon.SetBranchAddress("IdTowerEtaMuonOut2",IdTowerEtaMuonOut2);
muon.SetBranchAddress("LengthMuonHB2",LengthMuonHB2);
muon.SetBranchAddress("TimeAvMuonHB2",TimeAvMuonHB2);
muon.SetBranchAddress("TimeAvMuonHBcut2",TimeAvMuonHBcut2);
muon.SetBranchAddress("TimeAvMuonHBcutwide2",TimeAvMuonHBcutwide2);
muon.SetBranchAddress("EmuonHB2",EmuonHB2);
muon.SetBranchAddress("EmuonHBcut2",EmuonHBcut2);
muon.SetBranchAddress("EmuonHBcutwide2",EmuonHBcutwide2);
muon.SetBranchAddress("LengthMuonDT",LengthMuonDT);
muon.SetBranchAddress("NumHitsMuonDTall",NumHitsMuonDTall);
muon.SetBranchAddress("NumHitsMuonDT",NumHitsMuonDT);
muon.SetBranchAddress("XinPosMuonDT",XinPosMuonDT);
muon.SetBranchAddress("YinPosMuonDT",YinPosMuonDT);
muon.SetBranchAddress("ZinPosMuonDT",ZinPosMuonDT);
muon.SetBranchAddress("XoutPosMuonDT",XoutPosMuonDT);
muon.SetBranchAddress("YoutPosMuonDT",YoutPosMuonDT);
muon.SetBranchAddress("ZoutPosMuonDT",ZoutPosMuonDT);
//
muon.SetBranchAddress("NumMuonHBnoPhiPlane",&NumMuonHBnoPhiPlane);
muon.SetBranchAddress("IdTowerMuonNoPlanePhiIn",IdTowerMuonNoPlanePhiIn);
muon.SetBranchAddress("IdTowerMuonNoPlanePhiOut",IdTowerMuonNoPlanePhiOut);
muon.SetBranchAddress("IdTowerMuonNoPlaneEtaIn",IdTowerMuonNoPlaneEtaIn);
muon.SetBranchAddress("IdTowerMuonNoPlaneEtaOut",IdTowerMuonNoPlaneEtaOut);
muon.SetBranchAddress("XinPosMuonNoPlaneDT",XinPosMuonNoPlaneDT);
muon.SetBranchAddress("YinPosMuonNoPlaneDT",YinPosMuonNoPlaneDT);
muon.SetBranchAddress("ZinPosMuonNoPlaneDT",ZinPosMuonNoPlaneDT);
muon.SetBranchAddress("XoutPosMuonNoPlaneDT",XoutPosMuonNoPlaneDT);
muon.SetBranchAddress("YoutPosMuonNoPlaneDT",YoutPosMuonNoPlaneDT);
muon.SetBranchAddress("ZoutPosMuonNoPlaneDT",ZoutPosMuonNoPlaneDT);
muon.SetBranchAddress("ImpXYmuonNoPlaneDT",ImpXYmuonNoPlaneDT);
muon.SetBranchAddress("ZImpXYmuonNoPlaneDT",ZImpXYmuonNoPlaneDT);
muon.SetBranchAddress("LengthMuonNoPlaneDT",LengthMuonNoPlaneDT);
muon.SetBranchAddress("NumHitsMuonNoPlaneDTall",NumHitsMuonNoPlaneDTall);
// Create histo
//***************************************************************************************************
// 2nd (Partner) Muon is good: in one Phi Plane in HB
//matching between 2 muons
TH1F *hAngleMuonHB2DT = new TH1F("hAngleMuonHB2DT","Cos Angle between two muons, 2nd muon in one phi plane ", 100, 0.95, 1.02);
TH1F *hDeltaImpXYHB2DT = new TH1F("hDeltaImpXYHB2DT","delta ImpXY between two muons, 2nd muon in one phi plane ", 30, 0., 30.);
TH1F *hDeltaZImpXYHB2DT = new TH1F("hDeltaZImpXYHB2DT","delta ZImpXY between two muons, 2nd muon in one phi plane ", 50, 0., 100.);
TH1F *hPhiDeltaTowerHB2DT = new TH1F("hPhiDeltaTowerHB2DT","diviation from PhiTower center, 2nd muon in one phi plane ", 50, 0., 1.);
//Energy
TH1F *hEmuonHB2DTTopPlus = new TH1F("hEmuonHB2DTTopPlus","Emoun, Top+, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTTopMinus = new TH1F("hEmuonHB2DTTopMinus","Emoun, Top-, 2nd muon in one phi plane", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlus = new TH1F("hEmuonHB2DTBotPlus","Emoun, Bottom+, 2nd muon in one phi plane", 60, -2., 10.);
TH1F *hEmuonHB2DTBotMinus = new TH1F("hEmuonHB2DTBotMinus","Emoun, Bottom-, 2nd muon in one phi plane", 60, -2., 10.);
//Time
TH1F *hTimeMuonHB2DTTopPlus = new TH1F("hTimeMuonHB2DTTopPlus","TimeMoun, Top+, 2nd muon in one phi plane ", 60, -150., 150.);
TH1F *hTimeMuonHB2DTTopMinus = new TH1F("hTimeMuonHB2DTTopMinus","TimeMoun, Top-, 2nd muon in one phi plane ", 60, -150., 150.);
TH1F *hTimeMuonHB2DTBotPlus = new TH1F("hTimeMuonHB2DTBotPlus","TimeMoun, Bottom+, 2nd muon in one phi plane ", 60, -150., 150.);
TH1F *hTimeMuonHB2DTBotMinus = new TH1F("hTimeMuonHB2DTBotMinus","TimeMoun, Bottom-, 2nd muon in one phi plane ", 60, -150., 150.);
//Number Towers in Eta Plane passing by good muon
TH1F *hNumTowerMuonHB2DTTopPlus =
new TH1F("hNumTowerMuonHB2DTTopPlus","Number Towers of Moun, Top+, 2nd muon in one phi plane ", 11, -0.5, 10.5);
TH1F *hNumTowerMuonHB2DTTopMinus =
new TH1F("hNumTowerMuonHB2DTTopMinus","Number Towers of Moun, Top+, 2nd muon in one phi plane ", 11, -0.5, 10.5);
TH1F *hNumTowerMuonHB2DTBotPlus =
new TH1F("hNumTowerMuonHB2DTBotPlus","Number Towers of Moun, Bottom+, 2nd muon in one phi plane ", 11, -0.5, 10.5);
TH1F *hNumTowerMuonHB2DTBotMinus =
new TH1F("hNumTowerMuonHB2DTBotMinus","Number Towers of Moun, Bottom+, 2nd muon in one phi plane ", 11, -0.5, 10.5);
//idPhiTower for eta+ and eta-
TH1F *hIdPhiTowerHB2DTMinus = new TH1F("hIdPhiTowerHB2DTMinus", "IdPhiTower for eta-, 2nd muon in one phi plane ", 74, -0.5, 73.5);
TH1F *hIdPhiTowerHB2DTPlus = new TH1F("hIdPhiTowerHB2DTPlus", "IdPhiTower for eta+, 2nd muon in one phi plane ", 74, -0.5, 73.5);
// Muon Track quality in DT
TH1F *hNumHitsHB2DT = new TH1F("hNumHitsHB2DT", "Number Hits for analysing muon, 2nd muon in one phi plane ",61 , -0.5, 60.5);
TH1F *hNumHitsHB2DT2 = new TH1F("hNumHitsHB2DT2", "Number Hits for partner of analysing muon, 2nd muon in one phi plane ",61 , -0.5, 60.5);
TH1F *hLengthMuonDTHB2DT = new TH1F("hLengthMuonDTHB2DT", "Length of analysing muon in DT, 2nd muon in one phi plane ",100 , 0, 600);
TH1F *hLengthMuonDTHB2DT2 = new TH1F("hLengthMuonDTHB2DT2", "Length of partner of analysing muon in DT, 2nd muon in one phi plane ",100 , 0, 600);
// energy for time- and time+
TH1F *hEmuonHB2DTTopPlusTimePlus = new TH1F("hEmuonHB2DTTopPlusTimePlus","Emoun, Top+, Time+, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTTopMinusTimePlus = new TH1F("hEmuonHB2DTTopMinusTimePlus","Emoun, Top-, Time+, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimePlus = new TH1F("hEmuonHB2DTBotPlusTimePlus","Emoun, Bot+, Time+, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotMinusTimePlus = new TH1F("hEmuonHB2DTBotMinusTimePlus","Emoun, Bot-, Time+, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTTopPlusTimeMinus = new TH1F("hEmuonHB2DTTopPlusTimeMinus","Emoun, Top+, Time-, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTTopMinusTimeMinus = new TH1F("hEmuonHB2DTTopMinusTimeMinus","Emoun, Top-, Time-, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimeMinus = new TH1F("hEmuonHB2DTBotPlusTimeMinus","Emoun, Bot+, Time-, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotMinusTimeMinus = new TH1F("hEmuonHB2DTBotMinusTimeMinus","Emoun, Bot-, Time-, 2nd muon in one phi plane ", 60, -2., 10.);
// in different time:
TH1F *hEmuonHB2DTBotPlusTimePlus1 = new TH1F("hEmuonHB2DTBotPlusTimePlus1","Emoun, Bot+, Time+1, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimePlus2 = new TH1F("hEmuonHB2DTBotPlusTimePlus2","Emoun, Bot+, Time+2, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimePlus3 = new TH1F("hEmuonHB2DTBotPlusTimePlus3","Emoun, Bot+, Time+3, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimePlus4 = new TH1F("hEmuonHB2DTBotPlusTimePlus4","Emoun, Bot+, Time+4, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimeMinus1 = new TH1F("hEmuonHB2DTBotPlusTimeMinus1","Emoun, Bot+, Time-1, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimeMinus2 = new TH1F("hEmuonHB2DTBotPlusTimeMinus2","Emoun, Bot+, Time-2, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimeMinus3 = new TH1F("hEmuonHB2DTBotPlusTimeMinus3","Emoun, Bot+, Time-3, 2nd muon in one phi plane ", 60, -2., 10.);
TH1F *hEmuonHB2DTBotPlusTimeMinus4 = new TH1F("hEmuonHB2DTBotPlusTimeMinus4","Emoun, Bot+, Time-4, 2nd muon in one phi plane ", 60, -2., 10.);
// IdPhi vs Emuon
TH2F *hIdPhiPlusVsE = new TH2F("hIdPhiPlusVsE","IdPhiTower vs Emuon, HB+", 60, -2, 10, 74, -0.5, 73.5); // x, y coordiants
TH2F *hIdPhiMinusVsE = new TH2F("hIdPhiMinusVsE","IdPhiTower vs Emuon, HB-", 60, -2, 10, 74, -0.5, 73.5); // x, y coordiants
// IdEta vs Emuon
TH2F *hIdEtaTopVsE = new TH2F("hIdEtaTopVsE","IdEtaTower vs Emuon, Top HB", 60, -2, 10, 57, -14.25, 14.25); // x, y coordiants
TH2F *hIdEtaBotVsE = new TH2F("hIdEtaBotVsE","IdEtaTower vs Emuon, Bottom HB", 60, -2, 10, 57, -14.25, 14.25); // x, y coordiants
// contral plots
TH1F *hImpXYHB2DT = new TH1F("hImpXYHB2DT","ImpXY of analyzing muon, 2nd muon in one phi plane ", 50, 0., 50.);
TH1F *hZImpXYHB2DT = new TH1F("hZImpXYHB2DT","ZImpXY of analyzing muon, 2nd muon in one phi plane ", 100, -500., 500.);
TH2F *hLmuonDTImpXY = new TH2F("hLmuonDTImpXY","ImpXT vs Muon Length", 100, 0, 600, 40, 0, 40); // x, y coordiants
TH2F *hImpXYvsZ = new TH2F("hImpXYvsZ","ImpXY vs ZImpXY for muon", 40, 0, 40, 100, -500, 500); // x, y coordiants
//energy of selected muon in different part of phi Towers
TH1F *hEmuonPhiDetaTower1 = new TH1F("hEmuonPhiDetaTower1","Emoun in 1st:0-0.2 part of phi Towers ", 60, -2., 10.);
TH1F *hEmuonPhiDetaTower2 = new TH1F("hEmuonPhiDetaTower2","Emoun in 2nd:0.2-0.4 part of phi Towers ", 60, -2., 10.);
TH1F *hEmuonPhiDetaTower3 = new TH1F("hEmuonPhiDetaTower3","Emoun in 3th:0.4-0.6 part of phi Towers ", 60, -2., 10.);
TH1F *hEmuonPhiDetaTower4 = new TH1F("hEmuonPhiDetaTower4","Emoun in 4th:0.6-0.8 part of phi Towers ", 60, -2., 10.);
TH1F *hEmuonPhiDetaTower5 = new TH1F("hEmuonPhiDetaTower5","Emoun in 5th:0.8-0.9 part of phi Towers ", 60, -2., 10.);
TH1F *hEmuonPhiDetaTower6 = new TH1F("hEmuonPhiDetaTower6","Emoun in 6th:0.9-1. part of phi Towers ", 60, -2., 10.);
// fill TProfile for Time as iphi
TProfile *hProfTimeAsIdPhiMinus = new TProfile("hProfTimeAsIdPhiMinus","mean Time as IdPhi for ETA-",72,0.5,72.5,-150,150);
TProfile *hProfTimeAsIdPhiPlus = new TProfile("hProfTimeAsIdPhiPlus","mean Time as IdPhi for ETA+",72,0.5,72.5,-150,150);
TProfile *hProfTimeAsIdEtaTop = new TProfile("hProfTimeAsIdEtaTop","mean Time as IdEta for Top",57,-14.25,14.25,-150,150);
TProfile *hProfTimeAsIdEtaBot = new TProfile("hProfTimeAsIdEtaBot","mean Time as IdEta for Bot",57,-14.25,14.25,-150,150);
//***************************************************************************************************
// Start main loop on all events
// Event *eveall = new Event();
Int_t nevent = muon.GetEntries();
// calculate pi:
//float piG=acos(-1.);
float DeltaPhiTower = 0.08726646; // width of PhiTower
for (Int_t i=0;i<nevent;i++) {
muon.GetEntry(i);
// calculate anlge between good moun in one PhiPlane and other muons (could be also good or bad)
if(NumMuonHBphiPlane>0){
for(Int_t ik = 0; ik<NumMuonHBphiPlane;ik++){
int IsecondMuonDT = 0; // check if pair in DT to moun exists
//int IsecondMuonHB = 0; // check if pair in HB to moun exists
int maxTowerEta = 40; // maximal number of Towers crossing in eta
int minTowerEta = 0; // minimal number of Towers crossing in eta
// select muoun for wich we looking partner with |in and out IdTower|<=14,
// for partner it dosn't importent because we are not going to calculate it energy
if(fabs(IdTowerEtaMuonIn[ik])>14 || fabs(IdTowerEtaMuonOut[ik])>14)continue;
// check quality of muon
if(NumHitsMuonDTall[ik]<25)continue;
// calculate angle between good muons
for(Int_t jk = 0; jk<NumMuonHBphiPlane;jk++){
// check that this is not the same muon
if(ik==jk) continue;
// check quality of muon
//if(NumHitsMuonDTall[jk]<25)continue;
//check that both muons from different place of DT R(inDT1,inDT2)>600 cm
float R12;
R12=pow((XinPosMuonDT[ik]-XinPosMuonDT[jk]),2)+pow((YinPosMuonDT[ik]-YinPosMuonDT[jk]),2);
R12=sqrt(R12+pow((ZinPosMuonDT[ik]-ZinPosMuonDT[jk]),2));
if(R12<600)continue;
// calculate cos angle
float CosAngle;
float r1;
float r2;
float deltaIm;
float deltaZIm;
r1 = pow((XinPosMuonDT[ik]-XoutPosMuonDT[ik]),2)+pow((YinPosMuonDT[ik]-YoutPosMuonDT[ik]),2);
r1 = sqrt(r1+pow((ZinPosMuonDT[ik]-ZoutPosMuonDT[ik]),2));
r2 = pow((XinPosMuonDT[jk]-XoutPosMuonDT[jk]),2)+pow((YinPosMuonDT[jk]-YoutPosMuonDT[jk]),2);
r2 = sqrt(r2+pow((ZinPosMuonDT[jk]-ZoutPosMuonDT[jk]),2));
CosAngle = -0.1;
if(r1*r2>0){
CosAngle = (XinPosMuonDT[ik]-XoutPosMuonDT[ik])*(XinPosMuonDT[jk]-XoutPosMuonDT[jk]);
CosAngle = CosAngle+(YinPosMuonDT[ik]-YoutPosMuonDT[ik])*(YinPosMuonDT[jk]-YoutPosMuonDT[jk]);
CosAngle = CosAngle+(ZinPosMuonDT[ik]-ZoutPosMuonDT[ik])*(ZinPosMuonDT[jk]-ZoutPosMuonDT[jk]);
CosAngle = CosAngle/r1/r2;
deltaIm = fabs(ImpXYmuonHB[ik]-ImpXYmuonHB[jk]);
deltaZIm = fabs(ZImpXYmuonHB[ik]-ZImpXYmuonHB[jk]);
hAngleMuonHB2DT->Fill(CosAngle);
hDeltaImpXYHB2DT->Fill(deltaIm);
hDeltaZImpXYHB2DT->Fill(deltaZIm);
// make cut that 2nd muon in DT exists, do not make doulbe counting for histo filling
if(CosAngle>0.99&&deltaIm<10&&deltaZIm<20&&IsecondMuonDT==0){
IsecondMuonDT=1;
//calculate quality of Phi crossing:
float phiR;
phiR = fabs((PHIinMuonHB[ik]+PHIoutMuonHB[ik])/2-PHIinTowerHB[ik])/(DeltaPhiTower/2);
hPhiDeltaTowerHB2DT -> Fill(phiR);
if(phiR>0.8)continue;
float dLHB= 287.65-177.7;
// Top: 1<=iphi<=36, Bottom: 37<=iphi<=72
// +: ieta>0, -: ieta<0
// number crossing towers in eta < 5 for quolity energy
float eHB;
eHB = EmuonHB[ik]/LengthMuonHB[ik]*dLHB;
float tmuon;
tmuon = TimeAvMuonHB[ik];
float meanB=0; // difined mean time for top and bot
float rmsB=0; // difined mean time for top and but
// select that analized muon has good Time (+-1RMS) and belong to one part: Top+,Top-,Bot+ or Bot-
if(IdTowerPhiMuonIn[ik]>0&&IdTowerPhiMuonIn[ik]<37&&NumHBTowersMuon[ik]<=maxTowerEta&&NumHBTowersMuon[ik]>=minTowerEta){
// cout << " *** check *** " << std::endl;
if(IdTowerEtaMuonIn[ik]>0&&IdTowerEtaMuonOut[ik]>0){
//meanB=24.04;
//rmsB=23.02;
meanB=23.77;
rmsB=22.74;
if(fabs(tmuon-meanB)<=rmsB){
hEmuonHB2DTTopPlus ->Fill(eHB);
hNumTowerMuonHB2DTTopPlus->Fill(NumHBTowersMuon[ik]);
}
hTimeMuonHB2DTTopPlus ->Fill(tmuon);
if((tmuon-meanB)<0&&(tmuon-meanB)>(-rmsB))hEmuonHB2DTTopPlusTimeMinus->Fill(eHB); //cut on the tail one RMS
if((tmuon-meanB)>=0&&(tmuon-meanB)<rmsB)hEmuonHB2DTTopPlusTimePlus->Fill(eHB);
}
if(IdTowerEtaMuonIn[ik]<0&&IdTowerEtaMuonOut[ik]<0){
//meanB=22.01;
//rmsB=22.99;
meanB=22.02;
rmsB=22.8;
if(fabs(tmuon-meanB)<=rmsB){
hEmuonHB2DTTopMinus ->Fill(eHB);
hNumTowerMuonHB2DTTopMinus->Fill(NumHBTowersMuon[ik]);
}
hTimeMuonHB2DTTopMinus ->Fill(tmuon);
if((tmuon-meanB)<0&&(tmuon-meanB)>(-rmsB))hEmuonHB2DTTopMinusTimeMinus->Fill(eHB);
if((tmuon-meanB)>=0&&(tmuon-meanB)<rmsB)hEmuonHB2DTTopMinusTimePlus->Fill(eHB);
}
}
if(IdTowerPhiMuonIn[ik]>36&&IdTowerPhiMuonIn[ik]<73&&NumHBTowersMuon[ik]<=maxTowerEta&&NumHBTowersMuon[ik]>=minTowerEta){
if(IdTowerEtaMuonIn[ik]>0&&IdTowerEtaMuonOut[ik]>0){
//meanB=37.99;
//rmsB=23.7;
meanB=39.56;
rmsB=24.02;
if(fabs(tmuon-meanB)<=rmsB){
hEmuonHB2DTBotPlus ->Fill(eHB);
hNumTowerMuonHB2DTBotPlus->Fill(NumHBTowersMuon[ik]);
}
hTimeMuonHB2DTBotPlus ->Fill(tmuon);
if((tmuon-meanB)<0&&(tmuon-meanB)>(-rmsB))hEmuonHB2DTBotPlusTimeMinus->Fill(eHB);
if((tmuon-meanB)>=0&&(tmuon-meanB)<rmsB)hEmuonHB2DTBotPlusTimePlus->Fill(eHB);
// fill Emuon in different time:
if((tmuon-meanB)>=0&&(tmuon-meanB)<rmsB/2)hEmuonHB2DTBotPlusTimePlus1->Fill(eHB);
if((tmuon-meanB)>=rmsB/2&&(tmuon-meanB)<rmsB)hEmuonHB2DTBotPlusTimePlus2->Fill(eHB);
if((tmuon-meanB)>=rmsB&&(tmuon-meanB)<rmsB*1.5)hEmuonHB2DTBotPlusTimePlus3->Fill(eHB);
if((tmuon-meanB)>=rmsB*1.5)hEmuonHB2DTBotPlusTimePlus4->Fill(eHB);
if((tmuon-meanB)<0&&(tmuon-meanB)>=(-rmsB/2))hEmuonHB2DTBotPlusTimeMinus1->Fill(eHB);
if((tmuon-meanB)<(-rmsB/2)&&(tmuon-meanB)>=(-rmsB))hEmuonHB2DTBotPlusTimeMinus2->Fill(eHB);
if((tmuon-meanB)<(-rmsB)&&(tmuon-meanB)>=(-1.5*rmsB))hEmuonHB2DTBotPlusTimeMinus3->Fill(eHB);
if((tmuon-meanB)<(-rmsB*1.5))hEmuonHB2DTBotPlusTimeMinus4->Fill(eHB);
}
if(IdTowerEtaMuonIn[ik]<0&&IdTowerEtaMuonOut[ik]<0){
//meanB=33.51;
//rmsB=27.35;
meanB=34.84;
rmsB=27.31;
if(fabs(tmuon-meanB)<=rmsB){
hEmuonHB2DTBotMinus ->Fill(eHB);
hNumTowerMuonHB2DTBotMinus->Fill(NumHBTowersMuon[ik]);
}
hTimeMuonHB2DTBotMinus ->Fill(tmuon);
if((tmuon-meanB)<0&&(tmuon-meanB)>(-rmsB))hEmuonHB2DTBotMinusTimeMinus->Fill(eHB);
if((tmuon-meanB)>=0&&(tmuon-meanB)<rmsB)hEmuonHB2DTBotMinusTimePlus->Fill(eHB);
}
}
// if(IdTowerEtaMuonIn[ik]<0&&IdTowerEtaMuonOut[ik]<0){
// hProfTimeAsIdPhiMinus->Fill(IdTowerPhiMuonIn[ik],tmuon);
// }
// if(IdTowerEtaMuonIn[ik]>0&&IdTowerEtaMuonOut[ik]>0){
// hProfTimeAsIdPhiPlus->Fill(IdTowerPhiMuonIn[ik],tmuon);
// }
if(IdTowerPhiMuonIn[ik]>=8&&IdTowerPhiMuonIn[ik]<=28&&IdTowerEtaMuonIn[ik]>0&&IdTowerEtaMuonOut[ik]>0){
hProfTimeAsIdPhiPlus->Fill(IdTowerPhiMuonIn[ik],tmuon);
}
if(IdTowerPhiMuonIn[ik]>=8&&IdTowerPhiMuonIn[ik]<=27&&IdTowerEtaMuonIn[ik]<0&&IdTowerEtaMuonOut[ik]<0){
hProfTimeAsIdPhiMinus->Fill(IdTowerPhiMuonIn[ik],tmuon);
}
if(IdTowerPhiMuonIn[ik]>=43&&IdTowerPhiMuonIn[ik]<=65&&IdTowerEtaMuonIn[ik]>0&&IdTowerEtaMuonOut[ik]>0){
hProfTimeAsIdPhiPlus->Fill(IdTowerPhiMuonIn[ik],tmuon);
}
if(IdTowerPhiMuonIn[ik]>=47&&IdTowerPhiMuonIn[ik]<=64&&IdTowerEtaMuonIn[ik]<0&&IdTowerEtaMuonOut[ik]<0){
hProfTimeAsIdPhiMinus->Fill(IdTowerPhiMuonIn[ik],tmuon);
}
if(abs(IdTowerEtaMuonIn[ik]-IdTowerEtaMuonOut[ik])<=3){
float ideta = float(IdTowerEtaMuonIn[ik]+IdTowerEtaMuonOut[ik])/2;
if(IdTowerPhiMuonIn[ik]>=8&&IdTowerPhiMuonIn[ik]<=28&&IdTowerEtaMuonIn[ik]>0){
hProfTimeAsIdEtaTop->Fill(ideta,tmuon);
}
if(IdTowerPhiMuonIn[ik]>=8&&IdTowerPhiMuonIn[ik]<=27&&IdTowerEtaMuonIn[ik]<0&&IdTowerPhiMuonIn[ik]!=24){
hProfTimeAsIdEtaTop->Fill(ideta,tmuon);
}
if(IdTowerPhiMuonIn[ik]>=43&&IdTowerPhiMuonIn[ik]<=65&&IdTowerEtaMuonIn[ik]>0){
hProfTimeAsIdEtaBot->Fill(ideta,tmuon);
}
if(IdTowerPhiMuonIn[ik]>=47&&IdTowerPhiMuonIn[ik]<=64&&IdTowerEtaMuonIn[ik]<0){
hProfTimeAsIdEtaBot->Fill(ideta,tmuon);
}
}
// this cut is also means that ower muon belong only to one from 4 HB Parts
if(fabs(tmuon-meanB)<=rmsB&&meanB!=0){
// fill energy in different id Phi
if(IdTowerEtaMuonIn[ik]<0&&IdTowerEtaMuonOut[ik]<0){
hIdPhiTowerHB2DTMinus->Fill(float(IdTowerPhiMuonIn[ik]));
hIdPhiMinusVsE->Fill(eHB,float(IdTowerPhiMuonIn[ik]));
}
if(IdTowerEtaMuonIn[ik]>0&&IdTowerEtaMuonOut[ik]>0){
hIdPhiTowerHB2DTPlus->Fill(float(IdTowerPhiMuonIn[ik]));
hIdPhiPlusVsE->Fill(eHB,float(IdTowerPhiMuonIn[ik]));
}
// fill energy in different id Eta Tower, max Eta Tower crossing by muon <= 4
if(abs(IdTowerEtaMuonIn[ik]-IdTowerEtaMuonOut[ik])<=3){
float ideta = float(IdTowerEtaMuonIn[ik]+IdTowerEtaMuonOut[ik])/2;
if(IdTowerPhiMuonIn[ik]>=8&&IdTowerPhiMuonIn[ik]<=28&&IdTowerEtaMuonIn[ik]>0){
hIdEtaTopVsE->Fill(eHB,ideta);
//hProfTimeAsIdEtaTop->Fill(ideta,tmuon);
}
if(IdTowerPhiMuonIn[ik]>=8&&IdTowerPhiMuonIn[ik]<=27&&IdTowerEtaMuonIn[ik]<0&&IdTowerPhiMuonIn[ik]!=24){
hIdEtaTopVsE->Fill(eHB,ideta);
//hProfTimeAsIdEtaTop->Fill(ideta,tmuon);
}
if(IdTowerPhiMuonIn[ik]>=43&&IdTowerPhiMuonIn[ik]<=65&&IdTowerEtaMuonIn[ik]>0){
hIdEtaBotVsE->Fill(eHB,ideta);
//hProfTimeAsIdEtaBot->Fill(ideta,tmuon);
}
if(IdTowerPhiMuonIn[ik]>=47&&IdTowerPhiMuonIn[ik]<=64&&IdTowerEtaMuonIn[ik]<0){
hIdEtaBotVsE->Fill(eHB,ideta);
//hProfTimeAsIdEtaBot->Fill(ideta,tmuon);
}
}
// fill energy of muon in different phiR
if(phiR<=0.2)hEmuonPhiDetaTower1->Fill(eHB);
if(phiR>0.2&&phiR<=0.4)hEmuonPhiDetaTower2->Fill(eHB);
if(phiR>0.4&&phiR<=0.6)hEmuonPhiDetaTower3->Fill(eHB);
if(phiR>0.6&&phiR<=0.8)hEmuonPhiDetaTower4->Fill(eHB);
if(phiR>0.8&&phiR<=0.9)hEmuonPhiDetaTower5->Fill(eHB);
if(phiR>0.9&&phiR<=1.0)hEmuonPhiDetaTower6->Fill(eHB);
hNumHitsHB2DT->Fill(NumHitsMuonDTall[ik]);
hLengthMuonDTHB2DT->Fill(LengthMuonDT[ik]);
hNumHitsHB2DT2->Fill(NumHitsMuonDTall[jk]);
hLengthMuonDTHB2DT2->Fill(LengthMuonDT[jk]);
float XY;
XY = ImpXYmuonHB[ik];
hImpXYHB2DT -> Fill(XY);
XY = ZImpXYmuonHB[ik];
hZImpXYHB2DT -> Fill(XY);
hLmuonDTImpXY->Fill(LengthMuonDT[ik],ImpXYmuonHB[ik]);
hImpXYvsZ->Fill(ImpXYmuonHB[ik],ZImpXYmuonHB[ik]);
}
} // end check for muon in 2 DT exists
}
} //end for for 2nd good muon
} //end for for interested muon
} // end check if good moun exists
} //end event loop
/////////////////////////////////////////////////
// write histo to file
theFile->Write();
theFile->Close();
/////////////////////////////////////////////////
/*
TCanvas *c1 = new TCanvas("c1","Check that Muon passes though DT in 2 places");
c1->Divide(2,2);
c1->cd(1);
gPad -> SetLogy();
// TAxis *axis = histo->GetXaxis();
// axis->SetLabelSize(0.06);
hAngleMuonHB2DT ->Draw();
c1->cd(2);
hDeltaImpXYHB2DT->Draw();
c1->cd(3);
hDeltaZImpXYHB2DT->Draw();
c1->cd(4);
hPhiDeltaTowerHB2DT->Draw();
c1->Print("pic1.gif");
// wait
c1->WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c2 = new TCanvas("c2","E of Muon passes though DT in 2 places, NTowerEta<5");
c2->Divide(2,2);
c2->cd(1);
hEmuonHB2DTTopMinus.Fit("gaus","E","",0.8.,2.4);
c2->cd(2);
hEmuonHB2DTTopPlus.Fit("gaus","E","",0.8.,2.4);
c2->cd(3);
hEmuonHB2DTBotMinus.Fit("gaus","E","",0.8.,2.4);
c2->cd(4);
hEmuonHB2DTBotPlus.Fit("gaus","E","",0.8.,2.4);
c2->Print("pic2.gif");
// wait
c2.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c21 = new TCanvas("c21","Time of Muon passes though DT in 2 places, NTowerEta<5");
c21->Divide(2,2);
c21->cd(1);
hTimeMuonHB2DTTopMinus->Draw();
c21->cd(2);
hTimeMuonHB2DTTopPlus->Draw();
c21->cd(3);
hTimeMuonHB2DTBotMinus->Draw();
c21->cd(4);
hTimeMuonHB2DTBotPlus->Draw();
c21->Print("pic21.gif");
c21.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c22 = new TCanvas("c22","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c22->Divide(2,2);
c22->cd(1);
hNumTowerMuonHB2DTTopMinus ->Draw();
c22->cd(2);
hNumTowerMuonHB2DTTopPlus->Draw();
c22->cd(3);
hNumTowerMuonHB2DTBotMinus->Draw();
c22->cd(4);
hNumTowerMuonHB2DTBotPlus->Draw();
c22->Print("pic22.gif");
// wait
c22.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c4 = new TCanvas("c4","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c4->Divide(2,2);
c4->cd(1);
hIdPhiTowerHB2DTMinus->Draw();
c4->cd(2);
hIdPhiTowerHB2DTPlus->Draw();
c4->cd(3);
// hIdPhiTowerHB2DTsevMinus->Draw();
c4->cd(4);
// hIdPhiTowerHB2DTsevPlus->Draw();
c4->Print("pic4.gif");
// wait
c4.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c51 = new TCanvas("c51","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c51->Divide(2,2);
c51->cd(1);
hNumHitsHB2DT->Draw();
c51->cd(2);
hLengthMuonDTHB2DT->Draw();
c51->cd(3);
hNumHitsHB2DT2->Draw();
c51->cd(4);
hLengthMuonDTHB2DT2->Draw();
c51->Print("pic51.gif");
// wait
c51.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c61 = new TCanvas("c61","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c61->Divide(2,2);
c61->cd(1);
//hEmuonHB2DTTopMinusTimeMinus->Draw();
hEmuonHB2DTTopMinusTimeMinus.Fit("gaus","E","",0.8.,2.4);
c61->cd(2);
hEmuonHB2DTTopPlusTimeMinus.Fit("gaus","E","",0.8.,2.4);
c61->cd(3);
hEmuonHB2DTBotMinusTimeMinus.Fit("gaus","E","",0.8.,2.4);
c61->cd(4);
hEmuonHB2DTBotPlusTimeMinus.Fit("gaus","E","",0.8.,2.4);
c61->Print("pic61.gif");
// wait
c61.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c62 = new TCanvas("c62","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c62->Divide(2,2);
c62->cd(1);
hEmuonHB2DTTopMinusTimePlus->Fit("gaus","E","",0.8.,2.4);
c62->cd(2);
hEmuonHB2DTTopPlusTimePlus->Fit("gaus","E","",0.8.,2.4);
c62->cd(3);
hEmuonHB2DTBotMinusTimePlus->Fit("gaus","E","",0.8.,2.4);
c62->cd(4);
hEmuonHB2DTBotPlusTimePlus->Fit("gaus","E","",0.8.,2.4);
c62->Print("pic62.gif");
// wait
c62.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c63 = new TCanvas("c63","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c63->Divide(2,2);
c63->cd(1);
hEmuonHB2DTBotPlusTimeMinus1->Fit("gaus","E","",0.8.,2.4);
c63->cd(2);
hEmuonHB2DTBotPlusTimeMinus2->Fit("gaus","E","",0.8.,2.4);
c63->cd(3);
hEmuonHB2DTBotPlusTimeMinus3->Fit("gaus","E","",0.8.,2.4);
c63->cd(4);
hEmuonHB2DTBotPlusTimeMinus4->Fit("gaus","E","",0.8.,2.4);
c63->Print("pic63.gif");
// wait
c63.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c64 = new TCanvas("c64","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c64->Divide(2,2);
c64->cd(1);
hEmuonHB2DTBotPlusTimePlus1->Fit("gaus","E","",0.8.,2.4);
c64->cd(2);
hEmuonHB2DTBotPlusTimePlus2->Fit("gaus","E","",0.8.,2.4);
c64->cd(3);
hEmuonHB2DTBotPlusTimePlus3->Fit("gaus","E","",0.8.,2.4);
c64->cd(4);
hEmuonHB2DTBotPlusTimePlus4->Fit("gaus","E","",0.8.,2.4);
c64->Print("pic64.gif");
// wait
c64.WaitPrimitive();
/////////////////////////////////////////////////
TCanvas *c65 = new TCanvas("c65","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c65->Divide(3,2);
c65->cd(1);
hEmuonPhiDetaTower1->Fit("gaus","E","",0.8.,2.4);
c65->cd(2);
hEmuonPhiDetaTower2->Fit("gaus","E","",0.8.,2.4);
c65->cd(3);
hEmuonPhiDetaTower3->Fit("gaus","E","",0.8.,2.4);
c65->cd(4);
hEmuonPhiDetaTower4->Fit("gaus","E","",0.8.,2.4);
c65->cd(5);
hEmuonPhiDetaTower5->Fit("gaus","E","",0.8.,2.4);
c65->cd(6);
hEmuonPhiDetaTower6->Fit("gaus","E","",0.8.,2.4);
c65->Print("pic65.gif");
// wait
c65.WaitPrimitive();
////////////////////////////////////////////////
TCanvas *c7 = new TCanvas("c7","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c7->Divide(2,2);
c7->cd(1);
hImpXYHB2DT->Draw();
c7->cd(2);
hZImpXYHB2DT->Draw();
c7->cd(3);
hLmuonDTImpXY->Draw();
c7->cd(4);
hImpXYvsZ->Draw();
c7->Print("pic7.gif");
// wait
c7.WaitPrimitive();
////////////////////////////////////////////////
TCanvas *c8 = new TCanvas("c8","Number Eta Towers of Muon passes though DT in 2 places, NTowerEta<5");
c8->Divide(2,2);
c8->cd(1);
hProfTimeAsIdPhiMinus->Draw();
c8->cd(2);
hProfTimeAsIdPhiPlus->Draw();
c8->Print("pic8.gif");
// wait
c8.WaitPrimitive();
*/
}
void httpserver(const char* jobname = "job1", Long64_t maxcnt = 0)
{
TString filename = Form("%s.root", jobname);
TFile *hfile = new TMemFile(filename,"RECREATE","Demo ROOT file with histograms");
// Create some histograms, a profile histogram and an ntuple
TH1F *hpx = new TH1F("hpx","This is the px distribution",100,-4,4);
hpx->SetFillColor(48);
TH2F *hpxpy = new TH2F("hpxpy","py vs px",40,-4,4,40,-4,4);
TProfile *hprof = new TProfile("hprof","Profile of pz versus px",100,-4,4,0,20);
TNtuple *ntuple = new TNtuple("ntuple","Demo ntuple","px:py:pz:random:i");
hfile->Write();
// http server with port 8080, use jobname as top-folder name
THttpServer* serv = new THttpServer(Form("http:8080?top=%s", jobname));
// fastcgi server with port 9000, use jobname as top-folder name
// THttpServer* serv = new THttpServer(Form("fastcgi:9000?top=%s_fastcgi", jobname));
// dabc agent, connects to DABC master_host:1237, works only when DABC configured
// THttpServer* serv = new THttpServer(Form("dabc:master_host:1237?top=%s_dabc", jobname));
// when read-only mode disabled one could execute object methods like TTree::Draw()
serv->SetReadOnly(kFALSE);
// One could specify location of newer version of JSROOT
// serv->SetJSROOT("https://root.cern.ch/js/latest/");
// serv->SetJSROOT("http://jsroot.gsi.de/latest/");
gBenchmark->Start(jobname);
// Create a new canvas.
TCanvas *c1 = new TCanvas("c1","Dynamic Filling Example",200,10,700,500);
c1->SetFillColor(42);
c1->GetFrame()->SetFillColor(21);
c1->GetFrame()->SetBorderSize(6);
c1->GetFrame()->SetBorderMode(-1);
// Fill histograms randomly
TRandom3 random;
Float_t px, py, pz;
const Int_t kUPDATE = 1000;
Long64_t i = 0;
while (true) {
random.Rannor(px,py);
pz = px*px + py*py;
Float_t rnd = random.Rndm(1);
hpx->Fill(px);
hpxpy->Fill(px,py);
hprof->Fill(px,pz);
// fill only first 25000 events in NTuple
if (i<25000) ntuple->Fill(px,py,pz,rnd,i);
if (i && (i%kUPDATE) == 0) {
if (i == kUPDATE) hpx->Draw();
c1->Modified();
c1->Update();
if (i == kUPDATE) hfile->Write();
if (gSystem->ProcessEvents()) break;
}
i++;
if ((maxcnt>0) && (i>=maxcnt)) break;
}
gBenchmark->Show(jobname);
}
Double_t CalibTree::Loop(int loop, TFile *fout, bool useweight, int nMin,
bool inverse, double rmin, double rmax, int ietaMax,
int applyL1Cut, double l1Cut, bool last,
double fraction, bool writeHisto, bool debug) {
if (fChain == 0) return 0;
Long64_t nbytes(0), nb(0), kprint(0);
Long64_t nentryTot = fChain->GetEntriesFast();
Long64_t nentries = (fraction > 0.01 && fraction < 0.99) ?
(Long64_t)(fraction*nentryTot) : nentryTot;
if (detIds.size() == 0) {
for (Long64_t jentry=0; jentry<nentries; jentry++) {
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
// Find DetIds contributing to the track
bool selRun = (includeRun_ ? ((t_Run >= runlo_) && (t_Run <= runhi_)) :
((t_Run < runlo_) || (t_Run > runhi_)));
if (selRun && (t_nVtx >= nvxlo_) && (t_nVtx <= nvxhi_)) {
bool isItRBX = (cSelect_ && exclude_ && cSelect_->isItRBX(t_DetIds));
++kprint;
if (!isItRBX) {
for (unsigned int idet=0; idet<(*t_DetIds).size(); idet++) {
if (selectPhi((*t_DetIds)[idet])) {
unsigned int detid = truncateId((*t_DetIds)[idet],
truncateFlag_,debug);
if (debug && (kprint<=10)) {
std::cout << "DetId[" << idet << "] Original " << std::hex
<< (*t_DetIds)[idet] << " truncated " << detid
<< std::dec;
}
if (std::find(detIds.begin(),detIds.end(),detid) == detIds.end()){
detIds.push_back(detid);
if (debug && (kprint<=10)) std::cout << " new";
}
if (debug && (kprint<=10)) std::cout << std::endl;
}
}
// Also look at the neighbouring cells if available
if (t_DetIds3 != 0) {
for (unsigned int idet=0; idet<(*t_DetIds3).size(); idet++) {
if (selectPhi((*t_DetIds3)[idet])) {
unsigned int detid = truncateId((*t_DetIds3)[idet],
truncateFlag_,debug);
if (std::find(detIds.begin(),detIds.end(),detid)==detIds.end()){
detIds.push_back(detid);
}
}
}
}
}
}
}
}
if (debug) {
std::cout << "Total of " << detIds.size() << " detIds and "
<< histos.size() << " histos found" << std::endl;
// The masks are defined in DataFormats/HcalDetId/interface/HcalDetId.h
for (unsigned int k=0; k<detIds.size(); ++k) {
int subdet, depth, zside, ieta, iphi;
unpackDetId(detIds[k], subdet, zside, ieta, iphi, depth);
std::cout << "DetId[" << k << "] " << subdet << ":" << zside*ieta << ":"
<< depth << ":" << iphi << " " << std::hex << detIds[k]
<< std::dec << std::endl;
}
}
unsigned int k(0);
for (std::map<unsigned int, TH1D*>::const_iterator itr = histos.begin();
itr != histos.end(); ++itr,++k) {
if (debug) {
std::cout << "histos[" << k << "] " << std::hex << itr->first
<< std::dec << " " << itr->second;
if (itr->second != 0) std::cout << " " << itr->second->GetTitle();
std::cout << std::endl;
}
if (itr->second != 0) itr->second->Delete();
}
for (unsigned int k=0; k<detIds.size(); ++k) {
char name[20], title[100];
sprintf (name, "Hist%d_%d", detIds[k], loop);
int subdet, depth, zside, ieta, iphi;
unpackDetId(detIds[k], subdet, zside, ieta, iphi, depth);
sprintf (title, "Correction for Subdet %d #eta %d depth %d (Loop %d)", subdet, zside*ieta, depth, loop);
TH1D* hist = new TH1D(name,title,100, 0.0, 5.0);
hist->Sumw2();
if (debug) {
std::cout << "Book Histo " << k << " " << title << std::endl;
}
histos[detIds[k]] = hist;
}
std::cout << "Total of " << detIds.size() << " detIds and " << histos.size()
<< " found in " << nentries << std::endl;
nbytes = nb = 0;
std::map<unsigned int, myEntry > SumW;
std::map<unsigned int, double > nTrks;
int ntkgood(0);
for (Long64_t jentry=0; jentry<nentries; jentry++) {
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
if (std::find(entries.begin(),entries.end(),jentry) !=
entries.end()) continue;
bool selRun = (includeRun_ ? ((t_Run >= runlo_) && (t_Run <= runhi_)) :
((t_Run < runlo_) || (t_Run > runhi_)));
if (!selRun) continue;
if ((t_nVtx < nvxlo_) || (t_nVtx > nvxhi_)) continue;
if (cSelect_ != nullptr) {
if (exclude_) {
if (cSelect_->isItRBX(t_DetIds)) continue;
} else {
if (!(cSelect_->isItRBX(t_ieta,t_iphi))) continue;
}
}
if (debug) {
std::cout << "***Entry (Track) Number : " << ientry << std::endl;
std::cout << "p/eHCal/eMipDR/nDets : " << t_p << "/" << t_eHcal << "/"
<< t_eMipDR << "/" << (*t_DetIds).size() << std::endl;
}
double pmom = (useGen_ && (t_gentrackP > 0)) ? t_gentrackP : t_p;
if (goodTrack()) {
++ntkgood;
double Etot(0), Etot2(0);
for (unsigned int idet=0; idet<(*t_DetIds).size(); idet++) {
if (selectPhi((*t_DetIds)[idet])) {
unsigned int id = (*t_DetIds)[idet];
double hitEn(0);
unsigned int detid = truncateId(id,truncateFlag_,false);
if (Cprev.find(detid) != Cprev.end())
hitEn = Cprev[detid].first * (*t_HitEnergies)[idet];
else
hitEn = (*t_HitEnergies)[idet];
if (cFactor_) hitEn *= cFactor_->getCorr(t_Run,id);
Etot += hitEn;
Etot2 += ((*t_HitEnergies)[idet]);
}
}
// Now the outer cone
double Etot1(0), Etot3(0);
if (t_DetIds1 != 0 && t_DetIds3 != 0) {
for (unsigned int idet=0; idet<(*t_DetIds1).size(); idet++) {
if (selectPhi((*t_DetIds1)[idet])) {
unsigned int id = (*t_DetIds1)[idet];
unsigned int detid = truncateId(id,truncateFlag_,false);
double hitEn(0);
if (Cprev.find(detid) != Cprev.end())
hitEn = Cprev[detid].first * (*t_HitEnergies1)[idet];
else
hitEn = (*t_HitEnergies1)[idet];
if (cFactor_) hitEn *= cFactor_->getCorr(t_Run,id);
Etot1 += hitEn;
}
}
for (unsigned int idet=0; idet<(*t_DetIds3).size(); idet++) {
if (selectPhi((*t_DetIds3)[idet])) {
unsigned int id = (*t_DetIds3)[idet];
unsigned int detid = truncateId(id,truncateFlag_,false);
double hitEn(0);
if (Cprev.find(detid) != Cprev.end())
hitEn = Cprev[detid].first * (*t_HitEnergies3)[idet];
else
hitEn = (*t_HitEnergies3)[idet];
if (cFactor_) hitEn *= cFactor_->getCorr(t_Run,id);
Etot3 += hitEn;
}
}
}
eHcalDelta_ = Etot3-Etot1;
double evWt = (useweight) ? t_EventWeight : 1.0;
// PU correction only for loose isolation cut
double ehcal = ((puCorr_ == 0) ? Etot :
((puCorr_ < 0) ? (Etot*puFactor(-puCorr_,t_ieta,pmom,Etot,eHcalDelta_)) :
puFactorRho(puCorr_,t_ieta,t_rhoh,Etot)));
double pufac = (Etot > 0) ? (ehcal/Etot) : 1.0;
double ratio = ehcal/(pmom-t_eMipDR);
if (debug) std::cout << " Weights " << evWt << ":" << pufac << " Energy "
<< Etot2 << ":" << Etot << ":" << pmom << ":"
<< t_eMipDR << ":" << t_eHcal << ":" << ehcal
<< " ratio " << ratio << std::endl;
if (loop==0) {
h_pbyE->Fill(ratio, evWt);
h_Ebyp_bfr->Fill(t_ieta, ratio, evWt);
}
if (last){
h_Ebyp_aftr->Fill(t_ieta, ratio, evWt);
}
bool l1c(true);
if (applyL1Cut != 0) l1c = ((t_mindR1 >= l1Cut) ||
((applyL1Cut == 1) && (t_DataType == 1)));
if ((rmin >=0 && ratio > rmin) && (rmax >= 0 && ratio < rmax) && l1c) {
for (unsigned int idet=0; idet<(*t_DetIds).size(); idet++) {
if (selectPhi((*t_DetIds)[idet])) {
unsigned int id = (*t_DetIds)[idet];
unsigned int detid = truncateId(id,truncateFlag_,false);
double hitEn=0.0;
if (debug) {
std::cout << "idet " << idet << " detid/hitenergy : "
<< std::hex << (*t_DetIds)[idet] << ":" << detid
<< "/" << (*t_HitEnergies)[idet] << std::endl;
}
if (Cprev.find(detid) != Cprev.end())
hitEn = Cprev[detid].first * (*t_HitEnergies)[idet];
else
hitEn = (*t_HitEnergies)[idet];
if (cFactor_) hitEn *= cFactor_->getCorr(t_Run,id);
double Wi = evWt * hitEn/Etot;
double Fac = (inverse) ? (ehcal/(pmom-t_eMipDR)) :
((pmom-t_eMipDR)/ehcal);
double Fac2= Wi*Fac*Fac;
TH1D* hist(0);
std::map<unsigned int,TH1D*>::const_iterator itr = histos.find(detid);
if (itr != histos.end()) hist = itr->second;
if (debug) {
std::cout << "Det Id " << std::hex << detid << std::dec
<< " " << hist << std::endl;
}
if (hist != 0) hist->Fill(Fac, Wi);//////histola
Fac *= Wi;
if (SumW.find(detid) != SumW.end() ) {
Wi += SumW[detid].fact0;
Fac += SumW[detid].fact1;
Fac2+= SumW[detid].fact2;
int kount = SumW[detid].kount + 1;
SumW[detid] = myEntry(kount,Wi,Fac,Fac2);
nTrks[detid] += evWt;
} else {
SumW.insert(std::pair<unsigned int,myEntry>(detid,myEntry(1,Wi,Fac,Fac2)));
nTrks.insert(std::pair<unsigned int,unsigned int>(detid, evWt));
}
}
}
}
}
}
if (debug) {
std::cout << "# of Good Tracks " << ntkgood << " out of " << nentries
<< std::endl;
}
if (loop==0) {
h_pbyE->Write("h_pbyE");
h_Ebyp_bfr->Write("h_Ebyp_bfr");
}
if (last) {
h_Ebyp_aftr->Write("h_Ebyp_aftr");
}
std::map<unsigned int, std::pair<double,double> > cfactors;
unsigned int kount(0), kountus(0);
double sumfactor(0);
for (std::map<unsigned int,TH1D*>::const_iterator itr = histos.begin();
itr != histos.end(); ++itr) {
if (writeHisto) {
std::pair<double,double> result_write = fitMean(itr->second, 0);
(itr->second)->Write();
}
// The masks are defined in DataFormats/HcalDetId/interface/HcalDetId.h
int subdet, depth, zside, ieta, iphi;
unpackDetId(itr->first, subdet, zside, ieta, iphi, depth);
if (debug) {
std::cout << "DETID :" << subdet << " IETA :" << ieta
<< " HIST ENTRIES :" << (itr->second)->GetEntries()
<< std::endl;
}
}
for (std::map<unsigned int,TH1D*>::const_iterator itr = histos.begin();
itr != histos.end(); ++itr,++kount) {
std::pair<double,double> result = fitMean(itr->second, 0);
double factor = (inverse) ? (2.-result.first) : result.first;
if (debug) {
int subdet, depth, zside, ieta, iphi;
unpackDetId(itr->first, subdet, zside, ieta, iphi, depth);
std::cout << "DetId[" << kount << "] " << subdet << ":" << zside*ieta
<< ":" << depth << " Factor " << factor << " +- "
<< result.second << std::endl;
}
if (!useMean_) {
cfactors[itr->first] = std::pair<double,double>(factor,result.second);
if (itr->second->GetEntries() > nMin) {
kountus++;
if (factor > 1) sumfactor += (1-1/factor);
else sumfactor += (1-factor);
}
}
}
std::map<unsigned int, myEntry>::const_iterator SumWItr = SumW.begin();
for (; SumWItr != SumW.end(); SumWItr++) {
unsigned int detid = SumWItr->first;
int subdet, depth, zside, ieta, iphi;
unpackDetId(detid, subdet, zside, ieta, iphi, depth);
if (debug) {
std::cout << "Detid|kount|SumWi|SumFac|myId : " << subdet << ":"
<< zside*ieta << ":" << depth << " | "
<< (SumWItr->second).kount << " | " << (SumWItr->second).fact0
<< "|" << (SumWItr->second).fact1 << "|"
<< (SumWItr->second).fact2 << std::endl;
}
double factor = (SumWItr->second).fact1/(SumWItr->second).fact0;
double dfac1 = ((SumWItr->second).fact2/(SumWItr->second).fact0-factor*factor);
if (dfac1 < 0) dfac1 = 0;
double dfac = sqrt(dfac1/(SumWItr->second).kount);
if (debug) {
std::cout << "Factor " << factor << " " << dfac1 << " " << dfac
<< std::endl;
}
if (inverse) factor = 2.-factor;
if (useMean_) {
cfactors[detid] = std::pair<double,double>(factor,dfac);
if ((SumWItr->second).kount > nMin) {
kountus++;
if (factor > 1) sumfactor += (1-1/factor);
else sumfactor += (1-factor);
}
}
}
double dets[150], cfacs[150], wfacs[150], myId[150], nTrk[150];
kount = 0;
std::map<unsigned int,std::pair<double,double> >::const_iterator itr=cfactors.begin();
for (; itr !=cfactors.end(); ++itr,++kount) {
unsigned int detid = itr->first;
int subdet, depth, zside, ieta, iphi;
unpackDetId(detid, subdet, zside, ieta, iphi, depth);
double id = ieta*zside + 0.25*(depth-1);
double factor = (itr->second).first;
double dfac = (itr->second).second;
if (ieta > ietaMax) {
factor = 1;
dfac = 0;
}
std::pair<double,double> cfac(factor,dfac);
if (Cprev.find(detid) != Cprev.end()) {
dfac /= factor;
factor *= Cprev[detid].first;
dfac *= factor;
Cprev[detid] = std::pair<double,double>(factor,dfac);
cfacs[kount] = factor;
} else {
Cprev[detid] = std::pair<double,double>(factor,dfac);
cfacs[kount] = factor;
}
wfacs[kount]= factor;
dets[kount] = detid;
myId[kount] = id;
nTrk[kount] = nTrks[detid];
}
if (higheta_ > 0) highEtaFactors(ietaMax, debug);
std::cout << kountus << " detids out of " << kount << " have tracks > "
<< nMin << std::endl;
char fname[50];
fout->cd();
TGraph *g_fac1 = new TGraph(kount, dets, cfacs);
sprintf (fname, "Cfacs%d", loop);
g_fac1->SetMarkerStyle(7);
g_fac1->SetMarkerSize(5.0);
g_fac1->Draw("AP");
g_fac1->Write(fname);
TGraph *g_fac2 = new TGraph(kount, dets, wfacs);
sprintf (fname, "Wfacs%d", loop);
g_fac2->SetMarkerStyle(7);
g_fac2->SetMarkerSize(5.0);
g_fac2->Draw("AP");
g_fac2->Write(fname);
TGraph *g_fac3 = new TGraph(kount, myId, cfacs);
sprintf (fname, "CfacsVsMyId%d", loop);
g_fac3->SetMarkerStyle(7);
g_fac3->SetMarkerSize(5.0);
g_fac3->Draw("AP");
g_fac3->Write(fname);
TGraph *g_fac4 = new TGraph(kount, myId, wfacs);
sprintf (fname, "WfacsVsMyId%d", loop);
g_fac4->SetMarkerStyle(7);
g_fac4->SetMarkerSize(5.0);
g_fac4->Draw("AP");
g_fac4->Write(fname);
TGraph *g_nTrk = new TGraph(kount, myId, nTrk);
sprintf (fname, "nTrk");
if(loop==0){
g_nTrk->SetMarkerStyle(7);
g_nTrk->SetMarkerSize(5.0);
g_nTrk->Draw("AP");
g_nTrk->Write(fname);
}
std::cout << "The new factors are :" << std::endl;
std::map<unsigned int, std::pair<double,double> >::const_iterator CprevItr = Cprev.begin();
unsigned int indx(0);
for (; CprevItr != Cprev.end(); CprevItr++, indx++){
unsigned int detid = CprevItr->first;
int subdet, depth, zside, ieta, iphi;
unpackDetId(detid, subdet, zside, ieta, iphi, depth);
std::cout << "DetId[" << indx << "] " << std::hex << detid << std::dec
<< "(" << ieta*zside << "," << depth << ") (nTrks:"
<< nTrks[detid] << ") : " << CprevItr->second.first << " +- "
<< CprevItr->second.second << std::endl;
}
double mean = (kountus > 0) ? (sumfactor/kountus) : 0;
std::cout << "Mean deviation " << mean << " from 1 for " << kountus
<< " DetIds" << std::endl;
h_cvg->SetBinContent(loop+1,mean);
if (last) h_cvg->Write("Cvg0");
return mean;
}
void TOFCheck(string MODE="COMPILE")
{
if(MODE=="COMPILE") return;
system("mkdir pictures");
setTDRStyle();
gStyle->SetPadTopMargin (0.06);
gStyle->SetPadBottomMargin(0.15);
gStyle->SetPadRightMargin (0.03);
gStyle->SetPadLeftMargin (0.07);
gStyle->SetTitleSize(0.04, "XYZ");
gStyle->SetTitleXOffset(1.1);
gStyle->SetTitleYOffset(1.35);
gStyle->SetPalette(1);
gStyle->SetNdivisions(505,"X");
TH1::AddDirectory(kTRUE);
// get all the samples and clean the list to keep only the one we want to run on... Also initialize the BaseDirectory
std::vector<stSample> samples;
InitBaseDirectory();
GetSampleDefinition(samples, "../../ICHEP_Analysis/Analysis_Samples.txt");
if(MODE.find("ANALYSE_")==0){
int sampleIdStart, sampleIdEnd; sscanf(MODE.c_str(),"ANALYSE_%d_to_%d",&sampleIdStart, &sampleIdEnd);
keepOnlyTheXtoYSamples(samples,sampleIdStart,sampleIdEnd);
printf("----------------------------------------------------------------------------------------------------------------------------------------------------\n");
printf("Run on the following samples:\n");
for(unsigned int s=0;s<samples.size();s++){samples[s].print();}
printf("----------------------------------------------------------------------------------------------------------------------------------------------------\n\n");
}else{
printf("You must select a MODE:\n");
printf("MODE='ANALYSE_X_to_Y' : Will run the analysis on the samples with index in the range [X,Y]\n");
return;
}
//create histogram file and run the analyis
system("mkdir pictures/");
TFile* OutputHisto = new TFile(("pictures/Histos_"+samples[0].Name+"_"+samples[0].FileName+".root").c_str(),"RECREATE");
TH1D* TOF = new TH1D("TOF", "TOF", 100, 0, 2); TOF->Sumw2();
TH1D* TOFDT = new TH1D("TOFDT", "TOFDT", 100, 0, 2); TOFDT->Sumw2();
TH1D* TOFCSC = new TH1D("TOFCSC", "TOFCSC", 100, 0, 2); TOFCSC->Sumw2();
TH1D* Vertex = new TH1D("Vertex", "Vertex", 100, -10, 10); Vertex->Sumw2();
TH1D* VertexDT = new TH1D("VertexDT", "VertexDT", 100, -10, 10); VertexDT->Sumw2();
TH1D* VertexCSC = new TH1D("VertexCSC", "VertexCSC", 100, -10, 10); VertexCSC->Sumw2();
TProfile* TOFVsEta = new TProfile("TOFVsEta", "TOFVsEta", 50, -2.1, 2.1); TOFVsEta->Sumw2();
TProfile* TOFVsPhi = new TProfile("TOFVsPhi", "TOFVsPhi", 50, -3.14, 3.14); TOFVsPhi->Sumw2();
TProfile* TOFVsPt = new TProfile("TOFVsPt" , "TOFVsPt" , 50, 40, 140); TOFVsPt->Sumw2();
TProfile* CSCTOFVsEta = new TProfile("CSCTOFVsEta", "CSCTOFVsEta", 50, -2.1, 2.1); CSCTOFVsEta->Sumw2();
TProfile* CSCTOFVsPhi = new TProfile("CSCTOFVsPhi", "CSCTOFVsPhi", 50, -3.14, 3.14); CSCTOFVsPhi->Sumw2();
TProfile* CSCTOFVsPt = new TProfile("CSCTOFVsPt" , "CSCTOFVsPt" , 50, 40, 140); CSCTOFVsPt->Sumw2();
TProfile* DTTOFVsEta = new TProfile("DTTOFVsEta", "DTTOFVsEta", 50, -2.1, 2.1); DTTOFVsEta->Sumw2();
TProfile* DTTOFVsPhi = new TProfile("DTTOFVsPhi", "DTTOFVsPhi", 50, -3.14, 3.14); DTTOFVsPhi->Sumw2();
TProfile* DTTOFVsPt = new TProfile("DTTOFVsPt" , "DTTOFVsPt" , 50, 40, 140); DTTOFVsPt->Sumw2();
TProfile* VertexVsEta = new TProfile("VertexVsEta", "VertexVsEta", 50, -2.1, 2.1); VertexVsEta->Sumw2();
TProfile* VertexVsPhi = new TProfile("VertexVsPhi", "VertexVsPhi", 50, -3.14, 3.14); VertexVsPhi->Sumw2();
TProfile* VertexVsPt = new TProfile("VertexVsPt" , "VertexVsPt" , 50, 40, 140); VertexVsPt->Sumw2();
TProfile* CSCVertexVsEta = new TProfile("CSCVertexVsEta", "CSCVertexVsEta", 50, -2.1, 2.1); CSCVertexVsEta->Sumw2();
TProfile* CSCVertexVsPhi = new TProfile("CSCVertexVsPhi", "CSCVertexVsPhi", 50, -3.14, 3.14); CSCVertexVsPhi->Sumw2();
TProfile* CSCVertexVsPt = new TProfile("CSCVertexVsPt" , "CSCVertexVsPt" , 50, 40, 140); CSCVertexVsPt->Sumw2();
TProfile* DTVertexVsEta = new TProfile("DTVertexVsEta", "DTVertexVsEta", 50, -2.1, 2.1); DTVertexVsEta->Sumw2();
TProfile* DTVertexVsPhi = new TProfile("DTVertexVsPhi", "DTVertexVsPhi", 50, -3.14, 3.14); DTVertexVsPhi->Sumw2();
TProfile* DTVertexVsPt = new TProfile("DTVertexVsPt" , "DTVertexVsPt" , 50, 40, 140); DTVertexVsPt->Sumw2();
TypeMode = 2;
for(unsigned int s=0;s<samples.size();s++){
std::vector<string> FileName;
GetInputFiles(samples[s], BaseDirectory, FileName);
fwlite::ChainEvent tree(FileName);
printf("Progressing Bar :0%% 20%% 40%% 60%% 80%% 100%%\n");
printf("Looping on Tree :");
int TreeStep = tree.size()/50;if(TreeStep==0)TreeStep=1;
for(Long64_t e=0;e<tree.size();e++){
// if(e>10)break;
tree.to(e);
if(e%TreeStep==0){printf(".");fflush(stdout);}
if(!PassingTrigger(tree))continue;
fwlite::Handle<susybsm::HSCParticleCollection> hscpCollHandle;
hscpCollHandle.getByLabel(tree,"HSCParticleProducer");
if(!hscpCollHandle.isValid()){printf("HSCP Collection NotFound\n");continue;}
susybsm::HSCParticleCollection hscpColl = *hscpCollHandle;
fwlite::Handle<DeDxDataValueMap> dEdxSCollH;
dEdxSCollH.getByLabel(tree, dEdxS_Label.c_str());
if(!dEdxSCollH.isValid()){printf("Invalid dEdx Selection collection\n");continue;}
fwlite::Handle<DeDxDataValueMap> dEdxMCollH;
dEdxMCollH.getByLabel(tree, dEdxM_Label.c_str());
if(!dEdxMCollH.isValid()){printf("Invalid dEdx Mass collection\n");continue;}
fwlite::Handle<MuonTimeExtraMap> TOFCollH;
TOFCollH.getByLabel(tree, "muontiming",TOF_Label.c_str());
if(!TOFCollH.isValid()){printf("Invalid TOF collection\n");return;}
fwlite::Handle<MuonTimeExtraMap> TOFDTCollH;
TOFDTCollH.getByLabel(tree, "muontiming",TOFdt_Label.c_str());
if(!TOFDTCollH.isValid()){printf("Invalid DT TOF collection\n");continue;}
fwlite::Handle<MuonTimeExtraMap> TOFCSCCollH;
TOFCSCCollH.getByLabel(tree, "muontiming",TOFcsc_Label.c_str());
if(!TOFCSCCollH.isValid()){printf("Invalid CSCTOF collection\n");continue;}
double Mass=0;
int ind1=-1, ind2=-1;
for(unsigned int c=0;c<hscpColl.size();c++){
susybsm::HSCParticle hscp = hscpColl[c];
reco::TrackRef track = hscp.trackRef();
if(track.isNull())continue;
if(hscp.muonRef().isNull()) continue;
const DeDxData& dedxSObj = dEdxSCollH->get(track.key());
const DeDxData& dedxMObj = dEdxMCollH->get(track.key());
const reco::MuonTimeExtra* tof = NULL;
const reco::MuonTimeExtra* dttof = NULL;
const reco::MuonTimeExtra* csctof = NULL;
if(!hscp.muonRef().isNull()){ tof = &TOFCollH->get(hscp.muonRef().key()); dttof = &TOFDTCollH->get(hscp.muonRef().key()); csctof = &TOFCSCCollH->get(hscp.muonRef().key());}
if(!PassPreselection(hscp, dedxSObj, dedxMObj, tof, dttof, csctof, tree))continue;
for(unsigned int d=c+1;d<hscpColl.size();d++){
susybsm::HSCParticle hscp2 = hscpColl[d];
reco::TrackRef track2 = hscp2.trackRef();
if(track2.isNull())continue;
if(hscp2.muonRef().isNull()) continue;
const DeDxData& dedxSObj2 = dEdxSCollH->get(track.key());
const DeDxData& dedxMObj2 = dEdxMCollH->get(track.key());
const reco::MuonTimeExtra* tof2 = NULL;
const reco::MuonTimeExtra* dttof2 = NULL;
const reco::MuonTimeExtra* csctof2 = NULL;
if(!hscp2.muonRef().isNull()){ tof2 = &TOFCollH->get(hscp.muonRef().key()); dttof2 = &TOFDTCollH->get(hscp.muonRef().key()); csctof2 = &TOFCSCCollH->get(hscp.muonRef().key());}
if(!PassPreselection(hscp2, dedxSObj2, dedxMObj2, tof2, dttof2, csctof2, tree))continue;
if(track->charge()==track2->charge()) continue;
double E = track->p() + track2->p();
double px = track->px() + track2->px();
double py = track->py() + track2->py();
double pz = track->pz() + track2->pz();
double p = px + py +pz;
double M = sqrt(E*E - p*p);
if(fabs(M-91.1876)>fabs(Mass-91.1876)) continue;
Mass=M;
ind1=c;
ind2=d;
}
}
for(int c=0;c<(int)hscpColl.size();c++){
if(c!=ind1 && c!=ind2) continue;
susybsm::HSCParticle hscp = hscpColl[c];
reco::TrackRef track = hscp.trackRef();
if(track.isNull())continue;
if(hscp.muonRef().isNull()) continue;
const reco::MuonTimeExtra* tof = NULL;
const reco::MuonTimeExtra* dttof = NULL;
const reco::MuonTimeExtra* csctof = NULL;
if(!hscp.muonRef().isNull()){ tof = &TOFCollH->get(hscp.muonRef().key()); dttof = &TOFDTCollH->get(hscp.muonRef().key()); csctof = &TOFCSCCollH->get(hscp.muonRef().key());}
if(tof && tof->nDof()>=GlobalMinNDOF && (dttof->nDof()>=GlobalMinNDOFDT || csctof->nDof()>=GlobalMinNDOFCSC) && tof->inverseBetaErr()<=GlobalMaxTOFErr){
TOF->Fill(tof->inverseBeta());
TOFVsEta->Fill(track->eta(), tof->inverseBeta());
TOFVsPhi->Fill(track->phi(), tof->inverseBeta());
TOFVsPt->Fill(track->pt(), tof->inverseBeta());
if(dttof->nDof()>=GlobalMinNDOFDT) {
TOFDT->Fill(dttof->inverseBeta());
DTTOFVsEta->Fill(track->eta(), dttof->inverseBeta());
DTTOFVsPhi->Fill(track->phi(), dttof->inverseBeta());
DTTOFVsPt->Fill(track->pt(), dttof->inverseBeta());
}
if(csctof->nDof()>=GlobalMinNDOFCSC) {
TOFCSC->Fill(csctof->inverseBeta());
CSCTOFVsEta->Fill(track->eta(), csctof->inverseBeta());
CSCTOFVsPhi->Fill(track->phi(), csctof->inverseBeta());
CSCTOFVsPt->Fill(track->pt(), csctof->inverseBeta());
}
Vertex->Fill(tof->timeAtIpInOut());
VertexVsEta->Fill(track->eta(), tof->timeAtIpInOut());
VertexVsPhi->Fill(track->phi(), tof->timeAtIpInOut());
VertexVsPt->Fill(track->pt(), tof->timeAtIpInOut());
if(dttof->nDof()>=GlobalMinNDOFDT) {
VertexDT->Fill(dttof->timeAtIpInOut());
DTVertexVsEta->Fill(track->eta(), dttof->timeAtIpInOut());
DTVertexVsPhi->Fill(track->phi(), dttof->timeAtIpInOut());
DTVertexVsPt->Fill(track->pt(), dttof->timeAtIpInOut());
}
if(csctof->nDof()>=GlobalMinNDOFCSC) {
VertexCSC->Fill(csctof->timeAtIpInOut());
CSCVertexVsEta->Fill(track->eta(), csctof->timeAtIpInOut());
CSCVertexVsPhi->Fill(track->phi(), csctof->timeAtIpInOut());
CSCVertexVsPt->Fill(track->pt(), csctof->timeAtIpInOut());
}
}
}
}printf("\n");
}
OutputHisto->Write();
OutputHisto->Close();
}
TFile *hsimple(Int_t get=0)
{
// This program creates :
// - a one dimensional histogram
// - a two dimensional histogram
// - a profile histogram
// - a memory-resident ntuple
//
// These objects are filled with some random numbers and saved on a file.
// If get=1 the macro returns a pointer to the TFile of "hsimple.root"
// if this file exists, otherwise it is created.
// The file "hsimple.root" is created in $ROOTSYS/tutorials if the caller has
// write access to this directory, otherwise the file is created in $PWD
TString filename = "hsimple.root";
TString dir = gSystem->UnixPathName(gInterpreter->GetCurrentMacroName());
dir.ReplaceAll("hsimple.C","");
dir.ReplaceAll("/./","/");
TFile *hfile = 0;
if (get) {
// if the argument get =1 return the file "hsimple.root"
// if the file does not exist, it is created
TString fullPath = dir+"hsimple.root";
if (!gSystem->AccessPathName(fullPath,kFileExists)) {
hfile = TFile::Open(fullPath); //in $ROOTSYS/tutorials
if (hfile) return hfile;
}
//otherwise try $PWD/hsimple.root
if (!gSystem->AccessPathName("hsimple.root",kFileExists)) {
hfile = TFile::Open("hsimple.root"); //in current dir
if (hfile) return hfile;
}
}
//no hsimple.root file found. Must generate it !
//generate hsimple.root in current directory if we have write access
if (gSystem->AccessPathName(".",kWritePermission)) {
printf("you must run the script in a directory with write access\n");
return 0;
}
hfile = (TFile*)gROOT->FindObject(filename); if (hfile) hfile->Close();
hfile = new TFile(filename,"RECREATE","Demo ROOT file with histograms");
// Create some histograms, a profile histogram and an ntuple
TH1F *hpx = new TH1F("hpx","This is the px distribution",100,-4,4);
hpx->SetFillColor(48);
TH2F *hpxpy = new TH2F("hpxpy","py vs px",40,-4,4,40,-4,4);
TProfile *hprof = new TProfile("hprof","Profile of pz versus px",100,-4,4,0,20);
TNtuple *ntuple = new TNtuple("ntuple","Demo ntuple","px:py:pz:random:i");
gBenchmark->Start("hsimple");
// Create a new canvas.
TCanvas *c1 = new TCanvas("c1","Dynamic Filling Example",200,10,700,500);
c1->SetFillColor(42);
c1->GetFrame()->SetFillColor(21);
c1->GetFrame()->SetBorderSize(6);
c1->GetFrame()->SetBorderMode(-1);
// Fill histograms randomly
TRandom3 random;
Float_t px, py, pz;
const Int_t kUPDATE = 1000;
for (Int_t i = 0; i < 25000; i++) {
random.Rannor(px,py);
pz = px*px + py*py;
Float_t rnd = random.Rndm(1);
hpx->Fill(px);
hpxpy->Fill(px,py);
hprof->Fill(px,pz);
ntuple->Fill(px,py,pz,rnd,i);
if (i && (i%kUPDATE) == 0) {
if (i == kUPDATE) hpx->Draw();
c1->Modified();
c1->Update();
if (gSystem->ProcessEvents())
break;
}
}
gBenchmark->Show("hsimple");
// Save all objects in this file
hpx->SetFillColor(0);
hfile->Write();
hpx->SetFillColor(48);
c1->Modified();
return hfile;
// Note that the file is automatically close when application terminates
// or when the file destructor is called.
}
void makePlot(char* canv)
{
t->SetBranchAddress("LM_PX1", &intree.LM_PX1);
t->SetBranchAddress("LM_PX2", &intree.LM_PX2);
t->SetBranchAddress("LM_PY1", &intree.LM_PY1);
t->SetBranchAddress("LM_PY2", &intree.LM_PY2);
t->SetBranchAddress("LM_P2_Integral", &intree.LM_P2_Integral);
t->SetBranchAddress("time", &intree.timeline);
t->Print();
if(entries<=0)
entries = t->GetEntries();
char title[100]=0;
sprintf(title,"%s runs 1100-1107",canv);
TProfile *prof = new TProfile(title,title,24,0,entries);
TProfile *prof1 = new TProfile(title,title,24,0,entries);
TProfile *prof2 = new TProfile(title,title,24,0,entries);
/**************************************
* read entries
**************************************
*/
Double_t *ratio = new Double_t[entries];
Double_t *parmean = new Double_t[entries];
Double_t *p1 = new Double_t[entries];
Double_t *p2 = new Double_t[entries];
for (int j = 0; j < entries; ++j){
gSystem->Sleep (sleep);
t->GetEntry(j);
ratio[j] = intree.LM_PY1/intree.LM_PY2;
p1[j] = intree.LM_PY1;
p2[j] = intree.LM_PY2;
//cout<<"entry "<<j<<" peak2 "<<intree.LM_PY2<<endl;
}
Double_t mean = TMath::Mean(entries,ratio);
Double_t mean1 = TMath::Mean(entries,p1);
Double_t mean2 = TMath::Mean(entries,p2);
for (int j = 0; j < entries; ++j){
prof->Fill(j,(ratio[j]/mean-1)*100);
prof1->Fill(j,(p1[j]/mean1-1)*100);
prof2->Fill(j,(p2[j]/mean2-1)*100);
}
TCanvas *c1 = new TCanvas(canv,"frascatirun",900,700);
c1->cd();
char axisXname[100];
sprintf(axisXname,"Time (Entries) (total: %i)",entries);
prof->SetXTitle(axisXname);
prof->SetYTitle("Variation (%)");
prof->SetMaximum(1);
prof->SetMinimum(-1);
prof->SetMarkerColor(4);
prof->SetMarkerSize(1);
prof->SetMarkerStyle(8);
prof->SetStats(kFALSE);
prof->Draw();
prof1->SetMarkerColor(5);
prof1->SetMarkerSize(1);
prof1->SetMarkerStyle(6);
prof1->Draw("same");
prof2->SetMarkerColor(1);
prof2->SetMarkerSize(1);
prof2->SetMarkerStyle(7);
prof2->Draw("same");
/* TLegend leg = new TLegend(0.1,0.7,0.48,0.9);
leg->SetHeader("The Legend Title");
leg->AddEntry(h1,"Histogram filled with random numbers","f");
leg->AddEntry("f1","Function abs(#frac{sin(x)}{x})","l");
leg->AddEntry("gr","Graph with error bars","lep");
leg->Draw("same");
*/
}
void Dcurvature(const char *chargechoice = "plus", double ptmin=20){
TString sign=chargechoice;
gStyle->SetPalette(1);
gStyle->SetOptStat("e");
// double ptmin=20;
double ptmax=200;
double etamax=2.1;
int ptbins=(ptmax-ptmin)/10;
double ptbinwidth=(ptmax-ptmin)/ptbins;
int etabins=21;
int phibins=21;
TProfile3D *khistptetaphi = new TProfile3D("DeltaCurv(pt,eta,phi)","DeltaCurv(pt,eta,phi) "+sign,ptbins,ptmin,ptmax,etabins,-etamax,etamax,phibins,-3.14,3.14);
khistptetaphi->GetXaxis()->SetTitle("Pt");
khistptetaphi->GetYaxis()->SetTitle("Eta");
khistptetaphi->GetZaxis()->SetTitle("Phi");
TProfile2D *khistpteta = new TProfile2D("DeltaCurv(pt,eta)","DeltaCurv(pt,eta) "+sign,ptbins,ptmin,ptmax,etabins,-etamax,etamax);
khistpteta->GetXaxis()->SetTitle("Pt");
khistpteta->GetYaxis()->SetTitle("Eta");
TProfile2D *khistptphi = new TProfile2D("DeltaCurv(pt,phi)","DeltaCurv(pt,phi) "+sign,ptbins,ptmin,ptmax,phibins,-3.14,3.14);
khistptphi->GetXaxis()->SetTitle("Pt");
khistptphi->GetYaxis()->SetTitle("Phi");
TProfile *khistpt = new TProfile("DeltaCurv(pt)","DeltaCurv(pt) "+sign,ptbins,ptmin,ptmax);
khistpt->GetXaxis()->SetTitle("Pt");
khistpt->SetAxisRange(-0.001,0.001,"Y");
TProfile *khisteta = new TProfile("DeltaCurv(eta)","DeltaCurv(eta) "+sign,etabins,-etamax,etamax);
khistpt->GetXaxis()->SetTitle("Eta");
TProfile *khistphi = new TProfile("DeltaCurv(phi)","DeltaCurv(phi) "+sign,phibins,-3.14,3.14);
khistpt->GetXaxis()->SetTitle("Phi");
TObjArray *khistptbins= new TObjArray();
for (int i=0; i<ptbins; i++) {
TString name="DeltaCurv(eta,phi), pt bin ";
name+=int(ptmin+i*(ptmax-ptmin)/ptbins);
name+=TString(", charge ")+sign;
TProfile2D *ist = new TProfile2D(name.Data(),name.Data(),phibins,-3.14,3.14,etabins,-etamax,etamax);
ist->SetAxisRange(-0.002,0.002,"Z");
khistptbins->Add(ist);
}
TFile *f = new TFile("RecoRoutines_Z-selection_ZJets_TuneZ2_7TeV_alpgen_tauola.rew8.corr1.root","read");
TTree *tree;
f->GetObject("SingleMuPtScale/"+sign+"muonstree",tree);
Double_t MCPt;
Double_t MCEta;
Double_t MCPhi;
Double_t RecoPt;
Double_t RecoEta;
Double_t RecoPhi;
Double_t EvWeight;
tree->SetBranchAddress("RecoPt",&RecoPt);
tree->SetBranchAddress("RecoEta",&RecoEta);
tree->SetBranchAddress("RecoPhi",&RecoPhi);
tree->SetBranchAddress("MCPt",&MCPt);
tree->SetBranchAddress("MCEta",&MCEta);
tree->SetBranchAddress("MCPhi",&MCPhi);
tree->SetBranchAddress("EvWeight",&EvWeight);
long nentries = tree->GetEntriesFast();
for (int i=0; i<nentries; i++){
tree->GetEntry(i);
if (RecoPt<ptmin || RecoPt>ptmax || RecoEta<-etamax || RecoEta>etamax) continue;
double quantity=(MCPt-RecoPt)/MCPt/RecoPt;
khistptetaphi->Fill(RecoPt,RecoEta,RecoPhi,quantity,EvWeight);
khistpteta->Fill(RecoPt,RecoEta,quantity,EvWeight);
khistptphi->Fill(RecoPt,RecoPhi,quantity,EvWeight);
((TProfile2D*)(khistptbins->At(int((RecoPt-ptmin)/ptbinwidth))))->Fill(RecoPhi,RecoEta,quantity,EvWeight);
khistpt->Fill(RecoPt,quantity,EvWeight);
khisteta->Fill(RecoEta,quantity,EvWeight);
khistphi->Fill(RecoPhi,quantity,EvWeight);
}
TCanvas *c1 = new TCanvas();
khistptetaphi->Draw("BOX");
TCanvas *c2 = new TCanvas();
c2->Divide(2,1);
c2->cd(1);
khistpteta->Draw("BOX");
c2->cd(2);
khistptphi->Draw("BOX");
TCanvas *c2b = new TCanvas();
c2b->Divide(3,1);
c2b->cd(1);
khistpt->Draw();
c2b->cd(2);
khisteta->Draw();
c2b->cd(3);
khistphi->Draw();
TCanvas *c3 = new TCanvas();
c3->Divide(int(sqrt(ptbins))+1,int(sqrt(ptbins)));
for (int i=0;i<ptbins;i++) { c3->cd(i+1); ((TProfile2D*)(khistptbins->At(i)))->Draw("SURF1 PSR Z");}
TProfile *khistcorrpt = new TProfile("DeltaCurv(pt)","DeltaCurv(pt) "+sign,ptbins,ptmin,ptmax);
khistcorrpt->GetXaxis()->SetTitle("Pt");
khistcorrpt->SetAxisRange(-0.001,0.001,"Y");
TProfile *khistcorreta = new TProfile("DeltaCurv(eta)","DeltaCurv(eta) "+sign,etabins,-etamax,etamax);
khistcorrpt->GetXaxis()->SetTitle("Eta");
TProfile *khistcorrphi = new TProfile("DeltaCurv(phi)","DeltaCurv(phi) "+sign,phibins,-3.14,3.14);
khistcorrpt->GetXaxis()->SetTitle("Phi");
// correction
for (int i=0; i<nentries; i++){
tree->GetEntry(i);
if (RecoPt<ptmin || RecoPt>ptmax || RecoEta<-etamax || RecoEta>etamax) continue;
double newpt=RecoPt+RecoPt*RecoPt*khistptetaphi->GetBinContent(khistptetaphi->FindBin(RecoPt,RecoEta,RecoPhi));
double quantity=(MCPt-newpt)/MCPt/newpt;
khistcorrpt->Fill(RecoPt,quantity,EvWeight);
khistcorreta->Fill(RecoEta,quantity,EvWeight);
khistcorrphi->Fill(RecoPhi,quantity,EvWeight);
}
TCanvas *corrc2b = new TCanvas();
corrc2b->Divide(3,1);
corrc2b->cd(1);
khistcorrpt->Draw();
corrc2b->cd(2);
khistcorreta->Draw();
corrc2b->cd(3);
khistcorrphi->Draw();
khistptetaphi->SetName("ist");
khistptetaphi->SaveAs("mcptbinscorrectionfactors.C");
}
void AnalysisBase::findBeamRegionAndAlign(int iPass){
cout << "==================================================================" << endl;
cout << "findBeamRegionAndAlign(): Determining Fiducial Region, Pass = "******"==================================================================" << endl;
double dxWindow = dxWin;
if(iPass == 1) dxWindow = 1000.0;
if(iPass == 2) dxWindow = 1.0;
TH1F* hthx = new TH1F("hthx","#theta_{X}",1000,-5.0,5.0);
TH1F* hthy = new TH1F("hthy","#theta_{Y}",1000,-5.0,5.0);
TH1F* hx = new TH1F("hx","Y position of matched cluster",800,-40.0,40.0);
TH1F* hxdut = new TH1F("hxdut","Y position of matched cluster",800,-40.0,40.0);
TH1F* hs = new TH1F("hs","Strip number of matched cluster",512,0,512.0);
TH1F* hy = new TH1F("hy","Y position of matched cluster",800,-10.0,10.0);
TH1F* hw = new TH1F("hw","#DeltaX",20000,-100.0,100.0);
TH1F* hn = new TH1F("hn","#DeltaX",4000,-2.0,2.0);
TH1F* hnn = new TH1F("hnn","#DeltaX",400,-0.2,0.2);
TH2F* hxy = new TH2F("hxy","Y_{trk} vs X_{trk}, with cluster",640,-8,8.0,640,-8,8);
TProfile *ht = new TProfile("ht","Cluster Charge vs TDC time",12,0,12,100,1000);
TProfile *hzrot = new TProfile("hzrot","#DeltaX vs Y_{trk} at DUT",1600,-8,8,-1.0,1.0);
TH2F* hca = new TH2F("hca","Y_{trk} vs X_{trk}, with found cluster",160,-8,8.0,320,-8,8);
TH2F* hcf = new TH2F("hcf","Y_{trk} vs X_{trk}, with found cluster",160,-8,8.0,320,-8,8);
hca->Sumw2();
hcf->Sumw2();
int istrip;
double nomStrip=0, detStrip = 0;
Long64_t nbytes = 0, nb = 0;
Int_t nentries = fChain->GetEntriesFast();
for (Long64_t jentry=0; jentry<max(nentries,200000);jentry++) {
Long64_t ientry = LoadTree(jentry);
//if(jentry%1000==0) cout << "At entry = " << jentry << endl;
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
if(n_tp3_tracks > 1) continue;
for(int k=0; k<n_tp3_tracks; k++){
bool goodTime = (clustersTDC >= tdcLo && clustersTDC < tdcHi);
goodTime = clustersTDC>1.0;
if(!goodTime) continue;
double x_trk = vec_trk_tx->at(k)*z_DUT+vec_trk_x->at(k);
double y_trk = vec_trk_ty->at(k)*z_DUT+vec_trk_y->at(k);
transformTrackToDUTFrame(k, x_trk, y_trk, nomStrip, detStrip);
double tx = 1000*vec_trk_tx->at(k);
double ty = 1000*vec_trk_ty->at(k);
double x_trk0 = x_trk;
for(int j=0; j<min(clusterNumberPerEvent,10); j++){
if(clustersPosition[j] < 0.1) continue;
if(polarity*clustersCharge[j] < kClusterChargeMin) continue;
bool goodHit = (clustersPosition[j]>iLo && clustersPosition[j]<iHi);
istrip = clustersSeedPosition[j];
if(badStrips[istrip]==0) continue; // exclude bad strips
double x_dut = getDUTHitPosition(j);
x_trk = x_trk0;
double dx = x_dut - x_trk;
hn->Fill(dx);
hnn->Fill(dx);
hca->Fill(x_trk,y_trk);
if(fabs(dx)<dxWindow || iPass==1) {
if(goodHit) {
hx->Fill(x_trk);
hxdut->Fill(x_dut);
hs->Fill(clustersPosition[j]);
hy->Fill(y_trk);
hthx->Fill(tx);
hthy->Fill(ty);
hw->Fill(dx);
hxy->Fill(x_trk,y_trk);
ht->Fill(clustersTDC+0.1,polarity*clustersCharge[j]);
hzrot->Fill(y_trk,dx);
hcf->Fill(x_trk,y_trk);
}
}
}
}
}
//hnn->Draw();
if(iPass==4) {
findCutoutRegion(hcf);
}else {
float xmin=0,xmax=0,ymin=0,ymax=0,txmin=0,txmax=0,tymin=0,tymax=0;
getRange(hthx,txmin,txmax,0.05,2);
getRange(hthy,tymin,tymax,0.05,2);
//getRange(hx,xmin,xmax,0.05,2);
getRange(hy,ymin,ymax,0.2,2);
// Use strip numbers to get xMin and xMax, since dead strips make holes in xpos plot
xmin = getEdgePosition(iHi);
xmax = getEdgePosition(iLo);
xMin = xmin;
xMax = xmax;
yMin = ymin;
yMax = ymax;
txMin = txmin;
txMax = txmax;
tyMin = tymin;
tyMax = tymax;
//
float xlo = 0, xhi=0;
if(iPass==1) getRange(hw,xlo,xhi,0.1,1);
if(iPass==2) getRange(hn,xlo,xhi,0.1,1);
if(iPass==3) getRange(hn,xlo,xhi,0.1,1);
if(iPass>3) getRange(hnn,xlo,xhi,0.2,1);
double XOFF = (xhi + xlo)/2.0;
xOff = xOff - XOFF;
double x_ave = (xMax + xMin)/2.0;
double y_ave = (yMax + yMin)/2.0;
xGloOff = xGloOff - x_ave;
if(iPass<=4) yGloOff = yGloOff - y_ave;
// Check/correct for z rotation
if(iPass==3 && correctForZRotation){
cout << "Checking for z-rotation" << endl;
TF1* p1 = new TF1("p1","[0]+[1]*x",yMin,yMax);
p1->SetParameters(0.0,0.0001);
hzrot->Fit(p1,"0R");
double rz = p1->GetParameter(1);
cout << "=======================================================================" << endl;
cout << "==> Updating z rotation angle from " << Rz << " to " << Rz-rz << " mrad" << endl;
Rz = Rz - rz;
delete p1;
}
float lo = 0, hi = 0;
getTDCBins(ht,lo,hi);
tdcLo = lo;
tdcHi = hi;
cout << "=================================================================" << endl;
cout << "====> TDC Range updated to be from " << tdcLo << " -- " << tdcHi << std::endl;
cout << "=================================================================" << endl;
cout << "====> Fiducial regions, xLo, xHi (Strip numbers) = " << iLo << " " << iHi << endl;
cout << "====> Fiducial regions, xLo, xHi (pos in mm) = " << xMin << " " << xMax << " mm " << endl;
cout << "====> Fiducial regions, yLo, yHi (pos in mm) = " << yMin << " " << yMax << " mm " << endl;
cout << "====> Fiducial regions, thxLo, thxHi (pos in mrad) = " << txMin << " " << txMax << " mrad" << endl;
cout << "====> Fiducial regions, thyLo, thxHi (pos in mrad) = " << tyMin << " " << tyMax << " mrad" << endl;
cout << "=================================================================" << endl;
cout << "====> Shifting sensor by dX = " << XOFF << " mm " << ", new xOff = " << xOff << endl;
cout << "====> Global X, Y shifts: " << x_ave << " " << y_ave << endl;
cout << "====> New global x,y = " << xGloOff << " " << yGloOff << endl;
}
//if(iPass==1) hw->Draw(); // for debugging
//if(iPass==2) hy->Draw();
//return;
delete hxdut;
delete hthx;
delete hthy;
delete hx;
delete hy;
delete hxy;
delete hw;
delete hn;
delete hnn;
delete hs;
delete ht;
delete hzrot;
delete hcf;
delete hca;
return;
}
Double_t CalibTree::Loop(int loop) {
char name[500];
bool debug=false;
if (fChain == 0) return 0;
Long64_t nentries = fChain->GetEntriesFast();
Long64_t nbytes = 0, nb = 0;
std::map<unsigned int, std::pair<double,double> >SumW;
std::map<unsigned int, unsigned int >nTrks;
unsigned int mask(0xFF80), ntrkMax(0);
for (Long64_t jentry=0; jentry<nentries;jentry++) {
// for (Long64_t jentry=0; jentry<1000;jentry++) {
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
if(debug) std::cout << "***Entry (Track) Number : " << ientry
<< " p/eHCal/eMipDR/nDets : " << t_p << "/" << t_eHcal
<< "/" << t_eMipDR << "/" << (*t_DetIds).size()
<< std::endl;
if (goodTrack()) {
if (loop == 0) hprof_ndets->Fill(t_ieta, (*t_DetIds).size());
double Etot=0.0;
for (unsigned int idet=0; idet<(*t_DetIds).size(); idet++) {
double hitEn=0.0;
unsigned int detid = (*t_DetIds)[idet] & mask;
if (Cprev.find(detid) != Cprev.end())
hitEn = Cprev[detid] * (*t_HitEnergies)[idet];
else
hitEn = (*t_HitEnergies)[idet];
Etot += hitEn;
}
for (unsigned int idet=0; idet<(*t_DetIds).size(); idet++) {
unsigned int detid = (*t_DetIds)[idet] & mask;
double hitEn=0.0;
if (debug) std::cout << "idet " << idet << " detid/hitenergy : "
<< std::hex << (*t_DetIds)[idet] << ":" << detid
<< "/" << (*t_HitEnergies)[idet] << std::endl;
if (Cprev.find(detid) != Cprev.end())
hitEn = Cprev[detid] * (*t_HitEnergies)[idet];
else
hitEn = (*t_HitEnergies)[idet];
double Wi = hitEn/Etot;
double Fac = (Wi* t_p) / Etot;
if( SumW.find(detid) != SumW.end() ) {
Wi += SumW[detid].first;
Fac += SumW[detid].second;
SumW[detid] = std::pair<double,double>(Wi,Fac);
nTrks[detid]++;
} else {
SumW.insert( std::pair<unsigned int, std::pair<double,double> >(detid,std::pair<double,double>(Wi,Fac)));
nTrks.insert(std::pair<unsigned int,unsigned int>(detid, 1));
}
if (nTrks[detid] > ntrkMax) ntrkMax = nTrks[detid];
}
}
}
std::map<unsigned int, std::pair<double,double> >::iterator SumWItr = SumW.begin();
unsigned int kount(0), mkount(0);
double sumfactor(0);
double dets[150], cfacs[150], wfacs[150], nTrk[150];
unsigned int ntrkCut = ntrkMax/10;
for (; SumWItr != SumW.end(); SumWItr++) {
if (debug)
std::cout<< "Detid/SumWi/SumFac : " << SumWItr->first << " / "
<< (SumWItr->second).first << " / " << (SumWItr->second).second
<< std::endl;
unsigned int detid = SumWItr->first;
double factor = (SumWItr->second).second / (SumWItr->second).first;
if(nTrks[detid]>ntrkCut) {
if (factor > 1) sumfactor += (1-1/factor);
else sumfactor += (1-factor);
mkount++;
}
if (Cprev.find(detid) != Cprev.end()) {
Cprev[detid] *= factor;
cfacs[kount] = Cprev[detid];
} else {
Cprev.insert( std::pair<unsigned int, double>(detid, factor) );
cfacs[kount] = factor;
}
int ieta = (detid>>7) & 0x3f;
int zside= (detid&0x2000) ? 1 : -1;
int depth= (detid>>14)&0x1F;
wfacs[kount]= factor;
dets[kount] = zside*(ieta+0.1*(depth-1));
nTrk[kount] = nTrks[detid];
kount++;
}
TGraph *g_fac, *g_fac2, *g_nTrk;
g_fac = new TGraph(kount, dets, cfacs);
sprintf(name, "Cfacs_detid_it%d", loop);
fout->WriteTObject(g_fac, name);
g_fac2 = new TGraph(kount, dets, wfacs);
sprintf(name, "Wfacs_detid_it%d", loop);
fout->WriteTObject(g_fac2, name);
g_nTrk = new TGraph(kount, dets, nTrk);
if (loop==0) fout->WriteTObject(g_nTrk, "nTrk_detid");
std::cout << "The new factors are :" << std::endl;
std::map<unsigned int, double>::iterator CprevItr = Cprev.begin();
unsigned int indx(0);
for (CprevItr=Cprev.begin(); CprevItr != Cprev.end(); CprevItr++, indx++){
unsigned int detid = CprevItr->first;
int ieta = (detid>>7) & 0x3f;
int zside= (detid&0x2000) ? 1 : -1;
int depth= (detid>>14)&0x1F;
std::cout << "DetId[" << indx << "] " << std::hex << detid << std::dec
<< "(" << ieta*zside << "," << depth << ") ( nTrks:"
<< nTrks[detid] << ") : " << CprevItr->second << std::endl;
}
double mean = (mkount > 0) ? (sumfactor/mkount) : 0;
std::cout << "Mean deviation " << mean << " from 1 for " << mkount << ":"
<< kount << " DetIds" << std::endl;
return mean;
}
void analisi_tree_1hit(){ //faccio gli istogrammi dal Tree T creato nel file CheckESD.C
gROOT->Reset();
gStyle->SetOptStat(0012);
gStyle->SetOptFit(0111);
Bool_t kCal=kFALSE;
TFile *fcal = TFile::Open("calibration.root");
TProfile *hCalX;
TProfile *hCalZ;
if(fcal){
kCal=kTRUE;
hCalX = (TProfile *) fcal->Get("hCalX");
hCalZ = (TProfile *) fcal->Get("hCalZ");
}
else{
hCalX= new TProfile("hCalX","x alignement per strip;# strip;#DeltaX (cm)",1700,0,1700);
hCalZ= new TProfile("hCalZ","z alignement per strip;# strip;#DeltaX (cm)",1700,0,1700);
}
// check alignment
TProfile *hx = new TProfile("hx","x alignement per strip;# strip;#DeltaX (cm)",1700,0,1700);
TProfile *hz = new TProfile("hz","z alignement per strip;# strip;#DeltaZ (cm)",1700,0,1700);
// definire istogrammi (ricordarsi di fare il write nel file successivamente)
//TH1F *hdeltat = new TH1F("hdeltat","inside the pad (cl_{1}) - cluster along x;t_{1} - t_{2} (ps)",400,-500,500);
//TH1F *hdeltax = new TH1F("hdeltax","inside the pad (cl_{1}) - cluster along x;#Deltax_{1} - #Deltax_{2} (cm)",100,-10,10);
TH1F *hch = new TH1F("hch","inside the pad (cl_{1}) - cluster along x;ch_{1} - ch_{2}",500,0,500);
//TH2F *pxt = new TH2F("pxt","inside the pad (cl_{1}) - cluster along x ;t_{1} - t_{2} (ps);cl_{1} #Deltax (cm)",41,-20.5*24.4,20.5*24.4,100,-4,4); // 24.4 ps quantizzazione TDC
//TH2F *pzt = new TH2F("pzt","inside the pad (cl_{1}) - cluster along z ;t_{1} - t_{2} (ps);cl_{1} #Deltaz (cm)",41,-20.5*24.4,20.5*24.4,100,-4,4); // 24.4 ps quantizzazione TDC
//CFC:Istogramma numero cluster(qua coincidono con le hit)
//TH1F *hnc = new TH1F("hnc","Number of Hits",12,0.,12.);
//Istogramma tempi TOF
TH1F *ht1 = new TH1F("ht1","TOF's Time ",41,0.,30000.);
//Istogramma 1D per i residui
TH1F *hresx1 = new TH1F("hresx1","Residui x1",100,-10.,10.);
TH1F *hresz1 = new TH1F("hresz1","Residui z1",100,-10.,10.);
TH1F *hresdist1 = new TH1F("hresdist1","Residui sqrt(x1^2+z1^2)",100,-10.,10.);
//Istogramma 2D per i residui
TH2F *h2resxz1 = new TH2F("h2resxz1" , "Residui dx1 e dz1", 100, -4. , 4. , 100 , -4. , 4.);
//Istogramma tempi meno tempi attesi
TH1F *ht1_texp = new TH1F("ht1_texp","",100,-2000.,2000.);
TH1F *ht1_texptot = new TH1F("ht1_texptot","",100,-2000.,2000.);
//TH1F *hexp_time_pi = new TH1F("hexp_time_pi","hexp_time_pi",1000,0.,30000.);
TProfile *hprofx = new TProfile("hprofx","Profile t1-t_exp_pi vs dx1",26, -2.,2.);
TProfile *hprofxcorr = new TProfile("hprofxcorr","Profile t1-t_exp_pi corr vs dx1",26, -2.,2.);
TProfile *hprofz = new TProfile("hprofz","Profile t1-t_exp_pi vs dz1",26, -3.,3.);
TProfile *hprofd=new TProfile("hprofd","Profile t1-t_exp_pi vs d",26, 0.,4.);
TH1F *htbest = new TH1F("htbest","htbest",100,-2000.,2000.);
TH1F *htcorrtw= new TH1F("htcorrtw","htcorrtw",100,-2000.,2000.);
//TH2F *h2dxdzt1_texp=new TH2F("h2dxdzt1_texp","h2dxdzt1_texp",30,-10.25.,10.25,50,-10.75.,10.75.);
//TH2F *h2dxdzt1_texp_dummy=new TH2F("h2dxdzt1_texp_dummy","h2dxdzt1_texp_dummy",30,-10.25.,10.25,50,-10.75.,10.75.);
TH2F *h2dxdzt1_texp=new TH2F("h2dxdzt1_texp","h2dxdzt1_texp",20,-1.25,1.25,10,-1.75,1.75);
TH2F *h2dxdzt1_texp_dummy=new TH2F("h2dxdzt1_texp_dummy","h2dxdzt1_texp_dummy",20,-1.25,1.25,10,-1.75,1.75);
//Istogramma 2D distanza eff vs delay time
TH2F *h2t1_texp_deff= new TH2F("h2t1_texp_deff" , "Delay time 0 vs deff", 50, 0. , 10.,100,-400.,400.);
TH2F *h2t1_texp_deff_tw= new TH2F("h2t1_texp_deff_tw" , "Delay time 0 corr tw vs deff", 50, 0. , 10.,100,-400.,400.);
TProfile *hprofdeff=new TProfile("hprofdeff","Profile t1-t_exp_pi vs deff",50, -3.,10.);
// Utilizzo TOT.
TH2F *h2t1_texp_TOT= new TH2F("h2t1_texp_TOT" , "Delay time vs TOT", 50, 0. , 100.,100,-400.,400.);
TProfile *hproft1_texp_TOT = new TProfile("hproft1_texp_TOT","Profile t1-t_exp_pi vs TOT",50, 0. , 100.);
TH2F *h2t1_deff_TOT= new TH2F("h2t1_deff_TOT" , "deff vs TOT", 50, 0. , 100.,50, 0. , 10.);
TH2F *h2t1_TOT_deff= new TH2F("h2t1_TOT_deff" , "TOT vs deff",50, 0. , 10., 50, 0. , 100.);
TFile *f = new TFile("AnalysisResults.root");
TTree *T = (TTree*)f->Get("T"); //in generale . (e non freccia) se Tfile è un oggetto e NON un puntatore(*)
//Varibili tree "T"
//Int_t nevento;
//Int_t ntracks;
Int_t ncluster;
Float_t tempo[100];//con start time sottratto
Float_t DeltaX[100];
Float_t DeltaZ[100];
Int_t ChannelTOF[100];
Float_t impulso_trasv;
Float_t exp_time_pi[100];
Float_t L[100];
Float_t TOT[100];
Float_t res[3];
Int_t charge;
Float_t phi,eta;
Float_t secAngle;
Float_t cval[5];
Float_t thetay;
Float_t StartTime,StartTimeRes;
Float_t z;
//T->Branch("nevento",&nevento,"nevento/I");
//T->SetBranchAddress("ntracks",&ntracks);
T->SetBranchAddress("ncluster",&ncluster);
T->SetBranchAddress("tempo",tempo);
T->SetBranchAddress("DeltaX",DeltaX);
T->SetBranchAddress("DeltaZ",DeltaZ);
T->SetBranchAddress("ChannelTOF",ChannelTOF);
T->SetBranchAddress("impulso_trasv",&impulso_trasv);
T->SetBranchAddress("exp_time_pi",exp_time_pi);
T->SetBranchAddress("L",L);
T->SetBranchAddress("TOT",TOT);
T->SetBranchAddress("res",res);
T->SetBranchAddress("charge",&charge);
T->SetBranchAddress("phi",&phi);
T->SetBranchAddress("eta",&eta);
T->SetBranchAddress("secPhi",&secAngle);
T->SetBranchAddress("cval",cval);
T->SetBranchAddress("thetay",&thetay);
T->SetBranchAddress("StartTime",&StartTime);
T->SetBranchAddress("StartTimeRes",&StartTimeRes);
Int_t nentries = (Int_t)T->GetEntries();
for(Int_t i=0;i<nentries;i++) {
T->GetEntry(i);
for(Int_t ip=0;ip<ncluster;ip++){
tempo[ip] -= StartTime;
Int_t strip=ChannelTOF[0]/96;
if(kCal){
DeltaX[ip] -= hCalX->GetBinContent(strip+1);
DeltaZ[ip] -= hCalZ->GetBinContent(strip+1);
}
}
if(ncluster == 1){
if(impulso_trasv>1.3){
hx->Fill(int(ChannelTOF[0]/96),DeltaX[0]);
hz->Fill(int(ChannelTOF[0]/96),DeltaZ[0]);
if(!kCal){
hCalX->Fill(int(ChannelTOF[0]/96),DeltaX[0]);
hCalZ->Fill(int(ChannelTOF[0]/96),DeltaZ[0]);
}
h2resxz1->Fill(DeltaX[0],DeltaZ[0]);
h2resxz1->GetXaxis()->SetTitle("Dx1 (cm)");
h2resxz1->GetYaxis()->SetTitle("Dz1 (cm)");
hresx1->Fill(DeltaX[0]);
hresx1->GetXaxis()->SetTitle("Dx1 (cm)");
hresz1->Fill(DeltaZ[0]);
hresz1->GetXaxis()->SetTitle("Dz1 (cm)");
hresdist1->Fill(sqrt(DeltaX[0]*DeltaX[0]+DeltaZ[0]*DeltaZ[0]));
hresdist1->GetXaxis()->SetTitle("sqrt(Dx^2+Dz^2) (cm)");
}
if(impulso_trasv>0.8 && impulso_trasv<1.){ // serve per gli exp time
//if( TMath::Abs(DeltaZ[0])<1.75){
if(TMath::Abs(tempo[0]-exp_time_pi[0])<800./* per avere circa 3 sigma che sia un pi*/ ){
if(TMath::Abs(DeltaX[0])<1.5){
//if((ChannelTOF[0]/48)%2==0){z=1.75+DeltaZ[0];}
//if((ChannelTOF[0]/48)%2 == 1){z=1.75-DeltaZ[0];}
if((ChannelTOF[0]/48)%2==0){z=DeltaZ[0];}
if((ChannelTOF[0]/48)%2 == 1){z= -DeltaZ[0];}
Float_t w=tempo[0]- exp_time_pi[0];
h2dxdzt1_texp->Fill(DeltaX[0],z, w);
h2dxdzt1_texp_dummy->Fill(DeltaX[0],z);
if( TMath::Abs(DeltaZ[0])<1.75 && TMath::Abs(DeltaX[0])<1.25){ //sto selezionando che il pad matchato sia dove passa la traccia, poichè altrimenti nel grafico con d e delay time vi sarebbero degli effetti di bordo
Float_t t1=tempo[0];
ht1->Fill(t1);
ht1->GetXaxis()->SetTitle("t1(ps)");
//cout<<(ChannelTOF[0]/48)%2<<endl;
Float_t d;
if((ChannelTOF[0]/48)%2 == 0){
d=sqrt(DeltaX[0]*DeltaX[0]+(1.75+DeltaZ[0])*(1.75+DeltaZ[0])); //da quello che ho capito il pad 0 è quello in alto quindi ha punto d raccolta in alto
/*
if((ChannelTOF[0]/96)==((ChannelTOF[0]+48)/96)) //if fatto per capire quale sia quallo in alto e quale quello in basso poichè hanno una raccolta di carica differente
{
cout<<"ciao, io ,pad 0, sono quello sopra"<<endl;
}
*/
}
if((ChannelTOF[0]/48)%2 == 1) {
d=sqrt(DeltaX[0]*DeltaX[0]+(1.75-DeltaZ[0])*(1.75-DeltaZ[0])); //da quello che ho capito il pad 1 è quello in basso quindi ha punto d raccolta in basso
/*//if fatto per capire quale sia quallo in alto e quale quello in basso poichè hanno una raccolta di carica differente
if((ChannelTOF[0]/96)==((ChannelTOF[0]+48)/96))
{
cout<<"ciao, io ,pad 1, sono quello sopra"<<endl;
}
*/
}
Float_t res1 = DeltaX[0]*DeltaX[0] + DeltaZ[0]*DeltaZ[0];
//Float_t posx = (DeltaX[0])*(ChannelTOF[0]-ChannelTOF[1]);
// hdeltax->Fill(posx);
//hdeltax->GetXaxis()->SetTitle("posx (cm)");
//
// pxt->Fill(tempo[0], DeltaX[0]);
// pxt->GetXaxis()->SetTitle("t (cm)");
// pxt->GetYaxis()->SetTitle("dx (cm)");
// pzt->Fill(tempo[0], DeltaZ[0]);
// pzt->GetXaxis()->SetTitle("t(cm)");
// pzt->GetYaxis()->SetTitle("Dz1 (cm)");
hch->Fill(ChannelTOF[0]);
hch->GetXaxis()->SetTitle("ch");
Float_t tw1=tempo[0]- exp_time_pi[0];
ht1_texp->Fill(tw1);
ht1_texp->GetXaxis()->SetTitle("t_{1} - t_{exp #pi} (ps)");
//cerco correlazione tra TOT e delay time
h2t1_texp_TOT->Fill(TOT[0],tw1);
h2t1_texp_TOT->GetXaxis()->SetTitle("TOT ");
h2t1_texp_TOT->GetYaxis()->SetTitle("t_{1}-t_{exp #pi} (ps)");
hproft1_texp_TOT->Fill(TOT[0],tw1 ,1);
hproft1_texp_TOT->GetXaxis()->SetTitle("TOT");
hproft1_texp_TOT->GetYaxis()->SetTitle("t_{0}-t_{exp #pi} (ps)");
/////////////////////PROFILE 1
//riempio istogrammma, poi lo fitto fuori dal loop
// hprofx->Fill(DeltaX[0],tw1 ,1);
// hprofx->GetXaxis()->SetTitle("dx (cm)");
// hprofx->GetYaxis()->SetTitle("t_{1}-t_{exp #pi} (ps)");
//
// hprofz->Fill(DeltaZ[0],tw1 ,1);
// hprofz->GetXaxis()->SetTitle("dz (cm)");
// hprofz->GetYaxis()->SetTitle("t_{1}-t_{exp #pi} (ps)");
hprofd->Fill(d,tw1 ,1);
hprofd->GetXaxis()->SetTitle("d (cm)");
hprofd->GetYaxis()->SetTitle("t_{1}-t_{exp #pi} (ps)");
//}
}
}
}
}
}
}
h2dxdzt1_texp->Divide(h2dxdzt1_texp_dummy);
h2dxdzt1_texp->SetOption("LEGO2");
h2dxdzt1_texp->GetXaxis()->SetTitle("dx (cm)");
h2dxdzt1_texp->GetYaxis()->SetTitle("dz (cm)");
//Double_t par[0]=0;
//Double_t par[1]=0;
TF2 *myfunc=new TF2("myfunc"," [0] * sqrt(x*x+[1]*[1]*(1.75+y)*(1.75+y))+[2]", -1.25,1.25,-1.75,1.75);
myfunc->SetParameter(1,0.5);
h2dxdzt1_texp->Fit(myfunc,"R");
Double_t vel1, alfa;
vel1= pow(myfunc->GetParameter(0),-1);
alfa= myfunc->GetParameter(1);
cout<<"Ciao, io sono la velocità in 3d "<<vel1<<endl;
for(Int_t i=0;i<nentries;i++){
T->GetEntry(i);
for(Int_t ip=0;ip<ncluster;ip++){
tempo[ip] -= StartTime;
Int_t strip=ChannelTOF[0]/96;
if(kCal){
DeltaX[ip] -= hCalX->GetBinContent(strip+1);
DeltaZ[ip] -= hCalZ->GetBinContent(strip+1);
}
}
if(ncluster == 1) {
if(impulso_trasv>0.8 && impulso_trasv<1.){ // serve per gli exp time
if(TMath::Abs(tempo[0]-exp_time_pi[0])<800./* per avere circa 3 sigma che sia un pi*/ ){
if(TMath::Abs(DeltaX[0])<1.5){
if((ChannelTOF[0]/48)%2==0){z=DeltaZ[0];}
if((ChannelTOF[0]/48)%2==1){z= -DeltaZ[0];}
Float_t deff=sqrt(DeltaX[0]*DeltaX[0]+ alfa*alfa * (1.75+z)*(1.75+z)*(z>-1.75));
Float_t tw1tot=tempo[0]- exp_time_pi[0];
h2t1_texp_deff->Fill(deff,tw1tot);
h2t1_texp_deff->GetXaxis()->SetTitle("deff (cm)");
h2t1_texp_deff->GetYaxis()->SetTitle("delay time (ps)");
hprofdeff ->Fill(deff,tw1tot ,1);
hprofdeff->GetXaxis()->SetTitle("deff (cm)");
hprofdeff->GetYaxis()->SetTitle("t_{1}-t_{exp #pi} (ps)");
h2t1_deff_TOT->Fill(TOT[0],deff);
h2t1_deff_TOT->GetXaxis()->SetTitle("TOT (ps)");
h2t1_deff_TOT->GetYaxis()->SetTitle("deff (cm)");
h2t1_TOT_deff->Fill(deff, TOT[0]);
h2t1_TOT_deff->GetXaxis()->SetTitle("deff (cm)");
h2t1_TOT_deff->GetYaxis()->SetTitle("TOT (ps)");
}
}
}
}
}
TF1 *fs = new TF1("fs","gaus",-400.,400.);
h2t1_texp_deff->FitSlicesY(fs);
TH1D *h2t1_texp_deff_1 = (TH1D *) gDirectory->FindObject("h2t1_texp_deff_1");
h2t1_texp_deff_1->Draw("same");
//h2t1_texp_deff_2->Draw("same");
// TF1 *f1 = new TF1("f1","pol1",0., 2.15);
// h2t1_texp_deff_1->Fit("f1","R");
// Double_t vel2;
// vel2 = pow(f1->GetParameter(1),-1);
// cout<<"Ciao, io sono la velocità in 2d "<<vel2<<endl;
TF1 *f1 = new TF1("f1","[0]*TMath::Min(x,1.75)+[1]",0., 2.8); //Min(x,1.75) , l'1.75 è stato scelto guardando il fit, come meglio sembrava interploare. Per ora, per quanto ne so, è solo una coincidenza che coincida con pad z
h2t1_texp_deff_1->Fit(f1,"R");
Double_t p0,vel2, offset_tw;
p0=f1->GetParameter(0);
vel2= pow(p0,-1);
offset_tw=f1->GetParameter(1);
cout<<"Ciao, io sono la velocità in 2d "<<vel2<<endl;
for(Int_t i=0;i<nentries;i++){
T->GetEntry(i);
for(Int_t ip=0;ip<ncluster;ip++){
tempo[ip] -= StartTime;
Int_t strip=ChannelTOF[0]/96;
if(kCal){
DeltaX[ip] -= hCalX->GetBinContent(strip+1);
DeltaZ[ip] -= hCalZ->GetBinContent(strip+1);
}
}
if(ncluster == 1){
if(impulso_trasv>0.8 && impulso_trasv<1.){ // serve per gli exp time
if(TMath::Abs(tempo[0]-exp_time_pi[0])<800./* per avere circa 3 sigma che sia un pi*/ ){
if(TMath::Abs(DeltaX[0])<1.5){
if((ChannelTOF[0]/48)%2==0){z=DeltaZ[0];}
if((ChannelTOF[0]/48)%2==1){z= -DeltaZ[0];}
Float_t deff=sqrt(DeltaX[0]*DeltaX[0]+ alfa*alfa * (1.75+z)*(1.75+z)*(z>-1.75));
if(deff<2.8){
Float_t tw1tot=tempo[0]- exp_time_pi[0];
ht1_texptot->Fill(tw1tot);
ht1_texptot->GetXaxis()->SetTitle("t_{1} - t_{exp #pi} (ps)");
Float_t tw1corrtw=tw1tot-(offset_tw + p0 *TMath::Min(deff,Float_t(1.75)));//Min(x,1.75) , l'1.75 è stato scelto guardando il fit, come meglio sembrava interploare. Per ora, per quanto ne so, è solo una coincidenza che coincida con pad z
htcorrtw->Fill(tw1corrtw);
htcorrtw->GetXaxis()->SetTitle("t_corr_tw (ps)");
h2t1_texp_deff_tw->Fill(deff,tw1corrtw);
h2t1_texp_deff_tw->GetXaxis()->SetTitle("deff (cm)");
h2t1_texp_deff_tw->GetYaxis()->SetTitle("delay time corr_tw (ps)");
}
}
}
}
}
}
TF1 *fstw = new TF1("fstw","gaus",-400.,400.);
h2t1_texp_deff_tw->FitSlicesY(fstw);
TH1D *h2t1_texp_deff_tw_1 = (TH1D *) gDirectory->FindObject("h2t1_texp_deff_tw_1");
TH1D *h2t1_texp_deff_tw_2 = (TH1D *) gDirectory->FindObject("h2t1_texp_deff_tw_2");
h2t1_texp_deff_tw_1->Draw("same");
h2t1_texp_deff_tw_2->Draw("same");
// TF1 *f1 = new TF1("f1","pol1",-1.25,0.5);
// //hprofx->GetYaxis()->SetRangeUser(-40.,100.);
// hprofx->Fit("f1","R");
// Double_t offset_p1,x1_p1;
// offset_p1= f1->GetParameter(0);
// x1_p1= f1->GetParameter(1);
// for(Int_t i=0;i<nentries;i++)
// {
// T->GetEntry(i);
// for(Int_t ip=0;ip<ncluster;ip++)
// tempo[ip] -= StartTime;
// if(ncluster == 1)
// {
// if(impulso_trasv>0.8 && impulso_trasv<1.2) // serve per gli exp time
// {
// //if( TMath::Abs(DeltaZ[0])<1.75)
// //{
// if(TMath::Abs(tempo[0]-exp_time_pi[0])<800./* per avere circa 3 sigmca che sia un pi*/ )
// {
//
// //Float_t posx = (DeltaX[0])* dch;
// Float_t tw1=tempo[0]- exp_time_pi[0];
//
// Float_t tw1corr=tw1-(offset_p1 + x1_p1 *DeltaX[0]);
//
// hprofxcorr->Fill(DeltaX[0],tw1corr,1);
// hprofxcorr->GetXaxis()->SetTitle("Dx1 (cm)");
// hprofxcorr->GetYaxis()->SetTitle("t1_corr=t1-t_exp_pi corr(ps)");
//
// htbest->Fill(tw1corr);
// htbest->GetXaxis()->SetTitle("t_best=t1_corr(ps)");
//
// //}
// }
// }
// }
// }
//
// TF1 *f1c = new TF1("f1c","pol1",-1.25,0.5);
// hprofxcorr->Fit("f1c","R");
TFile *fo2 = new TFile("output_ist_tree_1hit.root","RECREATE");
hch->Write();
ht1->Write();
h2resxz1->Write();
hresx1->Write();
hresz1->Write();
hresdist1->Write();
//hdeltax->Write();
//pxt->Write();
//pzt->Write();
//hdeltach->Write();
ht1_texp->Write();
ht1_texptot->Write();
//hprofx->Write();
//hprofz->Write();
//hprofxcorr->Write();
//htbest->Write();
hprofd->Write();
h2dxdzt1_texp->Write();
//h2dxdzt1_texp_dummy->Write();
h2t1_texp_deff->Write();
h2t1_texp_deff_1->Write();
//h2t1_texp_deff_2->Write();
hprofdeff->Write();
htcorrtw->Write();
h2t1_texp_deff_tw->Write();
h2t1_texp_deff_tw_1->Write();
h2t1_texp_deff_tw_2->Write();
h2t1_texp_TOT->Write();
hproft1_texp_TOT->Write();
h2t1_deff_TOT->Write();
h2t1_TOT_deff->Write();
hx->Write();
hz->Write();
fo2->Close();
if(!kCal){
printf("write calibration\n");
fcal = new TFile("calibration.root","RECREATE");
hCalX->Write();
hCalZ->Write();
fcal->Close();
}
system("say Ehi you, I have done");
}
// ****************************************************************
//XXX: main
int main(int argc, char* argv[])
{
//
// **** May 20 2010 update ****
// Usage: CreateEcalTimingCalibsEB fileWithTree options...
//
using namespace std;
// Ao dependent timing corrections
// By the definition of these corrections, the timing should be zero for the hits in
// Module 1 or Low eta EE within the valid A/sigma ranges.
// Earlier data will have positive time due to the gradual timing shifts in the positive direction.
timeCorrectionEB_ = new TF1("timeCorrectionEB_","pol4(0)",0,1.2);
//coefficients obtained in the interval (0, 1.5) from Module 1 of run 144011 EB data;
timeCorrectionEB_->SetParameters(0.0399144,-1.32993,2.00013,-1.51769,0.407406);
//coefficients obtained in the interval (-0.5, 2.0)
//timeCorrectionEB_->SetParameters(0.0544539,-1.51924,2.57379,-2.11848,0.606632);
// For selection cuts
string inBxs, inOrbits, inTrig, inTTrig, inLumi, inRuns;
float avgTimeMin, avgTimeMax;
float minAmpEB, minAmpEE;
float maxSwissCrossNoise; // EB only, no spikes seen in EE
float maxHitTimeEB, minHitTimeEB;
// init to sensible defaults
avgTimeMin = -1; // in ns
avgTimeMax = 1; // in ns
minAmpEB = 5; // GeV
minAmpEE = 5; // GeV
maxHitTimeEB = 15; // ns
minHitTimeEB = -15; // ns
maxSwissCrossNoise = 0.95; // EB only
inBxs = "-1";
inOrbits = "-1";
inTrig = "-1";
inTTrig = "-1";
inLumi = "-1";
inRuns = "-1";
char* infile = argv[1];
if (!infile)
{
cout << " No input file specified !" << endl;
return -1;
}
//TODO: Replace this with the parseArguments function from the pi0 binary
std::string stringGenericOption = "--";
for (int i=1 ; i<argc ; i++) {
if (argv[i] == std::string("-bxs") && argc>i+1) inBxs = std::string(argv[i+1]);
if (argv[i] == std::string("-orbits") && argc>i+1) inOrbits = std::string(argv[i+1]);
if (argv[i] == std::string("-trig") && argc>i+1) inTrig = std::string(argv[i+1]);
if (argv[i] == std::string("-ttrig") && argc>i+1) inTTrig = std::string(argv[i+1]);
if (argv[i] == std::string("-lumi") && argc>i+1) inLumi = std::string(argv[i+1]);
if (argv[i] == std::string("-runs") && argc>i+1) inRuns = std::string(argv[i+1]);
if (argv[i] == std::string("-ebampmin") && argc>i+1) minAmpEB = atof(argv[i+1]);
if (argv[i] == std::string("-eeampmin") && argc>i+1) minAmpEE = atof(argv[i+1]);
if (argv[i] == std::string("-swisskmax") && argc>i+1) maxSwissCrossNoise = atof(argv[i+1]);
if (argv[i] == std::string("-avgtimemin") && argc>i+1) avgTimeMin = atof(argv[i+1]);
if (argv[i] == std::string("-avgtimemax") && argc>i+1) avgTimeMax = atof(argv[i+1]);
if (argv[i] == std::string("-ebhittimemax") && argc>i+1) maxHitTimeEB = atof(argv[i+1]);
if (argv[i] == std::string("-ebhittimemin") && argc>i+1) minHitTimeEB = atof(argv[i+1]);
// handle here the case of multiple arguments for input files
if (argv[i] == std::string("--i"))// && argc>i+1)
{
for (int u=i+1; u<argc; u++)
{
if ( 0==std::string(argv[u]).find( stringGenericOption ) )
{
if ( 0==listOfFiles_.size()) {std::cout << "no input files listed" << std::cout;}
else {std::cout << "no more files listed, found: " << argv[u] << std::cout;}
break;
}
else
{
listOfFiles_.push_back(argv[u]);
i++;
}
}// loop on arguments following --i
continue;
}//end 'if input files'
}
// Open the input files
if (listOfFiles_.size()==0){
std::cout << "\tno input file found" << std::endl;
return(1);
}
else{
std::cout << "\tfound " << listOfFiles_.size() << " input files: " << std::endl;
for(std::vector<std::string>::const_iterator file_itr=listOfFiles_.begin(); file_itr!=listOfFiles_.end(); file_itr++){
std::cout << "\t" << (*file_itr) << std::endl;
}
}
// Tree construction
TChain* chain = new TChain ("EcalTimeAnalysis") ;
std::vector<std::string>::const_iterator file_itr;
for(file_itr=listOfFiles_.begin(); file_itr!=listOfFiles_.end(); file_itr++){
chain->Add( (*file_itr).c_str() );
}
cout << "Running with options: "
<< "avgTimeMin: " << avgTimeMin << " avgTimeMax: " << avgTimeMax
<< " minAmpEB: " << minAmpEB << " minAmpEE: " << minAmpEE
<< " maxSwissCrossNoise (EB): " << maxSwissCrossNoise
<< " maxHitTimeEB: " << maxHitTimeEB << " minHitTimeEB: " << minHitTimeEB
<< " inTrig: " << inTrig << " inTTrig: " << inTTrig << " inLumi: " << inLumi
<< " inBxs: " << inBxs << " inRuns: " << inRuns << " inOrbits: " << inOrbits
<< endl;
// Ignore warnings
gErrorIgnoreLevel = 2001;
setBranchAddresses(chain,treeVars_);
// Generate all the vectors for skipping selections
std::vector<std::vector<double> > bxIncludeVector;
std::vector<std::vector<double> > bxExcludeVector;
std::vector<std::vector<double> > orbitIncludeVector;
std::vector<std::vector<double> > orbitExcludeVector;
std::vector<std::vector<double> > trigIncludeVector;
std::vector<std::vector<double> > trigExcludeVector;
std::vector<std::vector<double> > ttrigIncludeVector;
std::vector<std::vector<double> > ttrigExcludeVector;
std::vector<std::vector<double> > lumiIncludeVector;
std::vector<std::vector<double> > lumiExcludeVector;
std::vector<std::vector<double> > runIncludeVector;
std::vector<std::vector<double> > runExcludeVector;
//recall: string inBxs, inOrbits, inTrig, inTTrig, inLumi, inRuns;
genIncludeExcludeVectors(inBxs,bxIncludeVector,bxExcludeVector);
genIncludeExcludeVectors(inOrbits,orbitIncludeVector,orbitExcludeVector);
genIncludeExcludeVectors(inTrig,trigIncludeVector,trigExcludeVector);
genIncludeExcludeVectors(inTTrig,ttrigIncludeVector,ttrigExcludeVector);
genIncludeExcludeVectors(inLumi,lumiIncludeVector,lumiExcludeVector);
genIncludeExcludeVectors(inRuns,runIncludeVector,runExcludeVector);
// Open output file and book hists
string fileNameBeg = "timingCalibsEB";
string rootFilename = fileNameBeg+".root";
TFile* outfile = new TFile(rootFilename.c_str(),"RECREATE");
outfile->cd();
TH1F* calibHistEB = new TH1F("timingCalibsEB","timingCalibs EB [ns]",2000,-100,100);
TH1F* calibErrorHistEB = new TH1F("calibErrorEB","timingCalibError EB [ns]",500,0,5);
calibHistEB->Sumw2();
calibErrorHistEB->Sumw2();
TH2F* calibsVsErrors = new TH2F("timingCalibsAndErrors","TimingCalibs vs. errors [ns]",500,0,5,100,0,10);
calibsVsErrors->Sumw2();
TH1F* expectedStatPresHistEB = new TH1F("expectedStatPresEB","Avg. expected statistical precision EB [ns], all crys",200,0,2);
TH2F* expectedStatPresVsObservedMeanErrHistEB = new TH2F("expectedStatPresVsObsEB","Expected stat. pres. vs. obs. error on mean each event EB [ns]",200,0,2,200,0,2);
TH1F* expectedStatPresEachEventHistEB = new TH1F("expectedStatPresSingleEventEB","Expected stat. pres. each event EB [ns]",200,0,2);
TH2F* errorOnMeanVsNumEvtsHist = new TH2F("errorOnMeanVsNumEvts","Error_on_mean vs. number of events",50,0,50,200,0,2);
errorOnMeanVsNumEvtsHist->Sumw2();
TH1F* hitsPerCryHistEB = new TH1F("hitsPerCryEB","Hits used in each crystal;hashedIndex",61200,0,61200);
TH2F* hitsPerCryMapEB = new TH2F("hitsPerCryMapEB","Hits used in each crystal;i#phi;i#eta",360,1.,361.,172,-86,86);
TProfile2D* ampProfileMapEB = new TProfile2D("ampProfileMapEB","amp profile map [ADC];i#phi;i#eta",360,1.,361.,172,-86,86);
TProfile* ampProfileEB = new TProfile("ampProfileEB","Average amplitude in cry [ADC];hashedIndex",61200,0,61200);
TH1F* sigmaHistEB = new TH1F("sigmaCalibsEB"," Sigma of calib distributions EB [ns]",100,0,1);
//=============Special Bins for TT and Modules borders=============================
double ttEtaBins[36] = {-85, -80, -75, -70, -65, -60, -55, -50, -45, -40, -35, -30, -25, -20, -15, -10, -5, 0, 1, 6, 11, 16, 21, 26, 31, 36, 41, 46, 51, 56, 61, 66, 71, 76, 81, 86 };
// double modEtaBins[10]={-85, -65, -45, -25, 0, 1, 26, 46, 66, 86};
double ttPhiBins[73];
double modPhiBins[19];
double timingBins[79];
double highEBins[11];
for (int i = 0; i < 79; ++i)
{
timingBins[i]=-7.+double(i)*14./78.;
if (i<73)
{
ttPhiBins[i]=1+5*i;
if ( i < 19)
{
modPhiBins[i]=1+20*i;
if (i < 11)
{
highEBins[i]=10.+double(i)*20.;
}
}
}
}
TH2F* calibMapEB = new TH2F("calibMapEB","time calib map EB [ns];i#phi;i#eta",360,1.,361.,172,-86,86);
calibMapEB->Sumw2();
TH2F* sigmaMapEB = new TH2F("sigmaMapEB","Sigma of time calib map EB [ns];i#phi;i#eta",360,1.,361.,172,-86,86);
TH2F* calibErrorMapEB = new TH2F("calibErrorMapEB","Error of time calib map EB [ns];i#phi;i#eta",360,1.,361.,172,-86,86);
TProfile2D* calibTTMapEB = new TProfile2D("calibTTMapEB","time calib map EB (TT) [ns];i#phi;i#eta",360/5,ttPhiBins,35, ttEtaBins);
TDirectory* cryDirEB = gDirectory->mkdir("crystalTimingHistsEB");
cryDirEB->cd();
TH1C* cryTimingHistsEB[61200];
EBDetId det;
for(int hi=0; hi < 61200; ++hi)
{
det = EBDetId::unhashIndex(hi);
if(det==EBDetId())
continue;
string histname = "EB_cryTiming_ieta";
histname+=intToString(det.ieta());
histname+="_iphi";
histname+=intToString(det.iphi());
cryTimingHistsEB[hi] = new TH1C(histname.c_str(),histname.c_str(),660,-33,33);
cryTimingHistsEB[hi]->Sumw2();
}
outfile->cd();
cout << "Making calibs...";
CrystalCalibration* ebCryCalibs[61200];
//XXX: Making calibs with weighted/unweighted mean
for(int i=0; i < 61200; ++i)
ebCryCalibs[i] = new CrystalCalibration(); //use weighted mean!
//ebCryCalibs[i] = new CrystalCalibration(false); //don't use weighted mean!
// Loop over the TTree
int numEventsUsed = 0;
int nEntries = chain->GetEntries();
cout << "Begin loop over TTree." << endl;
for(int entry = 0; entry < nEntries; ++entry)
{
chain->GetEntry(entry);
// Loop once to calculate average event time
float sumTime = 0;
int numCrysEB = 0;
for(int bCluster=0; bCluster < treeVars_.nClusters; bCluster++)
{
if(treeVars_.xtalInBCIEta[bCluster][0] == -999999) continue; // skip EE clusters
for(int cryInBC=0; cryInBC < treeVars_.nXtalsInCluster[bCluster]; cryInBC++)
{
sumTime += treeVars_.xtalInBCTime[bCluster][cryInBC];
numCrysEB++;
}
}
//debug
//cout << "Number of EB crys in event: " << numEBcrys << endl;
//XXX: Event cuts
if(sumTime/numCrysEB > avgTimeMax || sumTime/numCrysEB < avgTimeMin)
{
//cout << "Average event time: " << sumTime/numCrysEB << " so event rejected." << endl;
continue;
}
// check BX, orbit, lumi, run, L1 tech/phys triggers
bool keepEvent = includeEvent(treeVars_.bx,bxIncludeVector,bxExcludeVector)
&& includeEvent(treeVars_.orbit,orbitIncludeVector,orbitExcludeVector)
&& includeEvent(treeVars_.lumiSection,lumiIncludeVector,lumiExcludeVector)
&& includeEvent(treeVars_.runId,runIncludeVector,runExcludeVector)
&& includeEvent(treeVars_.l1ActiveTriggers,
treeVars_.l1NActiveTriggers,trigIncludeVector,trigExcludeVector)
&& includeEvent(treeVars_.l1ActiveTechTriggers,
treeVars_.l1NActiveTechTriggers,ttrigIncludeVector,ttrigExcludeVector);
if(!keepEvent)
continue;
numEventsUsed++;
// Loop over the EB crys and fill the map
for(int bCluster=0; bCluster < treeVars_.nClusters; bCluster++)
{
if(treeVars_.xtalInBCIEta[bCluster][0] == -999999) continue; // skip EE clusters
for(int cryInBC=0; cryInBC < treeVars_.nXtalsInCluster[bCluster]; cryInBC++)
{
int hashedIndex = treeVars_.xtalInBCHashedIndex[bCluster][cryInBC];
float cryTime = treeVars_.xtalInBCTime[bCluster][cryInBC];
float cryTimeError = treeVars_.xtalInBCTimeErr[bCluster][cryInBC];
float cryAmp = treeVars_.xtalInBCAmplitudeADC[bCluster][cryInBC];
//float cryEt = treeVars_.cryETEB_[cryIndex]; // not in the tree
//SIC FEB 14,16 2011 - removed E/E9
// - spike cleaning done higher up
float crySwissCrossNoise = treeVars_.xtalInBCSwissCross[bCluster][cryInBC];
float Ao = cryAmp/sigmaNoiseEB;
float AoLog = log10(Ao/25);
EBDetId det = EBDetId::unhashIndex(hashedIndex);
if(det==EBDetId()) // make sure DetId is valid
continue;
int ieta = det.ieta();
int iphi = det.iphi();
//XXX: RecHit cuts
bool keepHit = cryAmp >= minAmpEB
&& crySwissCrossNoise < maxSwissCrossNoise
&& cryTime > minHitTimeEB
&& cryTime < maxHitTimeEB
&& AoLog > 0
&& AoLog < 1.2;
if(!keepHit)
continue;
//cout << "STUPID DEBUG: " << hashedIndex << " cryTime: " << cryTime << " cryTimeError: " << cryTimeError << " cryAmp: " << cryAmp << endl;
// Timing correction to take out the energy dependence if log10(ampliOverSigOfThis/25)
// is between 0 and 1.2 (about 1 and 13 GeV)
// amplitude dependent timing corrections
float timing = cryTime - timeCorrectionEB_->Eval(AoLog);
//FIXME
cryTimeError = 1;
ebCryCalibs[hashedIndex]->insertEvent(cryAmp,timing,cryTimeError,false);
//SIC Use when we don't have time_error available
//ebCryCalibs[hashedIndex]->insertEvent(cryAmp,cryTime,35/(cryAmp/1.2),false);
ampProfileEB->Fill(hashedIndex,cryAmp);
ampProfileMapEB->Fill(iphi,ieta,cryAmp);
//if(cryTime > 33 || cryTime < -33)
// cout << "Crystal: " << det << " event time is over/underflow: " << cryTime << endl;
}
}
}
//create output text file
ofstream fileStream;
string fileName = fileNameBeg+".calibs.txt";
fileStream.open(fileName.c_str());
if(!fileStream.good() || !fileStream.is_open())
{
cout << "Couldn't open text file." << endl;
return -1;
}
//create problem channels text file
ofstream fileStreamProb;
string fileName2 = fileNameBeg+".problems.txt";
fileStreamProb.open(fileName2.c_str());
if(!fileStreamProb.good() || !fileStreamProb.is_open())
{
cout << "Couldn't open text file." << endl;
return -1;
}
// Create calibration container objects
EcalTimeCalibConstants timeCalibConstants;
EcalTimeCalibErrors timeCalibErrors;
cout << "Using " << numEventsUsed << " out of " << nEntries << " in the tree." << endl;
cout << "Creating calibs..." << endl;
float cryCalibAvg = 0;
int numCrysCalibrated = 0;
vector<int> hashesToCalibrateToAvg;
//Loop over all the crys
for(int hashedIndex=0; hashedIndex < 61200; ++hashedIndex)
{
EBDetId det = EBDetId::unhashIndex(hashedIndex);
if(det==EBDetId())
continue;
CrystalCalibration cryCalib = *(ebCryCalibs[hashedIndex]);
int ieta = det.ieta();
int iphi = det.iphi();
//chiSquaredTotalHist->Fill(cryCalib.totalChi2);
//expectedStatPresHistEB->Fill(sqrt(1/expectedPresSumEB));
//expectedStatPresVsObservedMeanErrHistEB->Fill(sigmaM,sqrt(1/expectedPresSumEB));
//XXX: Filter events at default 0.5*meanE threshold
cryCalib.filterOutliers();
//numPointsErasedHist->Fill(numPointsErased);
//Write cryTimingHists
vector<TimingEvent> times = cryCalib.timingEvents;
for(vector<TimingEvent>::const_iterator timeItr = times.begin();
timeItr != times.end(); ++timeItr)
{
float weight = 1/((timeItr->sigmaTime)*(timeItr->sigmaTime));
cryTimingHistsEB[hashedIndex]->Fill(timeItr->time,weight);
}
cryDirEB->cd();
cryTimingHistsEB[hashedIndex]->Write();
outfile->cd();
hitsPerCryHistEB->SetBinContent(hashedIndex+1,cryCalib.timingEvents.size());
hitsPerCryMapEB->Fill(iphi,ieta,cryCalib.timingEvents.size());
// Make timing calibs
double p1 = cryCalib.mean;
double p1err = cryCalib.meanE;
//cout << "cry ieta: " << ieta << " cry iphi: " << iphi << " p1: " << p1 << " p1err: " << p1err << endl;
if(cryCalib.timingEvents.size() < 10)
{
fileStreamProb << "Cry (only " << cryCalib.timingEvents.size() << " events) was calibrated to avg: " << ieta <<", " << iphi << ", hash: "
<< hashedIndex
<< "\t Calib: " << p1 << "\t Error: " << p1err << std::endl;
hashesToCalibrateToAvg.push_back(hashedIndex);
continue;
}
// Make it so we can add calib to reco time
p1*=-1;
if(p1err < 0.5 && p1err > 0)
{
fileStream << "EB\t" << hashedIndex << "\t" << p1 << "\t\t" << p1err << endl;
calibHistEB->Fill(p1);
//calibMapEEMFlip->Fill(y-85,x+1,p1);
calibMapEB->Fill(iphi,ieta,p1);
calibTTMapEB->Fill(iphi,ieta,p1);
//calibMapEEMPhase->Fill(x+1,y-85,p1/25-floor(p1/25));
//errorOnMeanVsNumEvtsHist->Fill(times.size(),p1err);
cryCalibAvg+=p1;
++numCrysCalibrated;
//Store in timeCalibration container
EcalTimeCalibConstant tcConstant = p1;
EcalTimeCalibError tcError = p1err;
uint32_t rawId = EBDetId::unhashIndex(hashedIndex);
timeCalibConstants[rawId] = tcConstant;
timeCalibErrors[rawId] = tcError;
}
else
{
//std::cout << "Cry: " << ieta <<", " << iphi << ", hash: " << itr->first
// << "\t Calib: " << p1 << "\t Error: " << p1err << std::endl;
fileStreamProb << "Cry was calibrated to avg: " << ieta <<", " << iphi << ", hash: " << hashedIndex
<< "\t Calib: " << p1 << "\t Error: " << p1err << std::endl;
hashesToCalibrateToAvg.push_back(hashedIndex);
}
//calibsVsErrorsEB->Fill(p1err, p1 > 0 ? p1 : -1*p1);
calibErrorHistEB->Fill(p1err);
calibErrorMapEB->Fill(iphi,ieta,p1err);
sigmaHistEB->Fill(cryCalib.stdDev);
sigmaMapEB->Fill(iphi,ieta,cryCalib.stdDev);
}
fileStream.close();
fileStreamProb.close();
// Calc average
if(numCrysCalibrated > 0)
cryCalibAvg/=numCrysCalibrated;
cryCalibAvg-= 2.0833; // Global phase shift
// calibrate uncalibratable crys
for(vector<int>::const_iterator hashItr = hashesToCalibrateToAvg.begin();
hashItr != hashesToCalibrateToAvg.end(); ++hashItr)
{
//Store in timeCalibration container
EcalTimeCalibConstant tcConstant = cryCalibAvg;
EcalTimeCalibError tcError = 999;
uint32_t rawId = EBDetId::unhashIndex(*hashItr);
timeCalibConstants[rawId] = tcConstant;
timeCalibErrors[rawId] = tcError;
}
//Write XML files
cout << "Writing XML files." << endl;
EcalCondHeader header;
header.method_="testmethod";
header.version_="testversion";
header.datasource_="testdata";
header.since_=123;
header.tag_="testtag";
header.date_="Mar 24 1973";
string timeCalibFile = "EcalTimeCalibsEB.xml";
string timeCalibErrFile = "EcalTimeCalibErrorsEB.xml";
// Hack to prevent seg fault
EcalTimeCalibConstant tcConstant = 0;
EcalTimeCalibError tcError = 0;
uint32_t rawId = EEDetId::unhashIndex(0);
timeCalibConstants[rawId] = tcConstant;
timeCalibErrors[rawId] = tcError;
// End hack
EcalTimeCalibConstantsXMLTranslator::writeXML(timeCalibFile,header,timeCalibConstants);
EcalTimeCalibErrorsXMLTranslator::writeXML(timeCalibErrFile,header,timeCalibErrors);
cout << "Writing histograms." << endl;
outfile->cd();
calibHistEB->SetXTitle("timingCalib [ns]");
calibHistEB->Write();
sigmaHistEB->Write();
calibErrorHistEB->SetXTitle("uncertainty on mean [ns]");
calibErrorHistEB->Write();
//eventsEBHist->Write();
//can->Print("calibs1D.png");
//cout << "Writing calibVsErrors" << endl;
//calibsVsErrors->SetYTitle("AbsCalibConst");
//calibsVsErrors->SetXTitle("calibConstError");
//calibsVsErrors->Write();
//cout << "Writing calibErrorHists" << endl;
//calibErrorHistEB->Write();
//cout << "Writing calib maps" << endl;
sigmaMapEB->Write();
calibMapEB->Write();
calibErrorMapEB->Write();
calibTTMapEB->Write();
//calibMapEBFlip->SetXTitle("ieta");
//calibMapEBFlip->SetYTitle("iphi");
//calibMapEBFlip->Write();
//calibMapEBPhase->SetXTitle("iphi");
//calibMapEBPhase->SetYTitle("ieta");
//calibMapEBPhase->Write();
//Move empty bins out of the way
//int nxbins = calibMapEEM->GetNbinsX();
//int nybins = calibMapEEM->GetNbinsY();
//for(int i=0;i<=(nxbins+2)*(nybins+2); ++i)
//{
// double binentsM = calibMapEEM->GetBinContent(i);
// if(binentsM==0)
// {
// calibMapEEM->SetBinContent(i,-1000);
// }
// double binentsP = calibMapEEP->GetBinContent(i);
// if(binentsP==0)
// {
// calibMapEEP->SetBinContent(i,-1000);
// }
//}
//calibMapEEM->SetXTitle("ix");
//calibMapEEM->SetYTitle("iy");
//calibMapEEM->Write();
//calibMapEEP->SetXTitle("ix");
//calibMapEEP->SetYTitle("iy");
//calibMapEEP->Write();
//calibSigmaHist->SetXTitle("#sigma_{cryTime} [ns]");
//calibSigmaHist->Write();
// Old hist, commented Jun 15 2009
//avgAmpVsSigmaTHist->SetXTitle("#sigma_{cryTime} [ns]");
//avgAmpVsSigmaTHist->SetYTitle("Avg. amp. [adc]");
//avgAmpVsSigmaTHist->Write();
//errorOnMeanVsNumEvtsHist->SetXTitle("Events");
//errorOnMeanVsNumEvtsHist->SetYTitle("Error_on_mean [ns]");
//TProfile* theProf = (TProfile*) errorOnMeanVsNumEvtsHist->ProfileX();
//TF1* myFit = new TF1("myFit","[0]/sqrt(x)+[1]",0,50);
//myFit->SetRange(0,50);
////theProf->Fit("myFit");
//theProf->Write();
//errorOnMeanVsNumEvtsHist->Write();
//
//chiSquaredEachEventHist->Write();
//chiSquaredVsAmpEachEventHist->SetXTitle("amplitude [ADC]");
//chiSquaredVsAmpEachEventHist->SetYTitle("#Chi^{2}");
//chiSquaredVsAmpEachEventHist->Write();
//chiSquaredHighMap->SetXTitle("iphi");
//chiSquaredHighMap->SetYTitle("ieta");
//chiSquaredHighMap->Write();
//chiSquaredTotalHist->Write();
//chiSquaredSingleOverTotalHist->Write();
expectedStatPresHistEB->Write();
expectedStatPresVsObservedMeanErrHistEB->Write();
expectedStatPresEachEventHistEB->Write();
//ampEachEventHist->Write();
//numPointsErasedHist->Write();
//calibMapEtaAvgEB->SetXTitle("i#phi");
//calibMapEtaAvgEB->SetYTitle("i#eta");
//calibMapEtaAvgEB->Write();
//calibHistEtaAvgEB->Write();
hitsPerCryHistEB->Write();
hitsPerCryMapEB->Write();
ampProfileMapEB->Write();
ampProfileEB->Write();
//cout << "All done! Close input." << endl;
//f->Close();
//cout << "Close output and quit!" << endl;
outfile->Close();
cout << "done." << endl;
}
void ecaltree::Loop(const char* outputfilename)
{
// In a ROOT session, you can do:
// Root > .L ecaltree.C
// Root > ecaltree t
// Root > t.GetEntry(12); // Fill t data members with entry number 12
// Root > t.Show(); // Show values of entry 12
// Root > t.Show(16); // Read and show values of entry 16
// Root > t.Loop(); // Loop on all entries
//
// This is the loop skeleton where:
// jentry is the global entry number in the chain
// ientry is the entry number in the current Tree
// Note that the argument to GetEntry must be:
// jentry for TChain::GetEntry
// ientry for TTree::GetEntry and TBranch::GetEntry
//
// To read only selected branches, Insert statements like:
// METHOD1:
// fChain->SetBranchStatus("*",0); // disable all branches
// fChain->SetBranchStatus("branchname",1); // activate branchname
// METHOD2: replace line
// fChain->GetEntry(jentry); //read all branches
//by b_branchname->GetEntry(ientry); //read only this branch
if (fChain == 0) return;
std::cout << "Output file is " << outputfilename << std::endl;
#if ANALYSIS == 1
TFile *fileo = TFile::Open(outputfilename,"recreate");
// correlation plots
TH2D *timesCorr_EB = new TH2D("timesCorr_EB","",1000,-10,10,1000,-10,10);
TH2D *timesCorr_EE = new TH2D("timesCorr_EE","",1000,-25,25,1000,-25,25);
TH2D *time1EnergyCorr_EB = new TH2D("time1EnergyCorr_EB","",1000,-10,10,1000,0,200);
TH2D *time1EnergyCorr_EE = new TH2D("time1EnergyCorr_EE","",1000,-50,50,1000,0,200);
TH2D *time2EnergyCorr_EB = new TH2D("time2EnergyCorr_EB","",1000,-10,10,1000,0,200);
TH2D *time2EnergyCorr_EE = new TH2D("time2EnergyCorr_EE","",1000,-50,50,1000,0,200);
// time ratio vs eta, ET, chi2
TProfile *timeRatioVsEta = new TProfile("timeRatioVsEta","",100,0,3.0);
TProfile *timeRatioVsE_EB = new TProfile("timeRatioVsE_EB","",20,0.0,200.);
TProfile *timeRatioVsE_EE = (TProfile*)timeRatioVsE_EB->Clone("timeRatioVsE_EE");
TProfile *timeRatioVsChi2_EB = new TProfile("timeRatioVsChi2_EB","",50,0.0,30.);
TProfile *timeRatioVsChi2_EE = (TProfile*)timeRatioVsChi2_EB->Clone("timeRatioVsChi2_EE");
// time with weights for different slices of times with ratio
double t_window=5.0; // ns
TH1F *time_0_EB = new TH1F("time_0_EB","",1000,-75,75);
TH1F *time_p1_EB = new TH1F("time_p1_EB","",1000,-50,100);
TH1F *time_p2_EB = new TH1F("time_p2_EB","",1000,-25,125);
TH1F *time_m1_EB = new TH1F("time_m1_EB","",1000,-100,50);
TH1F *time_m2_EB = new TH1F("time_m2_EB","",1000,-125,25);
TH1F *time_0_EE = new TH1F("time_0_EE","",1000,-75,75);
TH1F *time_p1_EE = new TH1F("time_p1_EE","",1000,-50,100);
TH1F *time_p2_EE = new TH1F("time_p2_EE","",1000,-25,125);
TH1F *time_m1_EE = new TH1F("time_m1_EE","",1000,-100,50);
TH1F *time_m2_EE = new TH1F("time_m2_EE","",1000,-125,25);
std::vector<TH1F*> time1Dplots;
time1Dplots.push_back(time_0_EB);
time1Dplots.push_back(time_p1_EB);
time1Dplots.push_back(time_p2_EB);
time1Dplots.push_back(time_m1_EB);
time1Dplots.push_back(time_m2_EB);
time1Dplots.push_back(time_0_EE);
time1Dplots.push_back(time_p1_EE);
time1Dplots.push_back(time_p2_EE);
time1Dplots.push_back(time_m1_EE);
time1Dplots.push_back(time_m2_EE);
Long64_t nentries = fChain->GetEntries();
std::cout << "Total entries = " << nentries << std::endl;
Long64_t nbytes = 0, nb = 0;
for (Long64_t jentry=0; jentry<nentries;jentry++) {
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
// if (Cut(ientry) < 0) continue;
if(jentry % 1000 == 0) std::cout << "Processing entry " << jentry << std::endl;
// barrel
for(int h=0;h<std::min(nEBRecHits,10000);++h) {
double r=timeEBRecHits2[h]-timeEBRecHits[h];
if(energyEBRecHits[h]>10) {
timesCorr_EB->Fill(timeEBRecHits[h],timeEBRecHits2[h]);
timeRatioVsEta->Fill(etaEBRecHits[h],r);
timeRatioVsChi2_EB->Fill(chi2EBRecHits[h],r);
if(abs(timeEBRecHits[h])<t_window) time_0_EB->Fill(timeEBRecHits2[h]);
if(abs(timeEBRecHits[h]-25.)<t_window) time_p1_EB->Fill(timeEBRecHits2[h]);
if(abs(timeEBRecHits[h]-50.)<t_window) time_p2_EB->Fill(timeEBRecHits2[h]);
if(abs(timeEBRecHits[h]+25.)<t_window) time_m1_EB->Fill(timeEBRecHits2[h]);
if(abs(timeEBRecHits[h]+50.)<t_window) time_m2_EB->Fill(timeEBRecHits2[h]);
}
time1EnergyCorr_EB->Fill(timeEBRecHits[h],energyEBRecHits[h]);
time2EnergyCorr_EB->Fill(timeEBRecHits2[h],energyEBRecHits[h]);
timeRatioVsE_EB->Fill(energyEBRecHits[h],r);
}
// endcap
for(int h=0;h<std::min(nEERecHits,10000);++h) {
double r=timeEERecHits2[h]-timeEERecHits[h];
if(energyEERecHits[h]>10) {
timesCorr_EE->Fill(timeEERecHits[h],timeEERecHits2[h]);
timeRatioVsEta->Fill(etaEERecHits[h],r);
timeRatioVsChi2_EE->Fill(chi2EERecHits[h],r);
if(abs(timeEERecHits[h])<t_window) time_0_EE->Fill(timeEERecHits2[h]);
if(abs(timeEERecHits[h]-25.)<t_window) time_p1_EE->Fill(timeEERecHits2[h]);
if(abs(timeEERecHits[h]-50.)<t_window) time_p2_EE->Fill(timeEERecHits2[h]);
if(abs(timeEERecHits[h]+25.)<t_window) time_m1_EE->Fill(timeEERecHits2[h]);
if(abs(timeEERecHits[h]+50.)<t_window) time_m2_EE->Fill(timeEERecHits2[h]);
}
time1EnergyCorr_EE->Fill(timeEERecHits[h],energyEERecHits[h]);
time2EnergyCorr_EE->Fill(timeEERecHits2[h],energyEERecHits[h]);
timeRatioVsE_EE->Fill(energyEERecHits[h],r);
}
} // event loop
timeRatioVsEta->Write();
timesCorr_EB->Write();
time1EnergyCorr_EB->Write();
time2EnergyCorr_EB->Write();
timeRatioVsChi2_EB->Write();
timeRatioVsE_EB->Write();
timesCorr_EE->Write();
time1EnergyCorr_EE->Write();
time2EnergyCorr_EE->Write();
timeRatioVsChi2_EE->Write();
timeRatioVsE_EE->Write();
for(int i=0; i<(int) time1Dplots.size(); ++i) time1Dplots[i]->Write();
fileo->Close();
#endif
#if ANALYSIS == 2
ofstream txtfile;
txtfile.open(outputfilename,std::ios::trunc);
Long64_t nentries = fChain->GetEntries();
std::cout << "Total entries = " << nentries << std::endl;
Long64_t nbytes = 0, nb = 0;
for (Long64_t jentry=0; jentry<nentries;jentry++) {
Long64_t ientry = LoadTree(jentry);
if (ientry < 0) break;
nb = fChain->GetEntry(jentry); nbytes += nb;
if(jentry%1000==0) std::cout << "Processing entry " << jentry << "..." << std::endl;
for(int h=0; h<std::min(nEERecHits,10000); ++h) {
if(energyEERecHits[h]>5.0)
txtfile << eventNumber << "\t"
<< ixEERecHits[h] << "\t"
<< iyEERecHits[h] << "\t"
<< nTruePU[12] << "\t" // the bx = 0
<< energyEERecHits[h] << "\t"
<< timeEERecHits[h] << "\t"
<< chi2EERecHits[h] << "\t"
<< ootenergyEERecHits[h] << std::endl;
}
// if (Cut(ientry) < 0) continue;
}
txtfile.close();
#endif
}
void striptree(TString fileName="", Int_t nAPVs=4)
{
//===========================================================================
// Change the inputs
//===========================================================================
//TString fileName = "Raw_Data_July1_Ped_300V";
//TString fileName = "Raw_Data_July1_Source_300V";
//TString fileName = "Raw_Data_July1_Ped_200V";
//TString fileName = "Raw_Data_Pedestal_300V";
// TString fileName = "Raw_Data_Source_300V";
// TString fileName = "Raw_Data_Sept_3_1";
// TString fileName = "Raw_Data_test_3_7";
// TString fileName = "Raw_Data_Albox_2011_03_31_1";
//-- TString fileName = "Raw_Data_04_01_AL_center_1";
// TString fileName = "Raw_Data_04_01_AL_7820_1";
//-- TString fileName = "Raw_Data_7817_04_01_1";
// TString fileName = "Raw_Data_7817_04_01_bkg_1";
//int nAPVs = 4;
//TString fileName = "Raw_Data_July1_Source_200V";
//int nAPVs = 1;
int nEvents = -1; // -1 means all
TString dat = fileName;
TString eps = fileName + "-events.eps";
TString root = fileName + "-events.root";
TFile* file = new TFile(root, "RECREATE");
//===========================================================================
// Read the data and make a 2D scatter plot
//===========================================================================
ifstream in(dat);
if (!in) {
cout<< "File " << dat << " not found" <<endl;
return;
}
TString comments = "vertical --> APV0, APV1, ... of event 1, ...";
TString s;
while (1) {
s.ReadLine(in);
if (s.BeginsWith(comments))
break;
}
gStyle->SetOptStat(10);
TString title = fileName+" ADC Counts vs Channel";
TString title32 = fileName+" ADC Counts vs Channel for 32 ch";
TH2D *h2d = new TH2D("h2d", title.Data(), nAPVs*128, 0, nAPVs*128, 200, 0, 200);
TH2D *h2d32 = new TH2D("h2d32", title.Data(), 16, 0, 16, 200, 0, 200);
TProfile *profile = new TProfile("profile", title32.Data(), nAPVs*128, 0, nAPVs*128);
int event, apv, channel, adc;
// TTree* tree = new TTree("tree", "tree");
// tree->Branch("event", &event, "event/I");
// tree->Branch("apv", &apv, "apv/I");
// tree->Branch("channel", &channel, "channel/I");
// tree->Branch("adc", &adc, "adc/I");
Int_t raw[512];
TTree* etree = new TTree("etree", "etree");
etree->Branch("raw", &raw, "raw[512]/I"); // etree->Draw("raw:Iteration$","Entry$==0")
etree->SetMarkerStyle(6);
etree->SetMarkerColor(2);
int n = 0;
while (1) {
in >> s;
if (!in.good())
break;
if (s.BeginsWith("]DATA]")) // last line
break;
n++;
if ((nEvents != -1) && (n > nEvents))
break;
event = atoi(s.Data());
if (event%100 == 0)
cout << "Processing event " << event << endl;
for (int i=0; i<2; i++)
in >> s; // time
Int_t ichannel = 0;
for (apv=1; apv<=nAPVs; apv++) {
in >> s; // header + analog APV data + one tick mark
int sequenceNumber = 0;
TString subString = "";
int length = s.Length();
for (int j=0; j<length; j++) {
char c = s[j];
if (c != ',') {
subString += c;
} else {
if (sequenceNumber >= 12) {
channel = sequenceNumber - 12;
adc = atoi(subString.Data());
h2d->Fill((apv - 1) * 128 + channel + 0.5, adc);
h2d32->Fill(((apv - 1) * 128 + channel)/32 + 0.5, adc);
profile->Fill((apv - 1) * 128 + channel + 0.5, adc);
//tree->Fill();
raw[ichannel] = adc;
++ichannel;
}
subString = "";
sequenceNumber++;
}
}
}
etree->Fill();
}
in.close();
TCanvas *canvas = new TCanvas;
canvas->Divide(1,2);
canvas->cd();
canvas->cd(1); h2d->Draw();
canvas->cd(2); profile->Draw();
canvas->SaveAs(eps);
// //-- TFile file(root, "RECREATE");
// h2d->Write();
// profile->Write();
// tree->Write();
// //file.Close();
cout<< "\nWrite " << etree->GetEntries() << " of tree " << etree->GetName() << " into file " << file->GetName() <<endl;
cout<< "To plot strip content use e.g. etree->Draw(\"raw:Iteration$\",\"Entry$==0\")" <<endl;
file->Write();
}
void
Analyze(const TString mode="CLOSED",
UShort_t maxH=6,
Bool_t /*doLoops*/=false,
Int_t ifile=0 )
{
#ifdef __CINT__
gROOT->LoadMacro("correlations/Types.hh++");
gROOT->LoadMacro("correlations/Result.hh++");
gROOT->LoadMacro("correlations/QVector.hh++");
gROOT->LoadMacro("correlations/recursive/FromQVector.hh++");
gROOT->LoadMacro("correlations/recurrence/FromQVector.hh++");
gROOT->LoadMacro("correlations/closed/FromQVector.hh++");
gROOT->LoadMacro("correlations/test/ReadData.hh++");
#endif
// --- Setup of harmonics, etc -------------------------------------
gRandom->SetSeed(54321);
UShort_t emode = 0;
if (mode.EqualTo("closed", TString::kIgnoreCase)) emode = 0;
else if (mode.EqualTo("recurrence", TString::kIgnoreCase)) emode = 1;
else if (mode.EqualTo("recursive", TString::kIgnoreCase)) emode = 2;
else
Warning("Analyze", "Mode %s unknown, assuming CLOSED", mode.Data());
correlations::QVector q[nbin];
correlations::FromQVector* c[nbin];
correlations::HarmonicVector h(maxH);
for (UShort_t i = 0; i < maxH; i++) {
// Generate random harmonicx
// h[i] = -6 + gRandom->Integer(12);
h[0] = 2;
h[1] = -2;
h[2] = 2;
h[3] = -2;
h[4] = 2;
h[5] = -2;
h[6] = -2;
h[7] = 2;
// Printf("h_%d:\t%d", i, h[i]);
}
// Resize the Q-vector to fit the harmonics
for(int ibin=0;ibin<nbin;ibin++){
q[ibin] = correlations::QVector(0,0,false);
q[ibin].resize(h);
switch (emode) {
case 0: c[ibin] = new correlations::closed::FromQVector(q[ibin]); break;
case 1: c[ibin] = new correlations::recurrence::FromQVector(q[ibin]); break;
case 2: c[ibin] = new correlations::recursive::FromQVector(q[ibin]); break;
}
}
//Printf("Correlator: %s", c->name());
// --- Some histograms ---------------------------------------------
TH1* sumreals[nbin];
TH1* sumimags[nbin];
TH1* weights[nbin];
TVectorD tottrk;
TVectorD Nevent;
tottrk.ResizeTo(nbin);
tottrk.Zero();
Nevent.ResizeTo(nbin);
Nevent.Zero();
//TH1* reals = new TH1D("reals", "Re(C{n})", maxH-2+1, 2+.5, maxH+1+.5);
//TH1* imags = static_cast<TH1*>(reals->Clone("imags"));
for(int ibin=0;ibin<nbin;ibin++){
sumreals[ibin] = new TH1D(Form("sumreals_%d",ibin), "Re(C{n})", maxH-2+1, 2+.5, maxH+1+.5);
sumimags[ibin] = static_cast<TH1*>(sumreals[ibin]->Clone(Form("sumimags_%d",ibin)));
weights[ibin] = static_cast<TH1*>(sumreals[ibin]->Clone(Form("weights_%d",ibin)));
}
TProfile* timing = new TProfile("timing", "Timing", maxH-2+1, 2+.5,maxH+1+.5);
TH1* hs = new TH1I("harmonics", "Harmonics", maxH, 1.5, maxH+1.5);
/*reals->SetFillColor(kGreen+1);
reals->SetFillStyle(3001);
reals->SetStats(0);
imags->SetTitle("Im(C{n})");
imags->SetFillColor(kBlue+1);
imags->SetFillStyle(3001);
imags->SetStats(0);
timing->SetFillColor(kRed+1);
timing->SetFillStyle(3001);
timing->SetStats(0);
hs->SetFillColor(kMagenta+1);
hs->SetFillStyle(3001);
hs->SetStats(0);*/
for (UShort_t i = 0; i < maxH-1; i++) {
TString label = TString::Format("C{%d}", i+2);
// reals->GetXaxis()->SetBinLabel(i+1, label);
// imags->GetXaxis()->SetBinLabel(i+1, label);
timing->GetXaxis()->SetBinLabel(i+1, label);
hs->GetXaxis()->SetBinLabel(i+1,Form("h_{%d}", i+1));
hs->SetBinContent(i+1, h[i]);
}
hs->GetXaxis()->SetBinLabel(maxH,Form("h_{%d}", maxH));
hs->SetBinContent(maxH, h[maxH-1]);
TStopwatch timer;
// --- Setup input ------------------------------------------------
TFile* file = TFile::Open(Form("%s/vndata_50k_%d.root",dir.Data(),ifile), "READ");
TTree* tree = static_cast<TTree*>(file->Get("tree"));
// TArrayD phis(0);
Int_t M;
Float_t phi[10000],pt[10000],eta[10000];
// TArrayD weights(0);
// Double_t phiR = 0;
// TArrayD* pPhis = &phis;
// TArrayD* pWeights = &weights;
tree->SetBranchAddress("phig", phi);
tree->SetBranchAddress("ptg",pt);
tree->SetBranchAddress("etag",eta);
tree->SetBranchAddress("n", &M);
// tree->SetBranchAddress("weight", &pWeights);
// tree->SetBranchAddress("event", &phiR);
// --- The results -------------------------------------------------
const UShort_t nQ = maxH - 1;
correlations::ResultVector qs[nbin];
for(int ibin=0;ibin<nbin;ibin++)
qs[ibin] = correlations::ResultVector(nQ);
// --- Event loop --------------------------------------------------
Int_t nEvents = tree->GetEntries();
for (Int_t event = 0; event < nEvents; event++) {
tree->GetEntry(event);
int ntrk = M; int xbin=-1;
for(int j=0;j<nbin;j++)
if(ntrk<trkbin[j]&&ntrk>=trkbin[j+1])
xbin=j;
if(xbin<0 || xbin==nbin) continue;
tottrk[xbin]+=ntrk;
q[xbin].reset();
// printf("Event # %4u %4d particles ", event++, phis.GetSize());
for (UShort_t pa = 0; pa < M; pa++){
if(fabs(eta[pa])>etamax) continue;
if(pt[pa]<ptmin||pt[pa]>ptmax) continue; //event selection
// phis.Set(n,pPhis);
q[xbin].fill(phi[pa], 1.);
}
for (UShort_t i = 0; i < nQ; i++) {
UShort_t n = i + 2;
// printf("%s%d", i == 0 ? "" : "..", n);
timer.Reset();
timer.Start();
qs[xbin][i] += c[xbin]->calculate(n, h);
timer.Stop();
timing->Fill(n+.5, timer.RealTime());
}
// printf(" done\n");
Nevent[xbin]++;
}
file->Close();
for(int ibin=0;ibin<nbin;ibin++){
for (UShort_t i = 0; i < nQ; i++) {
// UShort_t iq = i+2;
// Double_t t = timing->GetBinContent(i+1);
// correlations::Complex rc = qs[i].eval();
// Printf("QC{%2d}: %12g + %12gi <t>: %10gs",
// iq, rc.real(), rc.imag(), t);
// if(i==0)Printf("v2{%2d}: %3g\n",2,sqrt(qs[0].eval().real()));
// if(i==2)Printf("v2{%2d}: %3g\n",4,TMath::Power(fabs(qs[2].eval().real()),1./4));
// if(i==4)Printf("v2{%2d}: %3g\n",6,TMath::Power(fabs(qs[4].eval().real()),1./6));
sumreals[ibin]->SetBinContent(i+1,qs[ibin][i]._sum.real());
sumimags[ibin]->SetBinContent(i+1,qs[ibin][i]._sum.imag());
weights[ibin]->SetBinContent(i+1,qs[ibin][i]._weights);
//reals->SetBinContent(i+1, rc.real());
//imags->SetBinContent(i+1, rc.imag());
}
}
/*
TCanvas* can = new TCanvas("C", "C");
can->SetTopMargin(0.15);
can->SetBottomMargin(0.15);
can->SetRightMargin(0.03);
can->Divide(1,3, 0, 0);
DrawInPad(can, 3, timing, true);
DrawInPad(can, 1, reals);
DrawInPad(can, 2, imags);
can->cd(0);
TLatex* ltx = new TLatex(0.5,0.995,c->name());
ltx->SetNDC(true);
ltx->SetTextAlign(23);
ltx->SetTextSize(0.04);
ltx->Draw();
can->Modified();
can->Update();
can->cd();
*/
TString out(mode);
out.ToLower();
file = TFile::Open(Form("%s/%s_%d.root",outdir.Data(),out.Data(),ifile), "RECREATE");
for(int ibin=0;ibin<nbin;ibin++){
sumimags[ibin]->Write();
sumreals[ibin]->Write();
weights[ibin]->Write();
}
Nevent.Write("Nevent");
tottrk.Write("tottrk");
timing->Write();
hs->Write();
file->Write();
file->Close();
for(int ibin=0;ibin<nbin;ibin++){
delete sumimags[ibin];
delete sumreals[ibin];
delete weights[ibin];
}
delete timing;
delete hs;
}
