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CodeCuts.h
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/*******************************************/
// Author: Ivan Dario Piernagorda Peña
// Author: Karen Milena Rodriguez
// Date: 15/02/2020
// Title: Cuts to Data
/*******************************************/
#include "./Histograms.h"
#include "./include/Libraries.h"
#include "./include/Miscelaneous.h"
#include "./src/DataEvent.cpp"
#ifndef CODECUTS_H
#define CODECUTS_H
class Codecuts : public Histograms {
private:
public:
Codecuts(){DoHistograms();}
void CodeCuts();
void CodeCutsCosBin();
void CodeCutsAsym();
};
void Codecuts::CodeCuts(){
string treeName="g13b";
string fileNamePERP="./SKIMS/ListFiles.txt";
DataEvent *myDataList=new DataEvent(fileNamePERP,treeName, 35);
vector<string> PolTableName;
ListFilesAtDir("./TABLES/ListTables", PolTableName);
map<vector<float>,int> keysPlane;
//Average Table Polarization
vector<double> vecInitDob(2); vector<vector<double>> AvP(10,vecInitDob);
vector<int> vecInitInt(2); vector<vector<int>> ItP(10,vecInitInt);
//Table Events X 14 cuts
vector<int> Events(19);
const int NumbOfPolFiles=PolTableName.size();
for (int i=0;i<NumbOfPolFiles;i++){
char *cstr = const_cast<char *>(PolTableName[i].c_str());
LoadPolTable(i,cstr,keysPlane);
}
//----- Save Vars To MaxLike and Binning Method ---//
TFile *Cuts = new TFile("Cuts.root","RECREATE");
TTree *FinalCut = new TTree("FinalCut","Final cuts for MaxLike and Binning method");
float CohE, CohEN, PhotoP;
int NumEv, CohP;
TLorentzVector Proton, Kaon, Sig, WB;
FinalCut->Branch("CohE",&CohE);
FinalCut->Branch("CohEN",&CohEN);
FinalCut->Branch("CohP",&CohP);
FinalCut->Branch("NumEv",&NumEv);
FinalCut->Branch("PhotoPol",&PhotoP);
FinalCut->Branch("VProton",&Proton);
FinalCut->Branch("VKaon",&Kaon);
FinalCut->Branch("VSig",&Sig);
FinalCut->Branch("VWBoost",&WB);
while (myDataList->getEntry()<myDataList->getEntries()){
myDataList->getNextEntry();
if (myDataList->getEntry() % 1000 == 0){
if(myDataList->getCoh_plan() == 0){
fprintf (stderr, "Looped %s : %.2f percent, CohEdge %f BeamE %f \r", "PARA" ,myDataList->getEntry()*100.0/myDataList->getEntries(),myDataList->getCoh_edge_nom(),myDataList->getBeam_en());
fflush (stderr);
}
else {
fprintf (stderr, "Looped %s : %.2f percent, CohEdge %f BeamE %f \r", "PERP" ,myDataList->getEntry()*100.0/myDataList->getEntries(),myDataList->getCoh_edge_nom(),myDataList->getBeam_en());
fflush (stderr);
}
}
Events[0]++; //Events Without Cuts
//------------------ Delta Beta ---------------//
double deltbeta[3] = {};
double deltbetacut[3] = {};
//---------- Vertex ------------ //
h_Vertex->Fill(myDataList->getEVNT_vertex(1).Z());
if(myDataList->getEVNT_vertex(1).Z()<-39.0 || myDataList->getEVNT_vertex(1).Z()>-1.0) continue;
Events[1]++; //Events With Vertex Cut
for (int i=0;i<myDataList->getNum_chargedtracks();i++){
deltbeta[i]=myDataList->getEVNT_track(i).Beta()-myDataList->getEVNT_bem(i);
h_DeltaBe[i]->Fill(myDataList->getEVNT_track(i).Rho(),deltbeta[i]);
h_BeVSp[i]->Fill(myDataList->getEVNT_track(i).Rho(),myDataList->getEVNT_bem(i));
h_BeVSpT->Fill(myDataList->getEVNT_track(i).Rho(),myDataList->getEVNT_bem(i));
if(i == 0 || i == 1)
h_Mass[0]->Fill(myDataList->getEVNT_track(i).Mt());
else
h_Mass[1]->Fill(myDataList->getEVNT_track(i).Mt());
}
//------------------ Delta Beta with Cuts ---------------//
for (int i=0;i<myDataList->getNum_chargedtracks();i++){
deltbetacut[i]=myDataList->getEVNT_track(i).Beta()-myDataList->getEVNT_bem(i);
if(deltbetacut[2] > 0.05 || deltbetacut[2] < -0.05) continue;
if(deltbetacut[0] > 0.02 || deltbetacut[0] < -0.02) continue;
if(deltbetacut[1] > 0.025 || deltbetacut[1] < -0.025) continue;
h_DeltaBecut[i]->Fill(myDataList->getEVNT_track(i).Rho(),deltbeta[i]);
h_BeVSpcut[i]->Fill(myDataList->getEVNT_track(i).Rho(),myDataList->getEVNT_bem(i));
}
if(deltbetacut[2] > 0.05 || deltbetacut[2] < -0.05) continue;
Events[2]++; //Events With DeltaB cut
if(deltbetacut[0] > 0.02 || deltbetacut[0] < -0.02) continue;
Events[3]++; //Events With DeltaB cut
if(deltbetacut[1] > 0.025 || deltbetacut[1] < -0.025) continue;
Events[4]++; //Events With DeltaB cut
//------------------Correlation Theta-Phi, -----------------------/
h_ThePhi[0]->Fill(myDataList->getEVNT_track(0).Phi()*TMath::RadToDeg(), myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg());
h_ThePhi[1]->Fill(myDataList->getEVNT_track(1).Phi()*TMath::RadToDeg(), myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg());
h_ThePhi[2]->Fill(myDataList->getEVNT_track(2).Phi()*TMath::RadToDeg(), myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg());
//-----Cuts due to detector geometry (Fiduciary cuts)---------//
//------------------------------------------------------------//
Double_t phiproton_cut;
phiproton_cut= myDataList->getEVNT_track(0).Phi()*TMath::RadToDeg();
if( (phiproton_cut <= -25) && (phiproton_cut >= -35) ) continue;
if( (phiproton_cut <= -85) && (phiproton_cut >= -95) ) continue;
if( (phiproton_cut <= -145) && (phiproton_cut >= -155) ) continue;
if( (phiproton_cut >= 25) && (phiproton_cut <= 35) ) continue;
if( (phiproton_cut >= 85) && (phiproton_cut <= 95) ) continue;
if( (phiproton_cut >= 145) && (phiproton_cut <= 155) ) continue;
if(F_ThePhiProt[0]->Eval(phiproton_cut) > myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[1]->Eval(phiproton_cut) > myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[2]->Eval(phiproton_cut) > myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[3]->Eval(phiproton_cut) > myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[4]->Eval(phiproton_cut) > myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[5]->Eval(phiproton_cut) > myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[6]->Eval(phiproton_cut) > myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg()) continue;
h_ThePhicut[0]->Fill(phiproton_cut, myDataList->getEVNT_track(0).Theta()*TMath::RadToDeg());
Events[5]++; //Events With Phi-Theta Cuts
//kaon cuts
Double_t phikaon_cut;
phikaon_cut= myDataList->getEVNT_track(1).Phi()*TMath::RadToDeg();
if( (phikaon_cut <= -25) && (phikaon_cut >= -35) ) continue;
if( (phikaon_cut <= -85) && (phikaon_cut >= -95) ) continue;
if( (phikaon_cut <= -145) && (phikaon_cut >= -155) ) continue;
if( (phikaon_cut >= 25) && (phikaon_cut <= 35) ) continue;
if( (phikaon_cut >= 85) && (phikaon_cut <= 95) ) continue;
if( (phikaon_cut >= 145) && (phikaon_cut <= 155) ) continue;
if(F_ThePhiProt[0]->Eval(phikaon_cut) > myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[1]->Eval(phikaon_cut) > myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[2]->Eval(phikaon_cut) > myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[3]->Eval(phikaon_cut) > myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[4]->Eval(phikaon_cut) > myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[5]->Eval(phikaon_cut) > myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[6]->Eval(phikaon_cut) > myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg()) continue;
h_ThePhicut[1]->Fill(phikaon_cut, myDataList->getEVNT_track(1).Theta()*TMath::RadToDeg());
Events[6]++; //Events With Phi-Theta Cuts
//Pion cuts
Double_t phiPion_cut;
phiPion_cut= myDataList->getEVNT_track(2).Phi()*TMath::RadToDeg();
if( (phiPion_cut <= -25) && (phiPion_cut >= -35) ) continue;
if( (phiPion_cut <= -85) && (phiPion_cut >= -95) ) continue;
if( (phiPion_cut <= -145) && (phiPion_cut >= -155) ) continue;
if( (phiPion_cut >= 25) && (phiPion_cut <= 35) ) continue;
if( (phiPion_cut >= 85) && (phiPion_cut <= 95) ) continue;
if( (phiPion_cut >= 145) && (phiPion_cut <= 155) ) continue;
if(F_ThePhiProt[0]->Eval(phiPion_cut) > myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[1]->Eval(phiPion_cut) > myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[2]->Eval(phiPion_cut) > myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[3]->Eval(phiPion_cut) > myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[4]->Eval(phiPion_cut) > myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[5]->Eval(phiPion_cut) > myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg() ||
F_ThePhiProt[6]->Eval(phiPion_cut) > myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg()) continue;
h_ThePhicut[2]->Fill(phiPion_cut, myDataList->getEVNT_track(2).Theta()*TMath::RadToDeg());
Events[7]++; //Events With Phi-Theta Cuts
//------------------ Photons, Delta T ------------------ //
for (int i=0;i<myDataList->getNum_photons();i++){
//LOOP OVER ALL PHOTONS
if (fabs(deltbeta[1])<0.025){
h_DeltaTall[0]->Fill(myDataList->getDelt_t_k(i));
h_DeltaTallvsp[0]->Fill(myDataList->getEVNT_track(1).Rho(),myDataList->getDelt_t_k(i));
}
if (fabs(deltbeta[2])<0.05){
h_DeltaTall[1]->Fill(myDataList->getDelt_t_pi(i));
h_DeltaTallvsp[1]->Fill(myDataList->getEVNT_track(2).Rho(),myDataList->getDelt_t_pi(i));
}
}
//------------Delta T with Cuts ----------- //
if (myDataList->getNumph_k()==1)
h_DeltaT[0]->Fill(myDataList->getDelt_t_k(myDataList->getIndex_k(0)));
if(myDataList->getNumph_pi()==1)
h_DeltaT[1]->Fill(myDataList->getDelt_t_pi(myDataList->getIndex_pi(0)));
if (myDataList->getNumph_k()!=1) continue;
Events[8]++; //Events With Delta T Photon cut
//if (myDataList->getNumph_pi()!=1) continue;
//--------------- Energy loss ----------- //
double CorrElossKa, CorrElossPr, CorrElossPi;
CorrElossKa=(myDataList->geteloss_track(0).Rho() - myDataList->getEVNT_track(0).Rho() )/myDataList->getEVNT_track(0).Rho();
CorrElossPr=(myDataList->geteloss_track(1).Rho() - myDataList->getEVNT_track(1).Rho() )/myDataList->getEVNT_track(1).Rho();
CorrElossPi=(myDataList->geteloss_track(2).Rho() - myDataList->getEVNT_track(2).Rho() )/myDataList->getEVNT_track(2).Rho();
h_eloss[0]->Fill(CorrElossKa);
h_eloss[1]->Fill(CorrElossPr);
h_eloss[2]->Fill(CorrElossPi);
h_Celoss[0]->Fill(myDataList->getEVNT_track(0).Rho(), CorrElossKa);
h_Celoss[1]->Fill(myDataList->getEVNT_track(1).Rho(), CorrElossPr);
h_Celoss[2]->Fill(myDataList->getEVNT_track(2).Rho(), CorrElossPi);
//--------------- Coh Edge -------------- //
h_TagrEpho[0]->Fill(myDataList->getTAGR_epho(myDataList->getIndex_k(0))*1000.0);
if (myDataList->getTAGR_epho(myDataList->getIndex_k(0))*1000.0 > myDataList->getCoh_edge()) continue;
h_TagrEpho[1]->Fill(myDataList->getTAGR_epho(myDataList->getIndex_k(0))*1000.0); Events[9]++; //Events With Tager Epho
if (myDataList->getTAGR_epho(myDataList->getIndex_k(0))*1000< myDataList->getCoh_edge()-200.0) continue;
h_TagrEpho[2]->Fill(myDataList->getTAGR_epho(myDataList->getIndex_k(0))*1000.0); Events[10]++; //Events With Tager Epho
if (fabs(myDataList->getCoh_edge()-myDataList->getCoh_edge_nom()*1000)>15)continue; Events[11]++; //Events With Tager Epho
if (myDataList->getTrip_flag()!=0)continue; Events[12]++; //Events With Tager Epho
if (myDataList->getCoh_plan()!=0 && myDataList->getCoh_plan()!=1)continue; Events[13]++; //Events With Tager Epho
vector<float> Keys(3);
if(myDataList->getCoh_edge_nom() == float(1.3)){
Keys[0]=float(4.2);
Keys[1]=myDataList->getCoh_edge_nom();
Keys[2]=float(myDataList->getCoh_plan());
}
else{
Keys[0]=float(myDataList->getBeam_en());
Keys[1]=myDataList->getCoh_edge_nom();
Keys[2]=float(myDataList->getCoh_plan());
}
double PhotoPol=0;
PhotoPol=GetPol(keysPlane[Keys], myDataList->getCoh_edge(), myDataList->getTAGR_epho(myDataList->getIndex_k(0))*1000.0, 8, 0.2,0.3);
if (PhotoPol<0.5) continue;
GetPolAv(Keys,ItP,AvP,PhotoPol);
Events[14]++; //Events With PhotoPol Tables
//-------------- Reconstruction --------- //
TLorentzVector photon, deuteron, kaon, proton ,pion, Neutron, WBoost, NT; //Principal Reaction
TLorentzVector kaonpion; //MIS-identification particles
TLorentzVector MMNeut_kaon, MMNeut_KPi, MMNeut_KP, MMSigma, MMKaon0, MMNeut_Pi0, Pion; //Missing mass
TLorentzVector Sigma, Lambda, KaonS; //Invariant Mass
photon.SetXYZM(0,0,myDataList->getTAGR_epho(myDataList->getIndex_k(0)),0);
deuteron.SetXYZM(0,0,0,1.8756);
NT.SetXYZM(0,0,0,0.939);
double Px_kaonpion = myDataList->getEVNT_track(1).Rho()* sin(myDataList->getEVNT_track(1).Theta())* cos(myDataList->getEVNT_track(1).Phi());
double Py_kaonpion = myDataList->getEVNT_track(1).Rho()* sin(myDataList->getEVNT_track(1).Theta())* sin(myDataList->getEVNT_track(1).Phi());
double Pz_kaonpion = myDataList->getEVNT_track(1).Rho()*(myDataList->getEVNT_track(1).CosTheta());
// This is the Pion- mass, because we need remove the background of Pion-
kaonpion.SetXYZM(Px_kaonpion, Py_kaonpion, Pz_kaonpion, 0.139);
proton = myDataList->geteloss_track(0);
kaon = myDataList->geteloss_track(1);
pion = myDataList->geteloss_track(2);
MMNeut_kaon = photon + deuteron - proton - kaon - pion;
Neutron.SetXYZM(MMNeut_kaon.Px(), MMNeut_kaon.Py(), MMNeut_kaon.Pz(), 0.939);
Pion.SetXYZM(MMNeut_kaon.Px(), MMNeut_kaon.Py(), MMNeut_kaon.Pz(), 0.139);
Sigma = pion + Neutron;
Lambda = pion + proton;
MMSigma = photon + deuteron - proton - kaon; // Correlation with invariant mass (lambda)
WBoost = photon + deuteron; // to make Boost
MMNeut_KPi = photon + deuteron - proton - kaonpion - pion; // This missing mass is with the Pion-
MMNeut_Pi0 = photon + deuteron - kaon - pion - Neutron - proton;
h_MissingMass->Fill(MMNeut_kaon.M());
h_IMSigmaComparation[0]->Fill(Sigma.M());
h_MissingMass_kaonpion->Fill(MMNeut_KPi.M());
//h_MissingMvsIMMass->Fill(MMNeut_kaon.M(),MMNeut_kaon.P());
h_MissingMass_vsMissingMasskaonpion[0]->Fill(MMNeut_kaon.M(), MMNeut_KPi.M());
h_MissingMass_vsMissingMassPi0[0]->Fill(MMNeut_kaon.M(),MMNeut_Pi0.M());
//-----------Cuts misidentified particles pion plus--------//
if(MMNeut_KPi.M() < 0.98) continue;
h_MissingMass_vsMissingMasskaonpion[1]->Fill(MMNeut_kaon.M(), MMNeut_KPi.M());
h_MissingMass_pi0->Fill(MMNeut_Pi0.M());
//-----------Cuts misidentified particles pion zero-------//
h_BetaVsMomNeu->Fill(MMNeut_kaon.Rho(),MMNeut_kaon.Beta()-Neutron.Beta());
if(MMNeut_kaon.Beta()-Neutron.Beta() < -0.005 || MMNeut_kaon.Beta()-Neutron.Beta() > 0.005) continue;
h_MissingMass_vsMissingMassPi0[1]->Fill(MMNeut_kaon.M(),MMKaon0.M());
Events[15]++; //Events With NOT PION, YES Kaon
// Double_t El = TMath::Power((Sigma.M()-offsetx)*cos(angle)+(MMSigma.M()-offsety)*sin(angle),2)/TMath::Power(radx,2)
// +TMath::Power((Sigma.M()-offsetx)*sin(angle)-(MMSigma.M()-offsety)*cos(angle),2)/TMath::Power(rady,2);
//----------Correlación momentums vs missing mass------------------------//
h_MissingMvsIMMass[0]->Fill(Sigma.M(),MMNeut_kaon.M());
h_MissingMvsIMMass[1]->Fill(Lambda.M(),MMNeut_kaon.M());
h_MissingMassvsSigmaMass->Fill(Sigma.M(), MMNeut_kaon.P());
h_MissingMasscut->Fill(MMNeut_kaon.M());
h_MissingMass_kaonpioncut->Fill(MMNeut_KPi.M());
h_IMSigmaComparation[1]->Fill(Sigma.M());
// h_MissingP->Fill(MMNeut_kaon.P());
h_MissingPvsSigmaMass->Fill(Sigma.M(), MMNeut_kaon.P());
h_InvariantMass->Fill(Sigma.M());
h_LambdaMass->Fill(Lambda.M());
h_InvMassLambda_vsInvMassSigma->Fill(Sigma.M(), Lambda.M());
h_MMassSigma->Fill(MMSigma.M());
h_MMNeutron_vsMMassSigma[0]->Fill(MMNeut_kaon.M(),MMSigma.M());
//------------------------Comparación de sigmas-------------//
if( Lambda.M()<1.108 || Lambda.M()>1.124)
h_InvariantMasscut[0]->Fill(Sigma.M());
if( Lambda.M()<1.11 || Lambda.M()>1.132)
h_InvariantMasscut[1]->Fill(Sigma.M());
if( Lambda.M()<1.092 || Lambda.M()>1.14)
h_InvariantMasscut[2]->Fill(Sigma.M());
//------------- Comparación de missing momentums-----------//
if( Lambda.M()<1.096 || Lambda.M()>1.136)
h_MissingP[0]->Fill(MMNeut_kaon.P());
if( Sigma.M()<1.08 || Sigma.M()>1.3)
h_MissingP[1]->Fill(MMNeut_kaon.P());
if ( Lambda.M()>=1.1 && Lambda.M()<=1.132)continue;
h_MissingMass_Lambda->Fill(MMNeut_kaon.M());
h_MissingMassFinal_Neutron->Fill(MMNeut_kaon.M());
h_IMSigmaComparation[2]->Fill(Sigma.M());
//Cut for LamdaMass in +/- 8sigma
Events[16]++; //Events With Lambda cuts
//--------Correlation Momentums--------------//
h_CorrelationMMomentum->Fill(Sigma.P(), Lambda.P());
// Events[17]++; //Events With Mass neutron range
if(MMNeut_kaon.P()<=0.2) continue; //Cut for rescattering
Events[18]++; //Events With Neutron Rescattering Lambada cuts
h_MMNeutron_vsMMassSigma[1]->Fill(MMNeut_kaon.M(),MMSigma.M()); //Cut MM neutron and MM sigma
h_MMassSigmaCut->Fill(MMSigma.M());
h_MMSigmaVS_IMSigma->Fill(Sigma.M(), MMSigma.M());
h_InvariantMasscut[3]->Fill(Sigma.M());
// Pion - (Por si las moscas)
h_DeltaBVSInvariantMass->Fill(Sigma.M(),deltbeta[2]);
h_DeltaBVSMissingMass->Fill(MMNeut_kaon.M(),deltbeta[2]);
h_DeltaBVSMissingMomentum->Fill(MMNeut_kaon.P(),deltbeta[2]);
//------------Momentum proton----------------.//
h_MomentumProton->Fill(proton.P());
//-----------------BOOST------------------------------//
CohE = myDataList->getCoh_edge();
CohEN = myDataList->getCoh_edge_nom();
CohP = myDataList->getCoh_plan();
PhotoP = PhotoPol;
Proton = proton;
Kaon = kaon;
Sig = Sigma;
WB = WBoost;
NumEv = myDataList->getHEAD_eventnum();
FinalCut->Fill();
}
cout<<endl;
FinalCut->Write();
Cuts->Write();
Cuts->Close();
GetPolAvTable(ItP,AvP);
GetPolAvTableLatex(ItP, AvP, "./PolTable.tex","Polarization Tables","poltab");
GetEventPercentLatex(Events, "./EventCuts.tex", "Event Cut Tables", "eventtab");
GetEventPercent(Events);
DoCanvas();
}
void Codecuts::CodeCutsCosBin(){
TChain *Cuts = new TChain("FinalCut");
TLorentzVector *Proton = NULL , *Kaon = NULL, *Sigma = NULL, *WBoost = NULL;
float CohE = 0, CohEN = 0, PhotoPol = 0;
int NumEv = 0, Event = 0, CohP = 0;
Cuts->Add("Cuts.root");
Cuts->SetBranchAddress("VProton",&Proton);
Cuts->SetBranchAddress("VKaon",&Kaon);
Cuts->SetBranchAddress("VSig",&Sigma);
Cuts->SetBranchAddress("VWBoost",&WBoost);
Cuts->SetBranchAddress("CohE",&CohE);
Cuts->SetBranchAddress("CohEN",&CohEN);
Cuts->SetBranchAddress("CohP",&CohP);
Cuts->SetBranchAddress("NumEv",&NumEv);
Cuts->SetBranchAddress("PhotoPol",&PhotoPol);
while(Event < Cuts->GetEntries()){
if(Event < Cuts->GetEntries()){
Cuts->GetEvent(Event);
Event++;
}
if (Event % 1000 == 0){
if(CohP == 0){
fprintf (stderr, "Looped %s : %.2f percent, CohEdge %f \r", "PARA" ,Event*100.0/Cuts->GetEntries(),CohEN);
fflush (stderr);
}
else {
fprintf (stderr, "Looped %s : %.2f percent, CohEdge %f \r", "PERP" ,Event*100.0/Cuts->GetEntries(),CohEN);
fflush (stderr);
}
}
TVector3 b=WBoost->BoostVector();
Proton->Boost(-b);
Kaon->Boost(-b);
Sigma->Boost(-b);
double KaonCosThetaCM=TMath::Cos(Kaon->Theta());
h_CosThetaCM[0]->Fill(KaonCosThetaCM);
h_CosThetaCM[1]->Fill(KaonCosThetaCM);
h_CosThetaCM[2]->Fill(KaonCosThetaCM);
if(CohEN == float(1.3))h_CosThetaCMT[0]->Fill(KaonCosThetaCM);
else if(CohEN == float(1.5))h_CosThetaCMT[1]->Fill(KaonCosThetaCM);
else if(CohEN == float(1.7))h_CosThetaCMT[2]->Fill(KaonCosThetaCM);
else if(CohEN == float(1.9))h_CosThetaCMT[3]->Fill(KaonCosThetaCM);
else if(CohEN == float(2.1))h_CosThetaCMT[4]->Fill(KaonCosThetaCM);
else if(CohEN == float(2.3))h_CosThetaCMT[5]->Fill(KaonCosThetaCM);
}
DoCanvasCosPart();
}
void Codecuts::CodeCutsAsym(){
TChain *Cuts = new TChain("FinalCut");
TLorentzVector *Proton = NULL , *Kaon = NULL, *Sigma = NULL, *WBoost = NULL;
float CohE = 0, CohEN = 0, PhotoPol = 0;
int NumEv = 0, Event = 0, CohP = 0;
Cuts->Add("Cuts.root");
Cuts->SetBranchAddress("VProton",&Proton);
Cuts->SetBranchAddress("VKaon",&Kaon);
Cuts->SetBranchAddress("VSig",&Sigma);
Cuts->SetBranchAddress("VWBoost",&WBoost);
Cuts->SetBranchAddress("CohE",&CohE);
Cuts->SetBranchAddress("CohEN",&CohEN);
Cuts->SetBranchAddress("CohP",&CohP);
Cuts->SetBranchAddress("NumEv",&NumEv);
Cuts->SetBranchAddress("PhotoPol",&PhotoPol);
while(Event < Cuts->GetEntries()){
if(Event < Cuts->GetEntries()){
Cuts->GetEvent(Event);
Event++;
}
if (Event % 1000 == 0){
if(CohP == 0){
fprintf (stderr, "Looped %s : %.2f percent, CohEdge %f \r", "PARA" ,Event*100.0/Cuts->GetEntries(),CohEN);
fflush (stderr);
}
else {
fprintf (stderr, "Looped %s : %.2f percent, CohEdge %f \r", "PERP" ,Event*100.0/Cuts->GetEntries(),CohEN);
fflush (stderr);
}
}
TVector3 b=WBoost->BoostVector();
Proton->Boost(-b);
Kaon->Boost(-b);
Sigma->Boost(-b);
double ProtonCosThetaCM=TMath::Cos(Proton->Theta());
double KaonCosThetaCM=TMath::Cos(Kaon->Theta());
double SigmaCosThetaCM=TMath::Cos(Sigma->Theta());
double PhiCM=Kaon->Phi()*TMath::RadToDeg();
//0 is for PARA
//1 is for PERP
if(CohEN == float(1.3)){
if (CohP == 0){
if(KaonCosThetaCM < PART[0][0])
{ MEASGamma[CohEN].at(0).push_back(PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][0] && KaonCosThetaCM <= PART[0][1])
{ MEASGamma[CohEN].at(1).push_back(PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][1] && KaonCosThetaCM <= PART[0][2])
{ MEASGamma[CohEN].at(2).push_back(PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][2] && KaonCosThetaCM <= PART[0][3])
{ MEASGamma[CohEN].at(3).push_back(PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][3] && KaonCosThetaCM <= PART[0][4])
{ MEASGamma[CohEN].at(4).push_back(PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][4] && KaonCosThetaCM <= PART[0][5])
{ MEASGamma[CohEN].at(5).push_back(PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][5] && KaonCosThetaCM <= PART[0][6])
{ MEASGamma[CohEN].at(6).push_back(PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][6] && KaonCosThetaCM <= PART[0][7])
{ MEASGamma[CohEN].at(7).push_back(PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][7] && KaonCosThetaCM <= PART[0][8])
{ MEASGamma[CohEN].at(8).push_back(PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[0][8])
{ MEASGamma[CohEN].at(9).push_back(PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
else if (CohP == 1){
if(KaonCosThetaCM < PART[0][0])
{ MEASGamma[CohEN].at(0).push_back(-PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][0] && KaonCosThetaCM <= PART[0][1])
{ MEASGamma[CohEN].at(1).push_back(-PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][1] && KaonCosThetaCM <= PART[0][2])
{ MEASGamma[CohEN].at(2).push_back(-PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][2] && KaonCosThetaCM <= PART[0][3])
{ MEASGamma[CohEN].at(3).push_back(-PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][3] && KaonCosThetaCM <= PART[0][4])
{ MEASGamma[CohEN].at(4).push_back(-PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][4] && KaonCosThetaCM <= PART[0][5])
{ MEASGamma[CohEN].at(5).push_back(-PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][5] && KaonCosThetaCM <= PART[0][6])
{ MEASGamma[CohEN].at(6).push_back(-PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][6] && KaonCosThetaCM <= PART[0][7])
{ MEASGamma[CohEN].at(7).push_back(-PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[0][7] && KaonCosThetaCM <= PART[0][8])
{ MEASGamma[CohEN].at(8).push_back(-PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[0][8] )
{ MEASGamma[CohEN].at(9).push_back(-PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
}
else if(CohEN == float(1.5)){
if (CohP == 0){
if(KaonCosThetaCM < PART[1][0])
{ MEASGamma[CohEN].at(0).push_back(PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][0] && KaonCosThetaCM <= PART[1][1])
{ MEASGamma[CohEN].at(1).push_back(PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][1] && KaonCosThetaCM <= PART[1][2])
{ MEASGamma[CohEN].at(2).push_back(PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][2] && KaonCosThetaCM <= PART[1][3])
{ MEASGamma[CohEN].at(3).push_back(PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][3] && KaonCosThetaCM <= PART[1][4])
{ MEASGamma[CohEN].at(4).push_back(PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][4] && KaonCosThetaCM <= PART[1][5])
{ MEASGamma[CohEN].at(5).push_back(PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][5] && KaonCosThetaCM <= PART[1][6])
{ MEASGamma[CohEN].at(6).push_back(PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][6] && KaonCosThetaCM <= PART[1][7])
{ MEASGamma[CohEN].at(7).push_back(PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][7] && KaonCosThetaCM <= PART[1][8])
{ MEASGamma[CohEN].at(8).push_back(PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[1][8])
{ MEASGamma[CohEN].at(9).push_back(PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
else if (CohP == 1){
if(KaonCosThetaCM < PART[1][0])
{ MEASGamma[CohEN].at(0).push_back(-PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][0] && KaonCosThetaCM <= PART[1][1])
{ MEASGamma[CohEN].at(1).push_back(-PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][1] && KaonCosThetaCM <= PART[1][2])
{ MEASGamma[CohEN].at(2).push_back(-PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][2] && KaonCosThetaCM <= PART[1][3])
{ MEASGamma[CohEN].at(3).push_back(-PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][3] && KaonCosThetaCM <= PART[1][4])
{ MEASGamma[CohEN].at(4).push_back(-PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][4] && KaonCosThetaCM <= PART[1][5])
{ MEASGamma[CohEN].at(5).push_back(-PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][5] && KaonCosThetaCM <= PART[1][6])
{ MEASGamma[CohEN].at(6).push_back(-PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][6] && KaonCosThetaCM <= PART[1][7])
{ MEASGamma[CohEN].at(7).push_back(-PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[1][7] && KaonCosThetaCM <= PART[1][8])
{ MEASGamma[CohEN].at(8).push_back(-PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[1][8] )
{ MEASGamma[CohEN].at(9).push_back(-PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
}
else if(CohEN == float(1.7)){
if (CohP == 0){
if(KaonCosThetaCM < PART[2][0])
{ MEASGamma[CohEN].at(0).push_back(PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][0] && KaonCosThetaCM <= PART[2][1])
{ MEASGamma[CohEN].at(1).push_back(PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][1] && KaonCosThetaCM <= PART[2][2])
{ MEASGamma[CohEN].at(2).push_back(PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][2] && KaonCosThetaCM <= PART[2][3])
{ MEASGamma[CohEN].at(3).push_back(PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][3] && KaonCosThetaCM <= PART[2][4])
{ MEASGamma[CohEN].at(4).push_back(PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][4] && KaonCosThetaCM <= PART[2][5])
{ MEASGamma[CohEN].at(5).push_back(PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][5] && KaonCosThetaCM <= PART[2][6])
{ MEASGamma[CohEN].at(6).push_back(PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][6] && KaonCosThetaCM <= PART[2][7])
{ MEASGamma[CohEN].at(7).push_back(PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][7] && KaonCosThetaCM <= PART[2][8])
{ MEASGamma[CohEN].at(8).push_back(PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[2][8])
{ MEASGamma[CohEN].at(9).push_back(PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
else if (CohP == 1){
if(KaonCosThetaCM < PART[2][0])
{ MEASGamma[CohEN].at(0).push_back(-PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][0] && KaonCosThetaCM <= PART[2][1])
{ MEASGamma[CohEN].at(1).push_back(-PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][1] && KaonCosThetaCM <= PART[2][2])
{ MEASGamma[CohEN].at(2).push_back(-PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][2] && KaonCosThetaCM <= PART[2][3])
{ MEASGamma[CohEN].at(3).push_back(-PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][3] && KaonCosThetaCM <= PART[2][4])
{ MEASGamma[CohEN].at(4).push_back(-PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][4] && KaonCosThetaCM <= PART[2][5])
{ MEASGamma[CohEN].at(5).push_back(-PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][5] && KaonCosThetaCM <= PART[2][6])
{ MEASGamma[CohEN].at(6).push_back(-PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][6] && KaonCosThetaCM <= PART[2][7])
{ MEASGamma[CohEN].at(7).push_back(-PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[2][7] && KaonCosThetaCM <= PART[2][8])
{ MEASGamma[CohEN].at(8).push_back(-PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[2][8] )
{ MEASGamma[CohEN].at(9).push_back(-PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
}
if(CohEN == float(1.9)){
if (CohP == 0){
if(KaonCosThetaCM < PART[3][0])
{ MEASGamma[CohEN].at(0).push_back(PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][0] && KaonCosThetaCM <= PART[3][1])
{ MEASGamma[CohEN].at(1).push_back(PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][1] && KaonCosThetaCM <= PART[3][2])
{ MEASGamma[CohEN].at(2).push_back(PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][2] && KaonCosThetaCM <= PART[3][3])
{ MEASGamma[CohEN].at(3).push_back(PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][3] && KaonCosThetaCM <= PART[3][4])
{ MEASGamma[CohEN].at(4).push_back(PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][4] && KaonCosThetaCM <= PART[3][5])
{ MEASGamma[CohEN].at(5).push_back(PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][5] && KaonCosThetaCM <= PART[3][6])
{ MEASGamma[CohEN].at(6).push_back(PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][6] && KaonCosThetaCM <= PART[3][7])
{ MEASGamma[CohEN].at(7).push_back(PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][7] && KaonCosThetaCM <= PART[3][8])
{ MEASGamma[CohEN].at(8).push_back(PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[3][8])
{ MEASGamma[CohEN].at(9).push_back(PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
else if (CohP == 1){
if(KaonCosThetaCM < PART[3][0])
{ MEASGamma[CohEN].at(0).push_back(-PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][0] && KaonCosThetaCM <= PART[3][1])
{ MEASGamma[CohEN].at(1).push_back(-PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][1] && KaonCosThetaCM <= PART[3][2])
{ MEASGamma[CohEN].at(2).push_back(-PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][2] && KaonCosThetaCM <= PART[3][3])
{ MEASGamma[CohEN].at(3).push_back(-PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][3] && KaonCosThetaCM <= PART[3][4])
{ MEASGamma[CohEN].at(4).push_back(-PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][4] && KaonCosThetaCM <= PART[3][5])
{ MEASGamma[CohEN].at(5).push_back(-PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][5] && KaonCosThetaCM <= PART[3][6])
{ MEASGamma[CohEN].at(6).push_back(-PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][6] && KaonCosThetaCM <= PART[3][7])
{ MEASGamma[CohEN].at(7).push_back(-PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[3][7] && KaonCosThetaCM <= PART[3][8])
{ MEASGamma[CohEN].at(8).push_back(-PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[3][8] )
{ MEASGamma[CohEN].at(9).push_back(-PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
}
else if(CohEN == float(2.1)){
if (CohP == 0){
if(KaonCosThetaCM < PART[4][0])
{ MEASGamma[CohEN].at(0).push_back(PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][0] && KaonCosThetaCM <= PART[4][1])
{ MEASGamma[CohEN].at(1).push_back(PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][1] && KaonCosThetaCM <= PART[4][2])
{ MEASGamma[CohEN].at(2).push_back(PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][2] && KaonCosThetaCM <= PART[4][3])
{ MEASGamma[CohEN].at(3).push_back(PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][3] && KaonCosThetaCM <= PART[4][4])
{ MEASGamma[CohEN].at(4).push_back(PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][4] && KaonCosThetaCM <= PART[4][5])
{ MEASGamma[CohEN].at(5).push_back(PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][5] && KaonCosThetaCM <= PART[4][6])
{ MEASGamma[CohEN].at(6).push_back(PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][6] && KaonCosThetaCM <= PART[4][7])
{ MEASGamma[CohEN].at(7).push_back(PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][7] && KaonCosThetaCM <= PART[4][8])
{ MEASGamma[CohEN].at(8).push_back(PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[4][8])
{ MEASGamma[CohEN].at(9).push_back(PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
else if (CohP == 1){
if(KaonCosThetaCM < PART[4][0])
{ MEASGamma[CohEN].at(0).push_back(-PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][0] && KaonCosThetaCM <= PART[4][1])
{ MEASGamma[CohEN].at(1).push_back(-PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][1] && KaonCosThetaCM <= PART[4][2])
{ MEASGamma[CohEN].at(2).push_back(-PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][2] && KaonCosThetaCM <= PART[4][3])
{ MEASGamma[CohEN].at(3).push_back(-PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][3] && KaonCosThetaCM <= PART[4][4])
{ MEASGamma[CohEN].at(4).push_back(-PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][4] && KaonCosThetaCM <= PART[4][5])
{ MEASGamma[CohEN].at(5).push_back(-PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][5] && KaonCosThetaCM <= PART[4][6])
{ MEASGamma[CohEN].at(6).push_back(-PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][6] && KaonCosThetaCM <= PART[4][7])
{ MEASGamma[CohEN].at(7).push_back(-PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[4][7] && KaonCosThetaCM <= PART[4][8])
{ MEASGamma[CohEN].at(8).push_back(-PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[4][8] )
{ MEASGamma[CohEN].at(9).push_back(-PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
}
else if(CohEN == float(2.3)){
if (CohP == 0){
if(KaonCosThetaCM < PART[5][0])
{ h_kaonPhiPA1[0]->Fill(PhiCM); h_kaonPhiPA2[0]->Fill(PhiCM); h_kaonPhiPA3[0]->Fill(PhiCM); MEASGamma[CohEN].at(0).push_back(PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][0] && KaonCosThetaCM <= PART[5][1])
{ h_kaonPhiPA1[1]->Fill(PhiCM); h_kaonPhiPA2[1]->Fill(PhiCM); h_kaonPhiPA3[1]->Fill(PhiCM); MEASGamma[CohEN].at(1).push_back(PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][1] && KaonCosThetaCM <= PART[5][2])
{ h_kaonPhiPA1[2]->Fill(PhiCM); h_kaonPhiPA2[2]->Fill(PhiCM); h_kaonPhiPA3[2]->Fill(PhiCM); MEASGamma[CohEN].at(2).push_back(PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][2] && KaonCosThetaCM <= PART[5][3])
{ h_kaonPhiPA1[3]->Fill(PhiCM); h_kaonPhiPA2[3]->Fill(PhiCM); h_kaonPhiPA3[3]->Fill(PhiCM); MEASGamma[CohEN].at(3).push_back(PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][3] && KaonCosThetaCM <= PART[5][4])
{ h_kaonPhiPA1[4]->Fill(PhiCM); h_kaonPhiPA2[4]->Fill(PhiCM); h_kaonPhiPA3[4]->Fill(PhiCM); MEASGamma[CohEN].at(4).push_back(PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][4] && KaonCosThetaCM <= PART[5][5])
{ h_kaonPhiPA1[5]->Fill(PhiCM); h_kaonPhiPA2[5]->Fill(PhiCM); h_kaonPhiPA3[5]->Fill(PhiCM); MEASGamma[CohEN].at(5).push_back(PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][5] && KaonCosThetaCM <= PART[5][6])
{ h_kaonPhiPA1[6]->Fill(PhiCM); h_kaonPhiPA2[6]->Fill(PhiCM); h_kaonPhiPA3[6]->Fill(PhiCM); MEASGamma[CohEN].at(6).push_back(PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][6] && KaonCosThetaCM <= PART[5][7])
{ h_kaonPhiPA1[7]->Fill(PhiCM); h_kaonPhiPA2[7]->Fill(PhiCM); h_kaonPhiPA3[7]->Fill(PhiCM); MEASGamma[CohEN].at(7).push_back(PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][7] && KaonCosThetaCM <= PART[5][8])
{ h_kaonPhiPA1[8]->Fill(PhiCM); h_kaonPhiPA2[8]->Fill(PhiCM); h_kaonPhiPA3[8]->Fill(PhiCM); MEASGamma[CohEN].at(8).push_back(PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[5][8])
{ h_kaonPhiPA1[9]->Fill(PhiCM); h_kaonPhiPA2[9]->Fill(PhiCM); h_kaonPhiPA3[9]->Fill(PhiCM); MEASGamma[CohEN].at(9).push_back(PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
else if (CohP == 1){
if(KaonCosThetaCM < PART[5][0])
{ h_kaonPhiPE1[0]->Fill(PhiCM); h_kaonPhiPE2[0]->Fill(PhiCM); h_kaonPhiPE3[0]->Fill(PhiCM); MEASGamma[CohEN].at(0).push_back(-PhotoPol); MEASPhip[CohEN].at(0).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][0] && KaonCosThetaCM <= PART[5][1])
{ h_kaonPhiPE1[1]->Fill(PhiCM); h_kaonPhiPE2[1]->Fill(PhiCM); h_kaonPhiPE3[1]->Fill(PhiCM); MEASGamma[CohEN].at(1).push_back(-PhotoPol); MEASPhip[CohEN].at(1).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][1] && KaonCosThetaCM <= PART[5][2])
{ h_kaonPhiPE1[2]->Fill(PhiCM); h_kaonPhiPE2[2]->Fill(PhiCM); h_kaonPhiPE3[2]->Fill(PhiCM); MEASGamma[CohEN].at(2).push_back(-PhotoPol); MEASPhip[CohEN].at(2).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][2] && KaonCosThetaCM <= PART[5][3])
{ h_kaonPhiPE1[3]->Fill(PhiCM); h_kaonPhiPE2[3]->Fill(PhiCM); h_kaonPhiPE3[3]->Fill(PhiCM); MEASGamma[CohEN].at(3).push_back(-PhotoPol); MEASPhip[CohEN].at(3).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][3] && KaonCosThetaCM <= PART[5][4])
{ h_kaonPhiPE1[4]->Fill(PhiCM); h_kaonPhiPE2[4]->Fill(PhiCM); h_kaonPhiPE3[4]->Fill(PhiCM); MEASGamma[CohEN].at(4).push_back(-PhotoPol); MEASPhip[CohEN].at(4).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][4] && KaonCosThetaCM <= PART[5][5])
{ h_kaonPhiPE1[5]->Fill(PhiCM); h_kaonPhiPE2[5]->Fill(PhiCM); h_kaonPhiPE3[5]->Fill(PhiCM); MEASGamma[CohEN].at(5).push_back(-PhotoPol); MEASPhip[CohEN].at(5).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][5] && KaonCosThetaCM <= PART[5][6])
{ h_kaonPhiPE1[6]->Fill(PhiCM); h_kaonPhiPE2[6]->Fill(PhiCM); h_kaonPhiPE3[6]->Fill(PhiCM); MEASGamma[CohEN].at(6).push_back(-PhotoPol); MEASPhip[CohEN].at(6).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][6] && KaonCosThetaCM <= PART[5][7])
{ h_kaonPhiPE1[7]->Fill(PhiCM); h_kaonPhiPE2[7]->Fill(PhiCM); h_kaonPhiPE3[7]->Fill(PhiCM); MEASGamma[CohEN].at(7).push_back(-PhotoPol); MEASPhip[CohEN].at(7).push_back(PhiCM); }
else if (KaonCosThetaCM >= PART[5][7] && KaonCosThetaCM <= PART[5][8])
{ h_kaonPhiPE1[8]->Fill(PhiCM); h_kaonPhiPE2[8]->Fill(PhiCM); h_kaonPhiPE3[8]->Fill(PhiCM); MEASGamma[CohEN].at(8).push_back(-PhotoPol); MEASPhip[CohEN].at(8).push_back(PhiCM); }
else if (KaonCosThetaCM > PART[5][8] )
{ h_kaonPhiPE1[9]->Fill(PhiCM); h_kaonPhiPE2[9]->Fill(PhiCM); h_kaonPhiPE3[9]->Fill(PhiCM); MEASGamma[CohEN].at(9).push_back(-PhotoPol); MEASPhip[CohEN].at(9).push_back(PhiCM); }
}
}
h_CosThetaCM[0]->Fill(ProtonCosThetaCM);
h_CosThetaCM[1]->Fill(KaonCosThetaCM);
h_CosThetaCM[2]->Fill(SigmaCosThetaCM);
h_Theta[0]->Fill(Proton->Theta());
h_Theta[1]->Fill(Kaon->Theta());
h_Theta[2]->Fill(Sigma->Theta());
h_CosThetaCorr[0]->Fill(ProtonCosThetaCM,KaonCosThetaCM);
h_CosThetaCorr[1]->Fill(ProtonCosThetaCM,SigmaCosThetaCM);
h_CosThetaCorr[2]->Fill(SigmaCosThetaCM,KaonCosThetaCM);
//--------------- Bins Cos Theta Kaon----------------//
}
h_Asym1[0]=(TH1F*)h_kaonPhiPA1[0]->GetAsymmetry(h_kaonPhiPE1[0]);
h_Asym1[1]=(TH1F*)h_kaonPhiPA1[1]->GetAsymmetry(h_kaonPhiPE1[1]);
h_Asym1[2]=(TH1F*)h_kaonPhiPA1[2]->GetAsymmetry(h_kaonPhiPE1[2]);
h_Asym1[3]=(TH1F*)h_kaonPhiPA1[3]->GetAsymmetry(h_kaonPhiPE1[3]);
h_Asym1[4]=(TH1F*)h_kaonPhiPA1[4]->GetAsymmetry(h_kaonPhiPE1[4]);
h_Asym1[5]=(TH1F*)h_kaonPhiPA1[5]->GetAsymmetry(h_kaonPhiPE1[5]);
h_Asym1[6]=(TH1F*)h_kaonPhiPA1[6]->GetAsymmetry(h_kaonPhiPE1[6]);
h_Asym1[7]=(TH1F*)h_kaonPhiPA1[7]->GetAsymmetry(h_kaonPhiPE1[7]);
h_Asym1[8]=(TH1F*)h_kaonPhiPA1[8]->GetAsymmetry(h_kaonPhiPE1[8]);
h_Asym1[9]=(TH1F*)h_kaonPhiPA1[9]->GetAsymmetry(h_kaonPhiPE1[9]);
h_Asym2[0]=(TH1F*)h_kaonPhiPA2[0]->GetAsymmetry(h_kaonPhiPE2[0]);
h_Asym2[1]=(TH1F*)h_kaonPhiPA2[1]->GetAsymmetry(h_kaonPhiPE2[1]);
h_Asym2[2]=(TH1F*)h_kaonPhiPA2[2]->GetAsymmetry(h_kaonPhiPE2[2]);
h_Asym2[3]=(TH1F*)h_kaonPhiPA2[3]->GetAsymmetry(h_kaonPhiPE2[3]);
h_Asym2[4]=(TH1F*)h_kaonPhiPA2[4]->GetAsymmetry(h_kaonPhiPE2[4]);
h_Asym2[5]=(TH1F*)h_kaonPhiPA2[5]->GetAsymmetry(h_kaonPhiPE2[5]);
h_Asym2[6]=(TH1F*)h_kaonPhiPA2[6]->GetAsymmetry(h_kaonPhiPE2[6]);
h_Asym2[7]=(TH1F*)h_kaonPhiPA2[7]->GetAsymmetry(h_kaonPhiPE2[7]);
h_Asym2[8]=(TH1F*)h_kaonPhiPA2[8]->GetAsymmetry(h_kaonPhiPE2[8]);
h_Asym2[9]=(TH1F*)h_kaonPhiPA2[9]->GetAsymmetry(h_kaonPhiPE2[9]);
h_Asym3[0]=(TH1F*)h_kaonPhiPA3[0]->GetAsymmetry(h_kaonPhiPE3[0]);
h_Asym3[1]=(TH1F*)h_kaonPhiPA3[1]->GetAsymmetry(h_kaonPhiPE3[1]);
h_Asym3[2]=(TH1F*)h_kaonPhiPA3[2]->GetAsymmetry(h_kaonPhiPE3[2]);
h_Asym3[3]=(TH1F*)h_kaonPhiPA3[3]->GetAsymmetry(h_kaonPhiPE3[3]);
h_Asym3[4]=(TH1F*)h_kaonPhiPA3[4]->GetAsymmetry(h_kaonPhiPE3[4]);
h_Asym3[5]=(TH1F*)h_kaonPhiPA3[5]->GetAsymmetry(h_kaonPhiPE3[5]);
h_Asym3[6]=(TH1F*)h_kaonPhiPA3[6]->GetAsymmetry(h_kaonPhiPE3[6]);
h_Asym3[7]=(TH1F*)h_kaonPhiPA3[7]->GetAsymmetry(h_kaonPhiPE3[7]);
h_Asym3[8]=(TH1F*)h_kaonPhiPA3[8]->GetAsymmetry(h_kaonPhiPE3[8]);
h_Asym3[9]=(TH1F*)h_kaonPhiPA3[9]->GetAsymmetry(h_kaonPhiPE3[9]);
DoCanvasAsym();
}
#endif