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FunWithCeca.cpp
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FunWithCeca.cpp
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#include "FunWithCeca.h"
#include "CommonAnaFunctions.h"
#include "EnvVars.h"
#include "DLM_CppTools.h"
#include "DLM_OmpTools.h"
#include "DLM_Random.h"
#include "DLM_RootWrapper.h"
#include "DLM_HistoAnalysis.h"
#include "DLM_Source.h"
#include "DLM_Potentials.h"
#include "DLM_Histo.h"
#include "DLM_MathFunctions.h"
#include "CECA_Paper.h"
#include <iostream>
#include <unistd.h>
#include <omp.h>
#include <fstream>
#include <sstream>
#include <string>
#include "TREPNI.h"
#include "CATS.h"
#include "CATSconstants.h"
#include "CATStools.h"
#include "CECA.h"
#include "TCanvas.h"
#include "TH1F.h"
#include "TH2F.h"
#include "TFile.h"
#include "TF1.h"
#include "TGenPhaseSpace.h"
#include "TRandom3.h"
#include "TGraphErrors.h"
#include "TGraph.h"
#include "TNtuple.h"
#include "TSystem.h"
#include "TROOT.h"
#include <boost/algorithm/string.hpp>
void ceca_test(){
const double Sigma = 0.6;
const double LambdaFraction = 0.6;
//you may put to zero for now
const double HadronSize = 0.75;
const double HadronSlope = 0.2;
//const double HadronSize = 0;
//const double HadronSlope = 0;
TREPNI Database(0);
Database.SetSeed(11);
std::vector<TreParticle*> ParticleList;
ParticleList.push_back(Database.NewParticle("Proton"));
ParticleList.push_back(Database.NewParticle("Lambda"));
ParticleList.push_back(Database.NewParticle("Pion"));
ParticleList.push_back(Database.NewParticle("ProtonReso"));
ParticleList.push_back(Database.NewParticle("LambdaReso"));
double ExpPP,ExpPR,ExpRP,ExpRR;
ExpPP = 0.3578*0.3562;
ExpPR = 0.3578*0.6438;
ExpRP = 0.6422*0.3562;
ExpRR = 0.6422*0.6438;
/* Particle List */
for(TreParticle* prt : ParticleList){
if(prt->GetName()=="Proton"){
prt->SetMass(Mass_p);
prt->SetAbundance(35.78);
prt->SetRadius(HadronSize);
prt->SetRadiusSlope(HadronSlope);
}
else if(prt->GetName()=="Lambda"){
prt->SetMass(Mass_L);
prt->SetAbundance(35.62*LambdaFraction);
prt->SetRadius(HadronSize);
prt->SetRadiusSlope(HadronSlope);
}
else if(prt->GetName()=="Pion"){
prt->SetMass(Mass_pic);
prt->SetAbundance(0);
prt->SetRadius(HadronSize);
prt->SetRadiusSlope(HadronSlope);
}
else if(prt->GetName()=="ProtonReso"){
prt->SetMass(1362);
prt->SetAbundance(64.22*1);
prt->SetWidth(hbarc/1.65);
prt->SetRadius(HadronSize);
prt->SetRadiusSlope(HadronSlope);
prt->NewDecay();
prt->GetDecay(0)->AddDaughter(*Database.GetParticle("Proton"));
prt->GetDecay(0)->AddDaughter(*Database.GetParticle("Pion"));
prt->GetDecay(0)->SetBranching(100);
}
else if(prt->GetName()=="LambdaReso"){
prt->SetMass(1463);
prt->SetAbundance(64.38*1);
prt->SetWidth(hbarc/4.69);
prt->SetRadius(HadronSize);
prt->SetRadiusSlope(HadronSlope);
prt->NewDecay();
prt->GetDecay(0)->AddDaughter(*Database.GetParticle("Lambda"));
prt->GetDecay(0)->AddDaughter(*Database.GetParticle("Pion"));
prt->GetDecay(0)->SetBranching(100);
}
//prt->SetMomPDF(Sigma*prt->GetMass());
}
printf("1\n");
std::vector<std::string> ListOfParticles;
ListOfParticles.push_back("Proton");
//ListOfParticles.push_back("Proton");
ListOfParticles.push_back("Lambda");
CECA Ivana(Database,ListOfParticles);
Ivana.SetDisplacement(0.0);
Ivana.SetHadronization(1.0);
Ivana.SetTau(0.0);
Ivana.SetThermalKick(98);
Ivana.SetTargetStatistics(10);
Ivana.SetEventMult(2);
Ivana.SetSourceDim(2);
Ivana.SetDebugMode(true);
Ivana.SetThreadTimeout(30);
Ivana.GHETTO_EVENT = true;
printf("2\n");
Ivana.GoBabyGo(1);
printf("3\n");
double TotPairs = Ivana.GhettoPrimReso[0]+Ivana.GhettoPrimReso[1]+Ivana.GhettoPrimReso[2]+Ivana.GhettoPrimReso[3];
double TotPP = double(Ivana.GhettoPrimReso[0])/TotPairs;
double TotPR = double(Ivana.GhettoPrimReso[1])/TotPairs;
double TotRP = double(Ivana.GhettoPrimReso[2])/TotPairs;
double TotRR = double(Ivana.GhettoPrimReso[3])/TotPairs;
double FemtoPairs = Ivana.GhettoFemtoPrimReso[0]+Ivana.GhettoFemtoPrimReso[1]+Ivana.GhettoFemtoPrimReso[2]+Ivana.GhettoFemtoPrimReso[3];
double FemtoPP = double(Ivana.GhettoFemtoPrimReso[0])/FemtoPairs;
double FemtoPR = double(Ivana.GhettoFemtoPrimReso[1])/FemtoPairs;
double FemtoRP = double(Ivana.GhettoFemtoPrimReso[2])/FemtoPairs;
double FemtoRR = double(Ivana.GhettoFemtoPrimReso[3])/FemtoPairs;
printf(" Expected Total Femto\n");
printf("PP %6.2f%% %6.2f%% %6.2f\n",ExpPP*100.,TotPP*100.,FemtoPP*100.);
printf("PR %6.2f%% %6.2f%% %6.2f\n",ExpPR*100.,TotPR*100.,FemtoPR*100.);
printf("RP %6.2f%% %6.2f%% %6.2f\n",ExpRP*100.,TotRP*100.,FemtoRP*100.);
printf("RR %6.2f%% %6.2f%% %6.2f\n",ExpRR*100.,TotRR*100.,FemtoRR*100.);
/* Histograms */
TH1F* h_Ghetto_rstar = Convert_DlmHisto_TH1F(Ivana.Ghetto_rstar,"Ghetto_rstar");
TH1F* h_Ghetto_kstar = Convert_DlmHisto_TH1F(Ivana.Ghetto_kstar,"Ghetto_kstar");
TH2F* h_Ghetto_kstar_rstar = Convert_DlmHisto_TH2F(Ivana.Ghetto_kstar_rstar,"Ghetto_kstar_rstar");
TH2F* h_Ghetto_mT_rstar = Convert_DlmHisto_TH2F(Ivana.Ghetto_mT_rstar,"Ghetto_mT_rstar");
TH2F* h_GhettoFemto_mT_rstar = Convert_DlmHisto_TH2F(Ivana.GhettoFemto_mT_rstar,"GhettoFemto_mT_rstar");
TH2F* h_GhettoFemto_mT_kstar = Convert_DlmHisto_TH2F(Ivana.GhettoFemto_mT_kstar,"GhettoFemto_mT_kstar");
TH2F* h_Ghetto_mT_costh = Convert_DlmHisto_TH2F(Ivana.Ghetto_mT_costh,"Ghetto_mT_costh");
TH2F* h_GhettoSP_pT_th = Convert_DlmHisto_TH2F(Ivana.GhettoSP_pT_th,"GhettoSP_pT_th");
Ivana.GhettoFemto_rstar->ComputeError();
TH1F* h_GhettoFemto_rstar = Convert_DlmHisto_TH1F(Ivana.GhettoFemto_rstar,"GhettoFemto_rstar");
TH1F* h_Ghetto_RP_AngleRcP1 = Convert_DlmHisto_TH1F(Ivana.Ghetto_RP_AngleRcP1,"Ghetto_RP_AngleRcP1");
TH1F* h_Ghetto_PR_AngleRcP2 = Convert_DlmHisto_TH1F(Ivana.Ghetto_PR_AngleRcP2,"Ghetto_PR_AngleRcP2");
TH1F* h_Ghetto_RR_AngleRcP1 = Convert_DlmHisto_TH1F(Ivana.Ghetto_RR_AngleRcP1,"Ghetto_RR_AngleRcP1");
TH1F* h_Ghetto_RR_AngleRcP2 = Convert_DlmHisto_TH1F(Ivana.Ghetto_RR_AngleRcP2,"Ghetto_RR_AngleRcP2");
TH1F* h_Ghetto_RR_AngleP1P2 = Convert_DlmHisto_TH1F(Ivana.Ghetto_RR_AngleP1P2,"Ghetto_RR_AngleP1P2");
TGraphErrors g_GhettoFemto_mT_rstar;
g_GhettoFemto_mT_rstar.SetName("g_GhettoFemto_mT_rstar");
g_GhettoFemto_mT_rstar.SetMarkerStyle(20);
g_GhettoFemto_mT_rstar.SetMarkerSize(1);
g_GhettoFemto_mT_rstar.SetLineWidth(3);
unsigned uPoint = 0;
for(unsigned uBin=0; uBin<h_GhettoFemto_mT_rstar->GetXaxis()->GetNbins(); uBin++){
TH1D* hProj = h_GhettoFemto_mT_rstar->ProjectionY(TString::Format("hProj"),uBin+1,uBin+1);
double Mean = hProj->GetMean();
double Err = hProj->GetStdDev();
double mT = h_GhettoFemto_mT_rstar->GetXaxis()->GetBinCenter(uBin+1);
if(Mean&&Err){
g_GhettoFemto_mT_rstar.SetPoint(uPoint,mT,Mean);
g_GhettoFemto_mT_rstar.SetPointError(uPoint,0,Err);
uPoint++;
}
}
const double MeanToGauss = 1./2.3;
double mT_first = g_GhettoFemto_mT_rstar.GetPointY(0);
printf("r(%.2f GeV) = %.2f\n",g_GhettoFemto_mT_rstar.GetPointX(0)*0.001,mT_first*MeanToGauss);
double mT_2GeV = g_GhettoFemto_mT_rstar.Eval(2000);
printf("r(%.2f GeV) = %.2f\n",2.,mT_2GeV*MeanToGauss);
h_GhettoFemto_rstar->Scale(1./h_GhettoFemto_rstar->Integral(),"width");
TF1* fSource = new TF1("fSource",GaussSourceTF1,0,5,1);
fSource->SetParameter(0,1.2);
fSource->SetParLimits(0,0.4,2.0);
h_GhettoFemto_rstar->Fit(fSource,"Q, S, N, R, M");
printf("The effective Gaussian size is %.3f +/- %.3f fm\n",fSource->GetParameter(0),fSource->GetParError(0));
TFile fOutput("ceca_test.root", "recreate");
h_Ghetto_rstar->Write();
h_GhettoFemto_rstar->Write();
fSource->Write();
h_Ghetto_kstar->Write();
h_Ghetto_kstar_rstar->Write();
h_Ghetto_mT_rstar->Write();
h_GhettoFemto_mT_rstar->Write();
g_GhettoFemto_mT_rstar.Write();
h_GhettoFemto_mT_kstar->Write();
h_Ghetto_mT_costh->Write();
h_GhettoSP_pT_th->Write();
h_Ghetto_RP_AngleRcP1->Write();
h_Ghetto_PR_AngleRcP2->Write();
h_Ghetto_RR_AngleRcP1->Write();
h_Ghetto_RR_AngleRcP2->Write();
h_Ghetto_RR_AngleP1P2->Write();
}
void Test1(){
unsigned char ch_1 = 255;
std::cout << unsigned(ch_1) << std::endl;
std::cout << (ch_1==255) << std::endl;
std::cout << (ch_1==-1) << std::endl;
/*
TREPNI Trepni(0);
//Trepni.SetPrintLevel(2,false);
std::string str ;
//str = Trepni.GetParticleName(0);
//str = Trepni.GetParticleName(1);
Trepni.SetParticle("Test", 100, 100, 300, 300);
Trepni.GetParticleName(0);
str = Trepni.GetParticleName(0);
str = Trepni.GetParticleName(0);
str = Trepni.GetParticleName(1);
printf("PN1 = %s\n",str.c_str());
str = Trepni.GetParticleName(-1);
printf("PNm1 = %s\n",str.c_str());
printf("ID of Test: %i\n",Trepni.GetParticleId("Test"));
printf("ID of anti_Test: %i\n",Trepni.GetParticleId("anti_Test"));
printf("ID of John: %i\n",Trepni.GetParticleId("John"));
Trepni.SetParticle("anti_Silly", 200, 200, 320, 320);
Trepni.SetParticle("", 200, 200, 320, 320);
Trepni.SetParticle("Silly", 200, 200, 320, 320);
Trepni.SetParticle("SillyNess_-", 200, 200, 320, 320);
Trepni.SetParticle("test1", -200, 200, 320, 320);
Trepni.SetParticle("test1", 200, 200, 350, 320);
*/
}
void Test2(){
const double Lambda_width = (0.0789)*pow(10,-15)*FmToNu;
TREPNI Database(0);
TreParticle* p_pim = Database.NewParticle("pi-");
TreParticle* p_pi0 = Database.NewParticle();
TreParticle* p_proton = Database.NewParticle();
TreParticle* p_neutron = Database.NewParticle();
TreParticle* p_Lambda = Database.NewParticle();
//TreParticle p_pim(Database);
//TreParticle p_pi0(Database);
//TreParticle p_proton(Database);
//TreParticle p_neutron(Database);
//TreParticle p_Lambda(Database);
//p_pim->SetName("pi-");
Database.GetParticle("pi-")->SetMass(1.*Mass_pic);
p_pim->SetMassLimit(1.*Mass_pic,1.*Mass_pic);
p_pim->SetWidth(0);
p_pim->SetWidthLimit(0,0);
p_pim->SetAbundance(0);
p_pim->SetAbundanceLimit(0,0);
p_pi0->SetName("pi0");
p_pi0->SetMass(1.*Mass_pi0);
p_pi0->SetMassLimit(1.*Mass_pi0,1.*Mass_pi0);
p_pi0->SetWidth(0);
p_pi0->SetWidthLimit(0,0);
p_pi0->SetAbundance(0);
p_pi0->SetAbundanceLimit(0,0);
p_proton->SetName("proton");
p_proton->SetMass(Mass_p);
p_proton->SetMassLimit(Mass_p,Mass_p);
p_proton->SetWidth(0);
p_proton->SetWidthLimit(0,0);
p_proton->SetAbundance(0);
p_proton->SetAbundanceLimit(0,0);
p_neutron->SetName("neutron");
p_neutron->SetMass(Mass_n);
p_neutron->SetMassLimit(Mass_n,Mass_n);
p_neutron->SetWidth(0);
p_neutron->SetWidthLimit(0,0);
p_neutron->SetAbundance(0);
p_neutron->SetAbundanceLimit(0,0);
p_Lambda->SetName("Lambda");
p_Lambda->SetMass(Mass_L);
p_Lambda->SetMassLimit(Mass_L,Mass_L);
p_Lambda->SetWidth(Lambda_width);
p_Lambda->SetWidthLimit(Lambda_width,Lambda_width);
p_Lambda->SetAbundance(100);
p_Lambda->SetAbundanceLimit(50,150);
p_Lambda->NewDecay();
p_Lambda->GetDecay(0)->AddDaughter(*p_pim);
p_Lambda->GetDecay(0)->AddDaughter(*p_proton);
p_Lambda->GetDecay(0)->SetBranching(67);
//p_Lambda->GetDecay(0)->SetBranchingLimit(1, 1);
p_Lambda->NewDecay();
p_Lambda->GetDecay(1)->AddDaughter(*p_pi0);
p_Lambda->GetDecay(1)->AddDaughter(*p_neutron);
p_Lambda->GetDecay(1)->SetBranching(33);
p_Lambda->GetDecay(1)->SetBranchingLimit(33, 33);
//
p_pim->Print();
p_proton->Print();
p_Lambda->Print();
Database.SetTotalYield(100);
bool database_qa = Database.QA();
printf("Database QA: %i\n",database_qa);
}
//test: we assume we have
void TestingFractions(){
const int NumEvents = 1000000;
const int EventMult = 3;
std::vector<float> ResoFrac;
ResoFrac.push_back(0.24);//0 decay to A
ResoFrac.push_back(0.12);//1 decay to B
ResoFrac.push_back(0.11);//2 decay to C
ResoFrac.push_back(0.1);//3 decay to AB
ResoFrac.push_back(0.14);//4 decay to AC
ResoFrac.push_back(0.2);//5 decay to BC
ResoFrac.push_back(0.05);//6 decay to ABC
ResoFrac.push_back(0.04);//7 decay into CC
std::vector<float> ResoFracCum;
for(unsigned uR=0; uR<ResoFrac.size(); uR++){
if(uR) ResoFracCum.push_back(ResoFracCum.at(uR-1)+ResoFrac.at(uR));
else ResoFracCum.push_back(ResoFrac.at(uR));
}
TRandom3 RanGen(11);
TH1F* hFracReso = new TH1F("hFracReso","hFracReso",ResoFrac.size(),-0.5,-0.5+ResoFrac.size());
TH1F* hFracPart = new TH1F("hFracPart","hFracPart",EventMult,-0.5,-0.5+EventMult);
TH1F* hTrueMult = new TH1F("hTrueMult","hTrueMult",11,-0.5,10.5);
TH1F* hFracPart3 = new TH1F("hFracPart3","hFracPart3",EventMult,-0.5,-0.5+EventMult);
TH1F* hFracReso3 = new TH1F("hFracReso3","hFracReso3",ResoFrac.size(),-0.5,-0.5+ResoFrac.size());
TH1F* hFracPart3f = new TH1F("hFracPart3f","hFracPart3f",EventMult,-0.5,-0.5+EventMult);
TH1F* hFracReso3f = new TH1F("hFracReso3f","hFracReso3f",ResoFrac.size(),-0.5,-0.5+ResoFrac.size());
TH1F** hFracResoT_P = new TH1F* [3];
TH1F** hFracReso_P = new TH1F* [3];
TH1F** hFracReso3_P = new TH1F* [3];
TH1F** hFracReso3f_P = new TH1F* [3];
for(unsigned uP=0; uP<3; uP++){
hFracReso_P[uP] = new TH1F(TString::Format("hFracReso_P%u",uP),TString::Format("hFracReso_P%u",uP)
,ResoFrac.size(),-0.5,-0.5+ResoFrac.size());
hFracReso3_P[uP] = new TH1F(TString::Format("hFracReso3_P%u",uP),TString::Format("hFracReso3_P%u",uP)
,ResoFrac.size(),-0.5,-0.5+ResoFrac.size());
hFracReso3f_P[uP] = new TH1F(TString::Format("hFracReso3f_P%u",uP),TString::Format("hFracReso3f_P%u",uP)
,ResoFrac.size(),-0.5,-0.5+ResoFrac.size());
hFracResoT_P[uP] = new TH1F(TString::Format("hFracResoT_P%u",uP),TString::Format("hFracResoT_P%u",uP)
,ResoFrac.size(),-0.5,-0.5+ResoFrac.size());
}
//expected fractions of resonances feeding into particular species (0,1,2)
double** TheoMammaFrac = new double* [3];
double* TheoMammaNorm = new double [3];
for(unsigned uP=0; uP<3; uP++){
TheoMammaNorm[uP] = 0;
TheoMammaFrac[uP] = new double [ResoFrac.size()];
for(unsigned uR=0; uR<ResoFrac.size(); uR++) TheoMammaFrac[uP][uR]=0;
if(uP==0){
TheoMammaFrac[uP][0] = ResoFrac.at(0)*1.;
TheoMammaFrac[uP][3] = ResoFrac.at(3)*1.;
TheoMammaFrac[uP][4] = ResoFrac.at(4)*1.;
TheoMammaFrac[uP][6] = ResoFrac.at(6)*1.;
}
if(uP==1){
TheoMammaFrac[uP][1] = ResoFrac.at(1)*1.;
TheoMammaFrac[uP][3] = ResoFrac.at(3)*1.;
TheoMammaFrac[uP][5] = ResoFrac.at(5)*1.;
TheoMammaFrac[uP][6] = ResoFrac.at(6)*1.;
}
if(uP==2){
TheoMammaFrac[uP][2] = ResoFrac.at(2)*1.;
TheoMammaFrac[uP][4] = ResoFrac.at(4)*1.;
TheoMammaFrac[uP][5] = ResoFrac.at(5)*1.;
TheoMammaFrac[uP][6] = ResoFrac.at(6)*1.;
TheoMammaFrac[uP][7] = ResoFrac.at(7)*2.;
}
for(unsigned uR=0; uR<ResoFrac.size(); uR++)
TheoMammaNorm[uP] += TheoMammaFrac[uP][uR];
for(unsigned uR=0; uR<ResoFrac.size(); uR++)
TheoMammaFrac[uP][uR] /= TheoMammaNorm[uP];
}
for(unsigned uP=0; uP<3; uP++){
for(unsigned uR=0; uR<ResoFrac.size(); uR++){
hFracResoT_P[uP]->SetBinContent(uR+1,TheoMammaFrac[uP][uR]);
hFracResoT_P[uP]->SetBinError(uR+1,0);
}
hFracResoT_P[uP]->SetMarkerStyle(1);
hFracResoT_P[uP]->SetMarkerSize(1.5);
}
for(unsigned uP=0; uP<3; uP++) delete [] TheoMammaFrac[uP];
delete [] TheoMammaFrac;
delete [] TheoMammaNorm;
for(unsigned uEvent=0; uEvent<NumEvents; uEvent++){
std::vector<int> ResonanceID;
std::vector<int> ParticleID;
std::vector<int> MotherID;
for(unsigned uMult=0; uMult<EventMult; uMult++){
double sample = RanGen.Uniform();
unsigned WhichReso = ResoFrac.size()-1;
for(unsigned uR=0; uR<ResoFrac.size()-1; uR++){
if(sample<ResoFracCum.at(uR)){
WhichReso = uR;
break;
}
}
//the decays can be into particles 0 1 2, and the decay is
//either into 1,2 or all 3 of the studied species
ResonanceID.push_back(WhichReso);
switch (WhichReso) {
case 0: ParticleID.push_back(0);
MotherID.push_back(0);
break;
case 1: ParticleID.push_back(1);
MotherID.push_back(1);
break;
case 2: ParticleID.push_back(2);
MotherID.push_back(2);
break;
case 3: ParticleID.push_back(0);
ParticleID.push_back(1);
MotherID.push_back(3);
MotherID.push_back(3);
break;
case 4: ParticleID.push_back(0);
ParticleID.push_back(2);
MotherID.push_back(4);
MotherID.push_back(4);
break;
case 5: ParticleID.push_back(1);
ParticleID.push_back(2);
MotherID.push_back(5);
MotherID.push_back(5);
break;
case 6: ParticleID.push_back(0);
ParticleID.push_back(1);
ParticleID.push_back(2);
MotherID.push_back(6);
MotherID.push_back(6);
MotherID.push_back(6);
break;
case 7: ParticleID.push_back(2);
ParticleID.push_back(2);
MotherID.push_back(7);
MotherID.push_back(7);
break;
default : printf("!error!\n"); break;
}
hFracReso->Fill(WhichReso);
}//uMult
hTrueMult->Fill(ParticleID.size());
for(unsigned uPart=0; uPart<ParticleID.size(); uPart++){
hFracPart->Fill(ParticleID.at(uPart));
for(unsigned uP=0; uP<3; uP++)
if(ParticleID.at(uPart)==uP) hFracReso_P[uP]->Fill(MotherID.at(uPart));
}
for(unsigned uP0=0; uP0<ParticleID.size(); uP0++){
for(unsigned uP1=uP0; uP1<ParticleID.size(); uP1++){
for(unsigned uP2=uP1; uP2<ParticleID.size(); uP2++){
bool P0 = (ParticleID.at(uP0)==0||ParticleID.at(uP1)==0||ParticleID.at(uP2)==0);
bool P1 = (ParticleID.at(uP0)==1||ParticleID.at(uP1)==1||ParticleID.at(uP2)==1);
bool P2 = (ParticleID.at(uP0)==2||ParticleID.at(uP1)==2||ParticleID.at(uP2)==2);
//all species of interest
bool GoodTriplet = (P0&&P1&&P2);
//all specieas of interest + their mothers are different
//the latter is probably somewhat true for low k* / Q3 pairs (is it true for Q3 ??)
bool FemtoTriplet = GoodTriplet;
FemtoTriplet *= (MotherID.at(uP0)!=MotherID.at(uP1));
FemtoTriplet *= (MotherID.at(uP0)!=MotherID.at(uP2));
FemtoTriplet *= (MotherID.at(uP1)!=MotherID.at(uP2));
if(GoodTriplet){
hFracPart3->Fill(ParticleID.at(uP0));
hFracPart3->Fill(ParticleID.at(uP1));
hFracPart3->Fill(ParticleID.at(uP2));
hFracReso3->Fill(MotherID.at(uP0));
hFracReso3->Fill(MotherID.at(uP1));
hFracReso3->Fill(MotherID.at(uP2));
for(unsigned uP=0; uP<3; uP++){
if(ParticleID.at(uP)==0) hFracReso3_P[0]->Fill(MotherID.at(uP));
if(ParticleID.at(uP)==1) hFracReso3_P[1]->Fill(MotherID.at(uP));
if(ParticleID.at(uP)==2) hFracReso3_P[2]->Fill(MotherID.at(uP));
}
}
if(FemtoTriplet){
hFracPart3f->Fill(ParticleID.at(uP0));
hFracPart3f->Fill(ParticleID.at(uP1));
hFracPart3f->Fill(ParticleID.at(uP2));
hFracReso3f->Fill(MotherID.at(uP0));
hFracReso3f->Fill(MotherID.at(uP1));
hFracReso3f->Fill(MotherID.at(uP2));
for(unsigned uP=0; uP<3; uP++){
if(ParticleID.at(uP)==0) hFracReso3f_P[0]->Fill(MotherID.at(uP));
if(ParticleID.at(uP)==1) hFracReso3f_P[1]->Fill(MotherID.at(uP));
if(ParticleID.at(uP)==2) hFracReso3f_P[2]->Fill(MotherID.at(uP));
}
}
}
}
}
}//uEvent
hFracReso->Scale(1./hFracReso->Integral(),"width");
hFracPart->Scale(1./hFracPart->Integral(),"width");
hTrueMult->Scale(1./hTrueMult->Integral(),"width");
hFracPart3->Scale(1./hFracPart3->Integral(),"width");
hFracReso3->Scale(1./hFracReso3->Integral(),"width");
hFracPart3f->Scale(1./hFracPart3f->Integral(),"width");
hFracReso3f->Scale(1./hFracReso3f->Integral(),"width");
for(unsigned uP=0; uP<3; uP++){
hFracResoT_P[uP]->Scale(1./hFracResoT_P[uP]->Integral(),"width");
hFracReso_P[uP]->Scale(1./hFracReso_P[uP]->Integral(),"width");
hFracReso3_P[uP]->Scale(1./hFracReso3_P[uP]->Integral(),"width");
hFracReso3f_P[uP]->Scale(1./hFracReso3f_P[uP]->Integral(),"width");
}
TFile fOutput(TString::Format("%s/FunWithCeca/TestingFractions.root",GetFemtoOutputFolder()),"recreate");
for(unsigned uP=0; uP<3; uP++) hFracResoT_P[uP]->Write();
for(unsigned uP=0; uP<3; uP++) hFracReso_P[uP]->Write();
hFracReso->Write();
for(unsigned uP=0; uP<3; uP++) hFracReso3_P[uP]->Write();
hFracReso3->Write();
for(unsigned uP=0; uP<3; uP++) hFracReso3f_P[uP]->Write();
hFracReso3f->Write();
hFracPart->Write();
hFracPart3->Write();
hFracPart3f->Write();
hTrueMult->Write();
delete hFracReso;
delete hFracPart;
delete hTrueMult;
delete hFracPart3;
delete hFracReso3;
delete hFracPart3f;
delete hFracReso3f;
for(unsigned uP=0; uP<3; uP++){
delete hFracReso_P[uP];
delete hFracReso3_P[uP];
delete hFracReso3f_P[uP];
}
delete [] hFracReso_P;
delete [] hFracReso3_P;
delete [] hFracReso3f_P;
}
void TestTime(){
DLM_Timer Timer;
Timer.Start();
usleep(1000e3);
long long value = Timer.Stop();
double dval = value;
printf("dval = %f\n",dval);
printf("Nth = %u\n",GetNumThreads());
printf("Oth = %u\n",GetOptimalThreads());
}
void TestDecay(){
const unsigned NumIter = 100000;
const double MotherMass = 1116;
const double MotherMom = 1000;
const double DaughterMass1 = 938;
const double DaughterMass2 = 140;
TH1F* hGenBod_Mom1_CM = new TH1F("hGenBod_Mom1_CM","hGenBod_Mom1_CM",128,0,1024);
TH1F* hGenBod_CosTheta1_CM = new TH1F("hGenBod_CosTheta1_CM","hGenBod_CosTheta1_CM",128,-1,1);
TH1F* hGenBod_Phi1_CM = new TH1F("hGenBod_Phi1_CM","hGenBod_Phi1_CM",128,-2.*TMath::Pi(),2.*TMath::Pi());
TH1F* hGenBod_Mom2_CM = new TH1F("hGenBod_Mom2_CM","hGenBod_Mom2_CM",128,0,1024);
TH1F* hGenBod_CosTheta2_CM = new TH1F("hGenBod_CosTheta2_CM","hGenBod_CosTheta2_CM",128,-1,1);
TH1F* hGenBod_Phi2_CM = new TH1F("hGenBod_Phi2_CM","hGenBod_Phi2_CM",128,-2.*TMath::Pi(),2.*TMath::Pi());
TH1F* hGenBod_Mom1_LAB = new TH1F("hGenBod_Mom1_LAB","hGenBod_Mom1_LAB",128,0,1024);
TH1F* hGenBod_CosTheta1_LAB = new TH1F("hGenBod_CosTheta1_LAB","hGenBod_CosTheta1_LAB",128,-1,1);
TH1F* hGenBod_Phi1_LAB = new TH1F("hGenBod_Phi1_LAB","hGenBod_Phi1_LAB",128,-2.*TMath::Pi(),2.*TMath::Pi());
TH1F* hGenBod_Mom2_LAB = new TH1F("hGenBod_Mom2_LAB","hGenBod_Mom2_LAB",128,0,1024);
TH1F* hGenBod_CosTheta2_LAB = new TH1F("hGenBod_CosTheta2_LAB","hGenBod_CosTheta2_LAB",128,-1,1);
TH1F* hGenBod_Phi2_LAB = new TH1F("hGenBod_Phi2_LAB","hGenBod_Phi2_LAB",128,-2.*TMath::Pi(),2.*TMath::Pi());
TH1F* hDimi_Mom1_CM = new TH1F("hDimi_Mom1_CM","hDimi_Mom1_CM",128,0,1024);
TH1F* hDimi_CosTheta1_CM = new TH1F("hDimi_CosTheta1_CM","hDimi_CosTheta1_CM",128,-1,1);
TH1F* hDimi_Phi1_CM = new TH1F("hDimi_Phi1_CM","hDimi_Phi1_CM",128,-2.*TMath::Pi(),2.*TMath::Pi());
TH1F* hDimi_Mom2_CM = new TH1F("hDimi_Mom2_CM","hDimi_Mom2_CM",128,0,1024);
TH1F* hDimi_CosTheta2_CM = new TH1F("hDimi_CosTheta2_CM","hDimi_CosTheta2_CM",128,-1,1);
TH1F* hDimi_Phi2_CM = new TH1F("hDimi_Phi2_CM","hDimi_Phi2_CM",128,-2.*TMath::Pi(),2.*TMath::Pi());
TH1F* hDimi_Mom1_LAB = new TH1F("hDimi_Mom1_LAB","hDimi_Mom1_LAB",128,0,1024);
TH1F* hDimi_CosTheta1_LAB = new TH1F("hDimi_CosTheta1_LAB","hDimi_CosTheta1_LAB",128,-1,1);
TH1F* hDimi_Phi1_LAB = new TH1F("hDimi_Phi1_LAB","hDimi_Phi1_LAB",128,-2.*TMath::Pi(),2.*TMath::Pi());
TH1F* hDimi_Mom2_LAB = new TH1F("hDimi_Mom2_LAB","hDimi_Mom2_LAB",128,0,1024);
TH1F* hDimi_CosTheta2_LAB = new TH1F("hDimi_CosTheta2_LAB","hDimi_CosTheta2_LAB",128,-1,1);
TH1F* hDimi_Phi2_LAB = new TH1F("hDimi_Phi2_LAB","hDimi_Phi2_LAB",128,-2.*TMath::Pi(),2.*TMath::Pi());
double MassArray[2];
MassArray[0] = DaughterMass1;
MassArray[1] = DaughterMass2;
DLM_Random DimiGen(11);
CatsParticle MotherAtRest;
MotherAtRest.SetMomXYZ(0,0,0);
MotherAtRest.SetMass(MotherMass);
MotherAtRest.SetDecayRanGen(DimiGen);
CatsParticle MotherMoving;
MotherMoving.SetMomXYZ(0,0,MotherMom);
MotherMoving.SetMass(MotherMass);
MotherMoving.SetDecayRanGen(DimiGen);
TGenPhaseSpace psgenRest;
TLorentzVector MammaRest;
MammaRest.SetXYZM(0,0,0,MotherMass);
psgenRest.SetDecay(MammaRest,2,MassArray);
TGenPhaseSpace psgenMoving;
TLorentzVector MammaMoving;
MammaMoving.SetXYZM(0,0,MotherMom,MotherMass);
psgenMoving.SetDecay(MammaMoving,2,MassArray);
for(unsigned uIter=0; uIter<NumIter; uIter++){
//printf("u = %u\n", uIter);
CatsParticle* DaughtersCM = MotherAtRest.Decay(DaughterMass1,DaughterMass2);
CatsParticle* DaughtersLAB = MotherMoving.Decay(DaughterMass1,DaughterMass2);
psgenRest.Generate();
psgenMoving.Generate();
TLorentzVector* GenDaughter1_CM = psgenRest.GetDecay(0);
TLorentzVector* GenDaughter2_CM = psgenRest.GetDecay(1);
TLorentzVector* GenDaughter1_LAB = psgenMoving.GetDecay(0);
TLorentzVector* GenDaughter2_LAB = psgenMoving.GetDecay(1);
hGenBod_Mom1_CM->Fill(GenDaughter1_CM->P());
hGenBod_CosTheta1_CM->Fill(GenDaughter1_CM->CosTheta());
hGenBod_Phi1_CM->Fill(GenDaughter1_CM->Phi());
hGenBod_Mom2_CM->Fill(GenDaughter2_CM->P());
hGenBod_CosTheta2_CM->Fill(GenDaughter2_CM->CosTheta());
hGenBod_Phi2_CM->Fill(GenDaughter2_CM->Phi());
hGenBod_Mom1_LAB->Fill(GenDaughter1_LAB->P());
hGenBod_CosTheta1_LAB->Fill(GenDaughter1_LAB->CosTheta());
hGenBod_Phi1_LAB->Fill(GenDaughter1_LAB->Phi());
hGenBod_Mom2_LAB->Fill(GenDaughter2_LAB->P());
hGenBod_CosTheta2_LAB->Fill(GenDaughter2_LAB->CosTheta());
hGenBod_Phi2_LAB->Fill(GenDaughter2_LAB->Phi());
//printf(" p1 = %f\n", DaughtersCM[0].GetP());
hDimi_Mom1_CM->Fill(DaughtersCM[0].GetP());
hDimi_CosTheta1_CM->Fill(cos(DaughtersCM[0].GetPtheta()));
hDimi_Phi1_CM->Fill(DaughtersCM[0].GetPphi());
hDimi_Mom2_CM->Fill(DaughtersCM[1].GetP());
hDimi_CosTheta2_CM->Fill(cos(DaughtersCM[1].GetPtheta()));
hDimi_Phi2_CM->Fill(DaughtersCM[1].GetPphi());
hDimi_Mom1_LAB->Fill(DaughtersLAB[0].GetP());
hDimi_CosTheta1_LAB->Fill(cos(DaughtersLAB[0].GetPtheta()));
hDimi_Phi1_LAB->Fill(DaughtersLAB[0].GetPphi());
hDimi_Mom2_LAB->Fill(DaughtersLAB[1].GetP());
hDimi_CosTheta2_LAB->Fill(cos(DaughtersLAB[1].GetPtheta()));
hDimi_Phi2_LAB->Fill(DaughtersLAB[1].GetPphi());
delete [] DaughtersCM;
delete [] DaughtersLAB;
//delete GenDaughter1_CM;
//delete GenDaughter2_CM;
//delete GenDaughter1_LAB;
//delete GenDaughter2_LAB;
}
TFile fOutput(TString::Format("%s/FunWithCeca/TestDecay.root",GetFemtoOutputFolder()),"recreate");
hGenBod_Mom1_CM->Write();
hGenBod_CosTheta1_CM->Write();
hGenBod_Phi1_CM->Write();
hGenBod_Mom2_CM->Write();
hGenBod_CosTheta2_CM->Write();
hGenBod_Phi2_CM->Write();
hGenBod_Mom1_LAB->Write();
hGenBod_CosTheta1_LAB->Write();
hGenBod_Phi1_LAB->Write();
hGenBod_Mom2_LAB->Write();
hGenBod_CosTheta2_LAB->Write();
hGenBod_Phi2_LAB->Write();
hDimi_Mom1_CM->Write();
hDimi_CosTheta1_CM->Write();
hDimi_Phi1_CM->Write();
hDimi_Mom2_CM->Write();
hDimi_CosTheta2_CM->Write();
hDimi_Phi2_CM->Write();
hDimi_Mom1_LAB->Write();
hDimi_CosTheta1_LAB->Write();
hDimi_Phi1_LAB->Write();
hDimi_Mom2_LAB->Write();
hDimi_CosTheta2_LAB->Write();
hDimi_Phi2_LAB->Write();
}
//conclusion
//the time coordinate changes the spacial ones after the boost,
//however ALL relative coordinates (space and time) remain unchanged
//i.e. it does not matter what time we choose in our LAB, as long as it is
//consistent for all particles.
//N.B. same time in LAB is NOT same time in CM, should we propagate ??
void TestBoost(){
CatsLorentzVector BoostV;
BoostV.Set(0,0,0,0,500,200,0,0);
CatsLorentzVector SV1;
SV1.Set(0,0.01,-0.02,0.01,0,0,0,0);
CatsLorentzVector SV1A;
SV1A.Set(0,0.02,-0.02,0.01,0,0,0,0);
CatsLorentzVector SV2;
SV2.Set(sqrt(0.01*0.01+0.02*0.02+0.01*0.01),0.01,-0.02,0.01,0,0,0,0);
CatsLorentzVector SV2A;
SV2A.Set(sqrt(0.01*0.01+0.02*0.02+0.01*0.01),0.02,-0.02,0.01,0,0,0,0);
CatsLorentzVector SV3;
SV3.Set(sqrt(0.02*0.02+0.01*0.01+0.02*0.02+0.01*0.01),0.01,-0.02,0.01,0,0,0,0);
printf("\n");
SV1.Print();
printf("\n");
SV2.Print();
printf("\n");
SV3.Print();
SV1.Boost(BoostV);
SV1A.Boost(BoostV);
SV2.Boost(BoostV);
SV2A.Boost(BoostV);
SV3.Boost(BoostV);
printf("\n");
printf("Gamma = %.3f\n",BoostV.Gamma());
printf("Beta = %.3f\n",BoostV.Beta());
printf("BetaX = %.3f\n",BoostV.BetaX());
printf("\n");
SV1.Print();
printf("\n");
SV2.Print();
printf("\n");
SV3.Print();
printf("Relative distance (x) in the final system:\n");
printf(" SV1 - SV1A: %.2e %.2e\n",SV1.GetX()-SV1A.GetX(),SV1.GetT()-SV1A.GetT());
printf(" SV2 - SV2A: %.2e %.2e\n",SV2.GetX()-SV2A.GetX(),SV2.GetT()-SV2A.GetT());
}
void Ghetto_Test1(){
const unsigned NumPairs = 32*1000*1000;
//const unsigned NumPairs = 1000;
const double r_SP = 1.0;//1.35
const double r_TR = 1.0;//1.1
const double p_SP = 600;
const double FemtoLimit = 255;
TREPNI Database(0);
std::vector<std::string> ListOfParticles;
ListOfParticles.push_back("proton");
ListOfParticles.push_back("proton");
ListOfParticles.push_back("Lambda");
CECA GT1(Database, ListOfParticles);
GT1.SetFemtoRegion(FemtoLimit);
GT1.GhettoTest1(NumPairs,r_SP,p_SP);
TFile fOutput(TString::Format("%s/FunWithCeca/Ghetto_Test1_1.root",GetFemtoOutputFolder()),"recreate");
TH2F* h_Ghetto_rstar = Convert_DlmHisto_TH2F(GT1.Ghetto_rstar,"Ghetto_rstar");
TH2F* h_Ghetto_rcore = Convert_DlmHisto_TH2F(GT1.Ghetto_rcore,"Ghetto_rcore");
TH1F* hFemto_Ghetto_rstar = (TH1F*)h_Ghetto_rstar->ProjectionY(TString::Format("hFemto_Ghetto_rstar"),1,h_Ghetto_rstar->GetXaxis()->FindBin(FemtoLimit));
//hFemto_Ghetto_rstar->Sumw2();
hFemto_Ghetto_rstar->Scale(1./hFemto_Ghetto_rstar->Integral(),"width");
TH1F* hFemto_Ghetto_rcore = (TH1F*)h_Ghetto_rcore->ProjectionY(TString::Format("hFemto_Ghetto_rcore"),1,h_Ghetto_rcore->GetXaxis()->FindBin(FemtoLimit));
//hFemto_Ghetto_rcore->Sumw2();
hFemto_Ghetto_rcore->Scale(1./hFemto_Ghetto_rcore->Integral(),"width");
TH1D* h_kstar = h_Ghetto_rcore->ProjectionX(TString::Format("h_kstar"),1,h_Ghetto_rcore->GetYaxis()->FindBin(h_Ghetto_rcore->GetYaxis()->GetNbins()));
h_kstar->Scale(1./h_kstar->Integral(),"width");
double rMin,rMax;
GetCentralInterval(*hFemto_Ghetto_rstar, 0.95, rMin, rMax, true);
TF1* fSource_star = new TF1("fSource_star",GaussSourceTF1,rMin,rMax,1);
fSource_star->SetParameter(0,r_SP);
fSource_star->SetParLimits(0,r_SP*0.25,r_SP*4.0);
hFemto_Ghetto_rstar->Fit(fSource_star,"Q, S, N, R, M");
GetCentralInterval(*hFemto_Ghetto_rcore, 0.95, rMin, rMax, true);
TF1* fSource_core = new TF1("fSource_core",GaussSourceTF1,rMin,rMax,1);
fSource_core->SetParameter(0,r_SP);
fSource_core->SetParLimits(0,r_SP*0.25,r_SP*4.0);
hFemto_Ghetto_rcore->Fit(fSource_core,"Q, S, N, R, M");
printf("r_star = %.3f +/- %.3f\n",fSource_star->GetParameter(0),fSource_star->GetParError(0));
printf("r_core = %.3f +/- %.3f\n",fSource_core->GetParameter(0),fSource_core->GetParError(0));
TH1F* hFemto_Old_rstar = Convert_DlmHisto_TH1F(GT1.Old_rstar,"Old_rstar");
TH1F* hFemto_Old_rcore = Convert_DlmHisto_TH1F(GT1.Old_rcore,"Old_rcore");
TH1F* hFemto_Old_CosRcP1 = Convert_DlmHisto_TH1F(GT1.Old_CosRcP1,"Old_CosRcP1");
TH1F* hFemto_Old_CosRcP2 = Convert_DlmHisto_TH1F(GT1.Old_CosRcP2,"Old_CosRcP2");
TH1F* hFemto_Old_CosP1P2 = Convert_DlmHisto_TH1F(GT1.Old_CosP1P2,"Old_CosP1P2");
TH1F* hFemto_Old_RcP1 = Convert_DlmHisto_TH1F(GT1.Old_RcP1,"Old_RcP1");
TH1F* hFemto_Old_RcP2 = Convert_DlmHisto_TH1F(GT1.Old_RcP2,"Old_RcP2");
TH1F* hFemto_Old_P1P2 = Convert_DlmHisto_TH1F(GT1.Old_P1P2,"Old_P1P2");
TH1F* hGhettOld_rstar = Convert_DlmHisto_TH1F(GT1.GhettOld_rstar,"GhettOld_rstar");
hGhettOld_rstar->Scale(1./hGhettOld_rstar->Integral(),"width");
TH1F* hFemto_OldNew_rstar = (TH1F*)hFemto_Old_rstar->Clone("OldNew_rstar");
TH1F* hFemto_OldNew_rcore = (TH1F*)hFemto_Old_rcore->Clone("OldNew_rcore");
for(unsigned uBin=0; uBin<hFemto_Old_rstar->GetNbinsX(); uBin++){
double rad = hFemto_Old_rstar->GetBinCenter(uBin+1);
double pars[2];
pars[0] = fSource_core->GetParameter(0);
pars[1] = 2.;
hFemto_OldNew_rstar->SetBinContent(uBin+1,GT1.Old_source->RootEval(&rad,pars));
hFemto_OldNew_rcore->SetBinContent(uBin+1,GaussSourceTF1(&rad,pars));
}
DLM_Histo<float>* dlmFemto_Ghetto_rstar = Convert_TH1F_DlmHisto(hFemto_Ghetto_rstar);
dlmFemto_Ghetto_rstar->RebinAll(4);
*dlmFemto_Ghetto_rstar/=4.;
//printf("%u\n",dlmFemto_Ghetto_rstar->GetNbins());
DLM_HistoSource HistoSource(dlmFemto_Ghetto_rstar);
//#,#,POT_ID,POT_FLAG,t_tot,t1,t2,s,l,j
double PotPars1S0[8]={NN_AV18,v18_Coupled3P2,1,1,1,0,0,0};
double PotPars3P0[8]={NN_AV18,v18_Coupled3P2,1,1,1,1,1,0};
double PotPars3P1[8]={NN_AV18,v18_Coupled3P2,1,1,1,1,1,1};
double PotPars3P2[8]={NN_AV18,v18_Coupled3P2,1,1,1,1,1,2};
double PotPars1D2[8]={NN_AV18,v18_Coupled3P2,1,1,1,0,2,2};
CATSparameters cPotPars1S0(CATSparameters::tPotential,8,true); cPotPars1S0.SetParameters(PotPars1S0);
CATSparameters cPotPars3P0(CATSparameters::tPotential,8,true); cPotPars3P0.SetParameters(PotPars3P0);
CATSparameters cPotPars3P1(CATSparameters::tPotential,8,true); cPotPars3P1.SetParameters(PotPars3P1);
CATSparameters cPotPars3P2(CATSparameters::tPotential,8,true); cPotPars3P2.SetParameters(PotPars3P2);
CATSparameters cPotPars1D2(CATSparameters::tPotential,8,true); cPotPars1D2.SetParameters(PotPars1D2);
const unsigned NumMomBins_pp = 100;
const double kMin_pp = 0;
const double kMax_pp = 400;
DLM_CommonAnaFunctions AnalysisObject;
AnalysisObject.SetCatsFilesFolder(TString::Format("%s/CatsFiles/",GetCernBoxDimi()));
CATS pp_traditional;
pp_traditional.SetMomBins(NumMomBins_pp,kMin_pp,kMax_pp);
AnalysisObject.SetUpCats_pp(pp_traditional,"AV18","McGauss_ResoTM",0,202);
pp_traditional.SetAnaSource(0,r_TR);
pp_traditional.KillTheCat();
CATS pp_new;
pp_new.SetMomBins(NumMomBins_pp,kMin_pp,kMax_pp);
pp_new.SetThetaDependentSource(false);
pp_new.SetMomentumDependentSource(false);
pp_new.SetAnaSource(CatsSourceForwarder, &HistoSource, 0);
pp_new.SetUseAnalyticSource(true);
pp_new.SetExcludeFailedBins(false);
pp_new.SetQ1Q2(1);
pp_new.SetPdgId(2212, 2212);
pp_new.SetRedMass( 0.5*Mass_p );
pp_new.SetNumChannels(4);
pp_new.SetNumPW(0,3);
pp_new.SetNumPW(1,2);
pp_new.SetNumPW(2,2);
pp_new.SetNumPW(3,2);
pp_new.SetSpin(0,0);
pp_new.SetSpin(1,1);
pp_new.SetSpin(2,1);
pp_new.SetSpin(3,1);
pp_new.SetChannelWeight(0, 3./12.);
pp_new.SetChannelWeight(1, 1./12.);
pp_new.SetChannelWeight(2, 3./12.);
pp_new.SetChannelWeight(3, 5./12.);
pp_new.SetShortRangePotential(0,0,fDlmPot,cPotPars1S0);
pp_new.SetShortRangePotential(0,2,fDlmPot,cPotPars1D2);
pp_new.SetShortRangePotential(1,1,fDlmPot,cPotPars3P0);
pp_new.SetShortRangePotential(2,1,fDlmPot,cPotPars3P1);
pp_new.SetShortRangePotential(3,1,fDlmPot,cPotPars3P2);
pp_new.KillTheCat();
CATS pp_old;
pp_old.SetMomBins(NumMomBins_pp,kMin_pp,kMax_pp);
pp_old.SetThetaDependentSource(false);
pp_old.SetMomentumDependentSource(false);
pp_old.SetAnaSource(CatsSourceForwarder, GT1.Old_source, 2);
pp_old.SetAnaSource(0, fSource_core->GetParameter(0));
pp_old.SetAnaSource(1, 2.0);
pp_old.SetUseAnalyticSource(true);
pp_old.SetExcludeFailedBins(false);
pp_old.SetQ1Q2(1);
pp_old.SetPdgId(2212, 2212);
pp_old.SetRedMass( 0.5*Mass_p );
pp_old.SetNumChannels(4);
pp_old.SetNumPW(0,3);
pp_old.SetNumPW(1,2);
pp_old.SetNumPW(2,2);
pp_old.SetNumPW(3,2);
pp_old.SetSpin(0,0);
pp_old.SetSpin(1,1);
pp_old.SetSpin(2,1);
pp_old.SetSpin(3,1);
pp_old.SetChannelWeight(0, 3./12.);
pp_old.SetChannelWeight(1, 1./12.);
pp_old.SetChannelWeight(2, 3./12.);
pp_old.SetChannelWeight(3, 5./12.);
pp_old.SetShortRangePotential(0,0,fDlmPot,cPotPars1S0);
pp_old.SetShortRangePotential(0,2,fDlmPot,cPotPars1D2);
pp_old.SetShortRangePotential(1,1,fDlmPot,cPotPars3P0);
pp_old.SetShortRangePotential(2,1,fDlmPot,cPotPars3P1);
pp_old.SetShortRangePotential(3,1,fDlmPot,cPotPars3P2);
pp_old.KillTheCat();
TH1F* hTraditional_rstar = new TH1F("hTraditional_rstar","hTraditional_rstar",512,0,32);
for(unsigned uBin=0; uBin<hTraditional_rstar->GetNbinsX(); uBin++){
double rad = hTraditional_rstar->GetBinCenter(uBin+1);
hTraditional_rstar->SetBinContent(uBin+1,pp_traditional.EvaluateTheSource(10,rad,0));
}
TH1F* Ck_pp_trad = new TH1F("Ck_pp_trad","Ck_pp_trad",NumMomBins_pp,kMin_pp,kMax_pp);
TH1F* Ck_pp_new = new TH1F("Ck_pp_new","Ck_pp_new",NumMomBins_pp,kMin_pp,kMax_pp);
TH1F* Ck_pp_old = new TH1F("Ck_pp_old","Ck_pp_old",NumMomBins_pp,kMin_pp,kMax_pp);
for(unsigned uBin=0; uBin<NumMomBins_pp; uBin++){
Ck_pp_trad->SetBinContent(uBin+1,pp_traditional.GetCorrFun(uBin));
Ck_pp_new->SetBinContent(uBin+1,pp_new.GetCorrFun(uBin));
Ck_pp_old->SetBinContent(uBin+1,pp_old.GetCorrFun(uBin));
}
TH1F* Ck_pp_ratio = (TH1F*)Ck_pp_new->Clone("Ck_pp_ratio");
Ck_pp_ratio->Divide(Ck_pp_old);
fOutput.cd();
h_kstar->Write();
h_Ghetto_rstar->Write();
h_Ghetto_rcore->Write();
hFemto_Ghetto_rstar->Write();
fSource_star->Write();
hTraditional_rstar->Write();
hGhettOld_rstar->Write();
hFemto_Old_rstar->Write();
hFemto_OldNew_rstar->Write();
hFemto_Ghetto_rcore->Write();
fSource_core->Write();
hFemto_Old_rcore->Write();
hFemto_OldNew_rcore->Write();
hFemto_Old_CosRcP1->Write();
hFemto_Old_CosRcP2->Write();
hFemto_Old_CosP1P2->Write();
hFemto_Old_RcP1->Write();