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cumulantRatioPlots.cpp
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cumulantRatioPlots.cpp
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#include <iostream>
#include <cmath>
#include <fstream>
#include "Particles.h"
#include "ThermalFunctions.h"
#include "TROOT.h"
#include "TApplication.h"
#include "TGraph.h"
#include "TGraphErrors.h"
#include "TMultiGraph.h"
#include "TLegend.h"
#include "TCanvas.h"
#include "TPad.h"
#include "TLatex.h"
#include "TAxis.h"
#include "TStyle.h"
using namespace std;
class DataFileReader
{
private:
int n_rows {0}, n_columns {0};
double **data {nullptr};
bool dataLoaded {false};
std::string fileName {};
public:
DataFileReader(){}
~DataFileReader()
{
for (int i = 0; i < n_rows; ++i)
{
delete[] data[i];
}
delete[] data;
data = nullptr;
n_rows = 0; n_columns = 0;
}
int nRows() { return n_rows; }
int nColumns() { return n_columns; }
bool isDataLoaded() { return dataLoaded; }
void read(std::string fname, bool showData = false)
{
fileName = fname;
std::ifstream infile;
infile.open(fileName);
if(infile)
{
infile >> n_rows >> n_columns;
std::cout << "Reading data from " << fileName << " with " << n_rows << " rows and " << n_columns << " columns..." << '\n';
data = new double*[n_rows];
for (int i = 0; i < n_rows; ++i)
{
data[i] = new double[n_columns];
}
for (int i = 0; i < n_rows; ++i)
{
for (int j = 0; j < n_columns; ++j)
{
infile >> data[i][j];
if (showData)
{
std::cout << data[i][j] << '\t';
}
}
if (showData)
{
std::cout << '\n';
}
}
dataLoaded = true;
std::cout << "Data loaded successfully..." << std::endl;
}
else
{
std::cout << "Unable to load data file " << fname << "..." << std::endl;
}
infile.close();
}
void close()
{
dataLoaded = false;
for (int i = 0; i < n_rows; ++i)
{
delete[] data[i];
}
delete[] data;
data = nullptr;
n_rows = 0; n_columns = 0;
}
double get(int r, int c)
{
if (dataLoaded)
{
if(r >= 0 && r < n_rows && c >= 0 && c < n_columns)
{
return data[r][c];
}
}
return 0;
}
double* getColumn(int c)
{
if (dataLoaded)
{
if(c >= 0 && c < n_columns)
{
double *col_data = new double[n_rows];
for (int i = 0; i < n_rows; ++i)
{
col_data[i] = data[i][c];
}
return col_data;
}
}
return 0;
}
double* getRow(int r)
{
if (dataLoaded)
{
if(r >= 0 && r < n_rows)
{
double *row_data = new double[n_columns];
for (int i = 0; i < n_columns; ++i)
{
row_data[i] = data[r][i];
}
return row_data;
}
}
return 0;
}
};
class STAR_netLambda_sigma2byM:public ThermalFunction
{
Susceptibility1S *chi1S;
Susceptibility2S *chi2S;
public:
STAR_netLambda_sigma2byM()
{
ParticleSystem system;
system.loadDefaultData();
chi1S = new Susceptibility1S {system};
chi1S->setDetectorRapidityCoordinates();
chi1S->setIntegralLimits(0.9,2,-0.5,0.5);
chi1S->setDecay(true);
chi2S = new Susceptibility2S {system};
chi2S->setDetectorRapidityCoordinates();
chi2S->setIntegralLimits(0.9,2,-0.5,0.5);
chi2S->setDecay(true);
}
~STAR_netLambda_sigma2byM()
{
delete chi1S;
delete chi2S;
chi1S = nullptr;
chi2S = nullptr;
}
double getValue(double T, double mub, double muq, double mus)
{
double num = chi2S->getValueEach(33,T,mub,muq,mus)+chi2S->getValueEach(34,T,mub,muq,mus);
double denom = -(chi1S->getValueEach(33,T,mub,muq,mus)+chi1S->getValueEach(34,T,mub,muq,mus));
return num/denom;
}
};
class STAR_netLambda_Ssigma:public ThermalFunction
{
Susceptibility3S *chi3S;
Susceptibility2S *chi2S;
public:
STAR_netLambda_Ssigma()
{
ParticleSystem system;
system.loadDefaultData();
chi3S = new Susceptibility3S {system};
chi3S->setDetectorRapidityCoordinates();
chi3S->setIntegralLimits(0.9,2,-0.5,0.5);
chi3S->setDecay(true);
chi2S = new Susceptibility2S {system};
chi2S->setDetectorRapidityCoordinates();
chi2S->setIntegralLimits(0.9,2,-0.5,0.5);
chi2S->setDecay(true);
}
~STAR_netLambda_Ssigma()
{
delete chi3S;
delete chi2S;
chi3S = nullptr;
chi2S = nullptr;
}
double getValue(double T, double mub, double muq, double mus)
{
double denom = chi2S->getValueEach(33,T,mub,muq,mus)+chi2S->getValueEach(34,T,mub,muq,mus);
double num = -(chi3S->getValueEach(33,T,mub,muq,mus)+chi3S->getValueEach(34,T,mub,muq,mus));
return num/denom;
}
};
class STAR_netProton_sigma2byM:public ThermalFunction
{
Susceptibility1B *chi1B;
Susceptibility2B *chi2B;
public:
STAR_netProton_sigma2byM()
{
ParticleSystem system;
system.loadDefaultData();
chi1B = new Susceptibility1B {system};
chi1B->setDetectorRapidityCoordinates();
chi1B->setIntegralLimits(0.4,0.8,-0.5,0.5);
chi1B->setDecay(true);
chi2B = new Susceptibility2B {system};
chi2B->setDecay(true);
chi2B->setIntegralLimits(0.4,0.8,-0.5,0.5);
chi2B->setDetectorRapidityCoordinates();
}
~STAR_netProton_sigma2byM()
{
delete chi1B;
delete chi2B;
chi1B = nullptr;
chi2B = nullptr;
}
double getValue(double T, double mub, double muq, double mus)
{
double num = chi2B->getValueEach(23,T,mub,muq,mus)+chi2B->getValueEach(24,T,mub,muq,mus);
double denom = chi1B->getValueEach(23,T,mub,muq,mus)+chi1B->getValueEach(24,T,mub,muq,mus);
return num/denom;
}
};
class STAR_netCharge_sigma2byM:public ThermalFunction
{
Susceptibility1Q *chi1Q;
Susceptibility2Q *chi2Q;
public:
STAR_netCharge_sigma2byM()
{
ParticleSystem system;
system.loadDefaultData();
chi1Q = new Susceptibility1Q {system};
chi1Q->setDetectorPseudorapidityCoordinates();
chi1Q->setIntegralLimits(0.2,2,-0.5,0.5);
chi1Q->setDecay(true);
chi2Q = new Susceptibility2Q {system};
chi2Q->setDetectorPseudorapidityCoordinates();
chi2Q->setIntegralLimits(0.2,2,-0.5,0.5);
chi2Q->setDecay(true);
}
~STAR_netCharge_sigma2byM()
{
delete chi1Q;
delete chi2Q;
chi1Q = nullptr;
chi2Q = nullptr;
}
double getValue(double T, double mub, double muq, double mus)
{
double num = chi2Q->getValue(T,mub,muq,mus);
double denom = chi1Q->getValue(T,mub,muq,mus);
return num/denom;
}
};
class STAR_netKaon_sigma2byM:public ThermalFunction
{
Susceptibility1S *chi1S;
Susceptibility2S *chi2S;
public:
STAR_netKaon_sigma2byM()
{
ParticleSystem system;
system.loadDefaultData();
chi1S = new Susceptibility1S {system};
chi1S->setDetectorRapidityCoordinates();
chi1S->setIntegralLimits(0.2,1.6,-0.5,0.5);
chi1S->setDecay(true);
chi2S = new Susceptibility2S {system};
chi2S->setDecay(true);
chi2S->setIntegralLimits(0.2,1.6,-0.5,0.5);
chi2S->setDetectorRapidityCoordinates();
}
~STAR_netKaon_sigma2byM()
{
delete chi1S;
delete chi2S;
chi1S = nullptr;
chi2S = nullptr;
}
double getValue(double T, double mub, double muq, double mus)
{
double num = chi2S->getValueEach(4,T,mub,muq,mus)+chi2S->getValueEach(5,T,mub,muq,mus);
double denom = chi1S->getValueEach(4,T,mub,muq,mus)+chi1S->getValueEach(5,T,mub,muq,mus);
// std::cout << "chi2P/chi1P(" << T << ", " << mub << ", " << muq << ", " << mus << ") : " << num/denom << '\n';
return num/denom;
}
};
namespace MyStyle
{
int Color1 = TColor::GetColor("#8c8c8c");
int Color2 = TColor::GetColor("#12c415");
int Color3 = TColor::GetColor("#ff9900");
int Color4 = TColor::GetColor("#ff0000");
int Color5 = TColor::GetColor("#0000ff");
int Color6 = TColor::GetColor("#0c9fcc");
int Color7 = TColor::GetColor("#cd36ff");
int Marker1 = kFullCircle;
int Marker2 = kFullSquare;
int Marker3 = kFullTriangleUp;
int Marker4 = kFullTriangleDown;
int Line1 = 1;
int Line2 = 2;
int Line3 = 9;
};
namespace MyStyle1
{
int Color1 = TColor::GetColor("#ff0000");
int Color2 = TColor::GetColor("#0000ff");
int Color3 = TColor::GetColor("#0abf0a");
int Color4 = TColor::GetColor("#ba0bb4");
int Marker1 = kFullCircle;
int Marker_P = kFullCircle;
int Marker_L = kFullCircle;
int Marker_K = kFullCircle;
int Marker_Q = kFullCircle;
int Marker_PQ = kOpenSquare;
int Marker_PL = kOpenCircle;
int Marker_KQ = kOpenCircle;
int Marker_KL = kOpenSquare;
int Line1 = 2;
};
void plotNetLambdaResults()
{
double temp;
int intv_exp;
double *energy_exp;
double *netLambda_sigma2byM_exp_0to5, *netLambda_sigma2byM_exp_0to5_staterr, *netLambda_sigma2byM_exp_0to5_syserr;
double *netLambda_Ssigma_exp_0to5, *netLambda_Ssigma_exp_0to5_syserr, *netLambda_Ssigma_exp_0to5_staterr;
double *netLambda_sigma2byM_exp_70to80, *netLambda_sigma2byM_exp_70to80_staterr, *netLambda_sigma2byM_exp_70to80_syserr;
double *netLambda_Ssigma_exp_70to80, *netLambda_Ssigma_exp_70to80_syserr, *netLambda_Ssigma_exp_70to80_staterr;
ifstream infile;
infile.open("data/cumulantRatios_netLambda.dat");
if (infile)
{
infile >> intv_exp;
energy_exp = new double[intv_exp];
netLambda_sigma2byM_exp_0to5 = new double[intv_exp]; netLambda_sigma2byM_exp_0to5_syserr = new double[intv_exp]; netLambda_sigma2byM_exp_0to5_staterr = new double[intv_exp];
netLambda_Ssigma_exp_0to5 = new double[intv_exp]; netLambda_Ssigma_exp_0to5_syserr = new double[intv_exp]; netLambda_Ssigma_exp_0to5_staterr = new double[intv_exp];
netLambda_sigma2byM_exp_70to80 = new double[intv_exp]; netLambda_sigma2byM_exp_70to80_syserr = new double[intv_exp]; netLambda_sigma2byM_exp_70to80_staterr = new double[intv_exp];
netLambda_Ssigma_exp_70to80 = new double[intv_exp]; netLambda_Ssigma_exp_70to80_syserr = new double[intv_exp]; netLambda_Ssigma_exp_70to80_staterr = new double[intv_exp];
for (int i = 0; i < intv_exp; ++i)
{
infile >> energy_exp[i] >> netLambda_sigma2byM_exp_0to5[i] >> netLambda_sigma2byM_exp_0to5_staterr[i] >> netLambda_sigma2byM_exp_0to5_syserr[i]
>> netLambda_Ssigma_exp_0to5[i] >> netLambda_Ssigma_exp_0to5_staterr[i] >> netLambda_Ssigma_exp_0to5_syserr[i]
>> netLambda_sigma2byM_exp_70to80[i] >> netLambda_sigma2byM_exp_70to80_staterr[i] >> netLambda_sigma2byM_exp_70to80_syserr[i]
>> netLambda_Ssigma_exp_70to80[i] >> netLambda_Ssigma_exp_70to80_staterr[i] >> netLambda_Ssigma_exp_70to80_syserr[i];
}
}
else{
cout << "Unable to load cumulant/moment ratios...\n";
intv_exp = 0;
}
infile.close();
double E_l = 5;
double E_u = 250;
int intvl = 100;
double dE = pow(E_u/E_l,1.0/(intvl-1));
double x;
double T, mub, muq, mus;
double energy_cleymans[intvl];
double netLambda_sigma2byM_cleymans[intvl], netLambda_Ssigma_cleymans[intvl];
STAR_netLambda_sigma2byM netLambda_sigma2byM_hrg;
STAR_netLambda_Ssigma netLambda_Ssigma_hrg;
for (int i = 0; i < intvl; ++i)
{
x = E_l*pow(dE,i);
energy_cleymans[i] = x;
mub = 1.308/(1+0.273*x);
muq = -0.0202/(1+0.126*x);
mus = 0.214/(1+0.184*x);
T = 0.166-0.139*mub*mub-0.053*pow(mub,4);
netLambda_sigma2byM_cleymans[i] = netLambda_sigma2byM_hrg.getValue(T,mub,muq,mus);
netLambda_Ssigma_cleymans[i] = netLambda_Ssigma_hrg.getValue(T,mub,muq,mus);
}
int intvl_fo_PQ, intvl_fo_KQ;
double *energy_fo_PQ, *T_fo_PQ, *mub_fo_PQ, *muq_fo_PQ, *mus_fo_PQ;
double *netLambda_sigma2byM_fo_PQ, *netLambda_Ssigma_fo_PQ;
double *energy_fo_KQ, *T_fo_KQ, *mub_fo_KQ, *muq_fo_KQ, *mus_fo_KQ;
double *netLambda_sigma2byM_fo_KQ, *netLambda_Ssigma_fo_KQ;
DataFileReader infile_self;
infile_self.read("data/freezeout_netProtonCharge_fluc.dat");
if(infile_self.isDataLoaded())
{
intvl_fo_PQ = infile_self.nRows();
energy_fo_PQ = infile_self.getColumn(0);
T_fo_PQ = infile_self.getColumn(1);
mub_fo_PQ = infile_self.getColumn(3);
muq_fo_PQ = infile_self.getColumn(5);
mus_fo_PQ = infile_self.getColumn(7);
infile_self.close();
netLambda_sigma2byM_fo_PQ = new double[intvl_fo_PQ];
netLambda_Ssigma_fo_PQ = new double[intvl_fo_PQ];
for (int i = 0; i < intvl_fo_PQ; ++i)
{
T = T_fo_PQ[i];
mub = mub_fo_PQ[i];
muq = muq_fo_PQ[i];
mus = mus_fo_PQ[i];
netLambda_sigma2byM_fo_PQ[i] = netLambda_sigma2byM_hrg.getValue(T,mub,muq,mus);
netLambda_Ssigma_fo_PQ[i] = netLambda_Ssigma_hrg.getValue(T,mub,muq,mus);
}
}
infile_self.read("data/freezeout_netKaonCharge_fluc.dat");
if(infile_self.isDataLoaded())
{
intvl_fo_KQ = infile_self.nRows();
energy_fo_KQ = infile_self.getColumn(0);
T_fo_KQ = infile_self.getColumn(1);
mub_fo_KQ = infile_self.getColumn(3);
muq_fo_KQ = infile_self.getColumn(5);
mus_fo_KQ = infile_self.getColumn(7);
infile_self.close();
netLambda_sigma2byM_fo_KQ = new double[intvl_fo_KQ];
netLambda_Ssigma_fo_KQ = new double[intvl_fo_KQ];
for (int i = 0; i < intvl_fo_KQ; ++i)
{
T = T_fo_KQ[i];
mub = mub_fo_KQ[i];
muq = muq_fo_KQ[i];
mus = mus_fo_KQ[i];
netLambda_sigma2byM_fo_KQ[i] = netLambda_sigma2byM_hrg.getValue(T,mub,muq,mus);
netLambda_Ssigma_fo_KQ[i] = netLambda_Ssigma_hrg.getValue(T,mub,muq,mus);
}
}
int intvl_bellwied;
double *energy_bellwied;
double *netLambda_sigma2byM_bellwied_kaon, *netLambda_sigma2byM_bellwied_qp;
double *netLambda_Ssigma_bellwied_kaon, *netLambda_Ssigma_bellwied_qp;
infile_self.read("data/cumulantRatios_bellwied.dat");
if(infile_self.isDataLoaded())
{
intvl_bellwied = infile_self.nRows();
energy_bellwied = infile_self.getColumn(0);
netLambda_sigma2byM_bellwied_kaon = infile_self.getColumn(1);
netLambda_sigma2byM_bellwied_qp = infile_self.getColumn(2);
netLambda_Ssigma_bellwied_kaon = infile_self.getColumn(3);
netLambda_Ssigma_bellwied_qp = infile_self.getColumn(4);
infile_self.close();
}
double topMargin = 0.01;
double bottomMargin = 0.07;
double rightMargin = 0.02;
double leftMargin = 0.1;
double textSize = 0.03;
double markerSize = 1.5;
double lineWidth = 2;
double transparency = 1;
gStyle->SetOptStat(0);
gStyle->SetOptTitle(0);
gStyle->SetEndErrorSize(5);
using namespace MyStyle;
TCanvas *cnvs1 = new TCanvas("cnvs1_Lambda","netLambda_fluc",400,500);
double ySizeEach = (1 - topMargin - bottomMargin)/2;
TPad *pad11 = new TPad("pad11", "pad11",0,ySizeEach+bottomMargin,1,1);
pad11->SetLogx();
pad11->SetTickx();
pad11->SetBottomMargin(0);
pad11->SetTopMargin(topMargin/pad11->GetHNDC());
pad11->SetRightMargin(rightMargin);
pad11->Draw();
TPad *pad12 = new TPad("pad12", "pad12",0,0,1,ySizeEach+bottomMargin);
pad12->SetLogx();
pad12->SetTickx();
pad12->SetTopMargin(0);
pad12->SetBottomMargin(bottomMargin/pad12->GetHNDC());
pad12->SetRightMargin(rightMargin);
pad12->Draw();
pad11->cd();
auto *gr111 = new TGraph(intvl,energy_cleymans,netLambda_sigma2byM_cleymans);
gr111->SetLineStyle(Line1);
gr111->SetLineColorAlpha(Color1,transparency);
gr111->SetLineWidth(lineWidth);
auto *gr112 = new TGraphErrors(intv_exp,energy_exp,netLambda_sigma2byM_exp_0to5,(double*)0,netLambda_sigma2byM_exp_0to5_staterr);
gr112->SetMarkerSize(markerSize);
gr112->SetMarkerColorAlpha(Color2,transparency);
gr112->SetLineColorAlpha(Color2,transparency);
gr112->SetLineWidth(lineWidth);
gr112->SetMarkerStyle(Marker1);
auto *gr113 = new TGraphErrors(intv_exp,energy_exp,netLambda_sigma2byM_exp_0to5,(double*)0,netLambda_sigma2byM_exp_0to5_syserr);
gr113->SetLineWidth(lineWidth);
gr113->SetLineColorAlpha(Color2,transparency);
auto *gr114 = new TGraphErrors(intv_exp,energy_exp,netLambda_sigma2byM_exp_70to80,(double*)0,netLambda_sigma2byM_exp_70to80_staterr);
gr114->SetMarkerSize(markerSize);
gr114->SetMarkerColorAlpha(Color3,transparency);
gr114->SetLineColorAlpha(Color3,transparency);
gr114->SetLineWidth(lineWidth);
gr114->SetMarkerStyle(Marker2);
auto *gr115 = new TGraphErrors(intv_exp,energy_exp,netLambda_sigma2byM_exp_70to80,(double*)0,netLambda_sigma2byM_exp_70to80_syserr);
gr115->SetLineWidth(lineWidth);
gr115->SetLineColorAlpha(Color3,transparency);
auto *gr116 = new TGraph(intvl_fo_PQ,energy_fo_PQ,netLambda_sigma2byM_fo_PQ);
gr116->SetMarkerSize(markerSize);
gr116->SetMarkerColorAlpha(Color4,transparency);
gr116->SetMarkerStyle(Marker3);
auto *gr117 = new TGraph(intvl_fo_KQ,energy_fo_KQ,netLambda_sigma2byM_fo_KQ);
gr117->SetMarkerSize(markerSize);
gr117->SetMarkerColorAlpha(Color5,transparency);
gr117->SetMarkerStyle(Marker4);
auto *gr118 = new TGraph(intvl_bellwied,energy_bellwied,netLambda_sigma2byM_bellwied_kaon);
gr118->SetLineStyle(Line2);
gr118->SetLineWidth(lineWidth);
gr118->SetLineColorAlpha(Color6,transparency);
auto *gr119 = new TGraph(intvl_bellwied,energy_bellwied,netLambda_sigma2byM_bellwied_qp);
gr119->SetLineStyle(Line3);
gr119->SetLineWidth(lineWidth);
gr119->SetLineColorAlpha(Color7,transparency);
TMultiGraph *mg11 = new TMultiGraph();
mg11->Add(gr111,"l");
mg11->Add(gr112,"pz"); // 0-5% centrality
mg11->Add(gr113,"||"); // 0-5% centrality err
mg11->Add(gr114,"pz"); // 70-80% centraliity
mg11->Add(gr115,"||"); // 70-80% centraliity err
mg11->Add(gr116,"p");
mg11->Add(gr117,"p");
mg11->Add(gr118,"l");
// mg11->Add(gr119,"l"); // bellwied using alba (qp kit)
// mg11->GetXaxis()->SetTitle("#sqrt{s_{NN}} (GeV)");
mg11->GetYaxis()->SetTitle("#sigma^{2}/M");
// mg11->GetXaxis()->SetRangeUser(2,250);
mg11->GetYaxis()->SetRangeUser(0.15,13.25);
mg11->GetYaxis()->SetNdivisions(6, 2, 0, kTRUE);
mg11->GetXaxis()->CenterTitle(true);
mg11->GetYaxis()->CenterTitle(true);
mg11->GetXaxis()->SetNoExponent();
mg11->GetXaxis()->SetLabelSize(textSize/pad11->GetHNDC());
mg11->GetXaxis()->SetTitleSize(textSize/pad11->GetHNDC());
mg11->GetXaxis()->SetTitleOffset(0.75);
mg11->GetYaxis()->SetLabelSize(textSize/pad11->GetHNDC());
mg11->GetYaxis()->SetTitleSize(textSize/pad11->GetHNDC());
mg11->GetYaxis()->SetTickLength(0.02);
mg11->GetYaxis()->SetTitleOffset(0.75);
mg11->Draw("a");
TLatex *txt11 = new TLatex(0.4,0.8,"#splitline{net-#Lambda results}{and calculations}");
txt11->SetNDC();
txt11->SetTextSize(textSize/pad11->GetHNDC());
txt11->Draw();
TLegend *lgnd11 = new TLegend(0.12,0.25,0.4,0.6);
lgnd11->AddEntry(gr116,"HRG (net-qp fit)","p");
lgnd11->AddEntry(gr117,"HRG (net-kq fit)","p");
lgnd11->AddEntry(gr118,"Bellwied et al. (kaon FO)","l");
// lgnd11->AddEntry(gr119,"Bellwied et al. (light FO)","l");
lgnd11->SetTextSize(textSize/pad12->GetHNDC());
lgnd11->SetBorderSize(0);
lgnd11->SetFillStyle(0);
lgnd11->Draw();
pad12->cd();
auto *gr121 = new TGraphErrors(intv_exp,energy_exp,netLambda_Ssigma_exp_0to5,(double*)0,netLambda_Ssigma_exp_0to5_staterr);
gr121->SetMarkerSize(markerSize);
gr121->SetMarkerColorAlpha(Color2,transparency);
gr121->SetLineColorAlpha(Color2,transparency);
gr121->SetLineWidth(lineWidth);
gr121->SetMarkerStyle(Marker1);
auto *gr122 = new TGraphErrors(intv_exp,energy_exp,netLambda_Ssigma_exp_0to5,(double*)0,netLambda_Ssigma_exp_0to5_syserr);
gr122->SetLineWidth(lineWidth);
gr122->SetLineColorAlpha(Color2,transparency);
auto *gr123 = new TGraphErrors(intv_exp,energy_exp,netLambda_Ssigma_exp_70to80,(double*)0,netLambda_Ssigma_exp_70to80_staterr);
gr123->SetMarkerSize(markerSize);
gr123->SetMarkerColorAlpha(Color3,transparency);
gr123->SetLineColorAlpha(Color3,transparency);
gr123->SetLineWidth(lineWidth);
gr123->SetMarkerStyle(Marker2);
auto *gr124 = new TGraphErrors(intv_exp,energy_exp,netLambda_Ssigma_exp_70to80,(double*)0,netLambda_Ssigma_exp_70to80_syserr);
gr124->SetLineWidth(lineWidth);
gr124->SetLineColorAlpha(Color3,transparency);
auto *gr125 = new TGraph(intvl,energy_cleymans,netLambda_Ssigma_cleymans);
gr125->SetLineStyle(1);
gr125->SetLineColorAlpha(Color1,transparency);
gr125->SetLineWidth(lineWidth);
auto *gr126 = new TGraph(intvl_fo_PQ,energy_fo_PQ,netLambda_Ssigma_fo_PQ);
gr126->SetMarkerSize(markerSize);
gr126->SetMarkerColorAlpha(Color4,transparency);
gr126->SetMarkerStyle(Marker3);
auto *gr127 = new TGraph(intvl_fo_KQ,energy_fo_KQ,netLambda_Ssigma_fo_KQ);
gr127->SetMarkerSize(markerSize);
gr127->SetMarkerColorAlpha(Color5,transparency);
gr127->SetMarkerStyle(Marker4);
auto *gr128 = new TGraph(intvl_bellwied,energy_bellwied,netLambda_Ssigma_bellwied_kaon);
gr128->SetLineStyle(Line2);
gr128->SetLineWidth(lineWidth);
gr128->SetLineColorAlpha(Color6,transparency);
auto *gr129 = new TGraph(intvl_bellwied,energy_bellwied,netLambda_Ssigma_bellwied_qp);
gr129->SetLineStyle(Line3);
gr129->SetLineWidth(lineWidth);
gr129->SetLineColorAlpha(Color7,transparency);
TMultiGraph *mg12 = new TMultiGraph();
mg12->Add(gr121,"pz"); // 0-5% centrality
mg12->Add(gr122,"||"); // 0-5% centrality err
mg12->Add(gr123,"pz"); // 70-80% centraliity
mg12->Add(gr124,"||"); // 70-80% centraliity err
mg12->Add(gr125,"l");
mg12->Add(gr126,"p");
mg12->Add(gr127,"p");
mg12->Add(gr128,"l");
// mg12->Add(gr129,"l"); // bellwied using alba (qp fit)
mg12->GetXaxis()->SetTitle("#sqrt{s_{NN}} (GeV)");
mg12->GetYaxis()->SetTitle("S#sigma");
// mg12->GetXaxis()->SetLimits(5,250);
mg12->GetYaxis()->SetRangeUser(-0.15,1.25);
mg12->GetYaxis()->SetNdivisions(6, 2, 0, kTRUE);
mg12->GetXaxis()->CenterTitle(true);
mg12->GetYaxis()->CenterTitle(true);
mg12->GetXaxis()->SetNoExponent();
mg12->GetXaxis()->SetLabelSize(textSize/pad12->GetHNDC());
mg12->GetXaxis()->SetTitleSize(textSize/pad12->GetHNDC());
mg12->GetXaxis()->SetTitleOffset(0.75);
mg12->GetYaxis()->SetLabelSize(textSize/pad12->GetHNDC());
mg12->GetYaxis()->SetTitleSize(textSize/pad12->GetHNDC());
mg12->GetYaxis()->SetTickLength(0.02);
mg12->GetYaxis()->SetTitleOffset(0.75);
mg12->Draw("a");
TLatex *txt12 = new TLatex(0.6,0.8,"#splitline{0.9 < p_{T} < 2 (GeV/c)}{#left|y#right| #leq 0.5}");
txt12->SetNDC();
txt12->SetTextSize(textSize/pad12->GetHNDC());
txt12->Draw();
TLegend *lgnd12 = new TLegend(0.12,0.17,0.4,0.43);
lgnd12->AddEntry(gr112,"STAR Au-Au 0 - 5%","p");
lgnd12->AddEntry(gr114,"STAR Au-Au 70 - 80%","p");
lgnd12->AddEntry(gr111,"HRG (Cleymans et al.)","l");
lgnd12->SetTextSize(textSize/pad12->GetHNDC());
lgnd12->SetBorderSize(0);
lgnd12->SetFillStyle(0);
lgnd12->Draw();
cnvs1->SaveAs("plots/cumulantRatios_netLambda.pdf");
}
void plotFitResults_Calib()
{
double temp;
int netLambda_intvl_exp, netProton_intvl_exp, netCharge_intvl_exp, netKaon_intvl_exp;
double *netLambda_energy_exp, *netProton_energy_exp, *netCharge_energy_exp, *netKaon_energy_exp;
double *netLambda_sigma2byM_exp_0to5, *netLambda_sigma2byM_exp_0to5_staterr, *netLambda_sigma2byM_exp_0to5_syserr;
double *netProton_sigma2byM_exp_0to5, *netProton_sigma2byM_exp_0to5_staterr, *netProton_sigma2byM_exp_0to5_syserr;
double *netCharge_sigma2byM_exp_0to5, *netCharge_sigma2byM_exp_0to5_staterr, *netCharge_sigma2byM_exp_0to5_syserr;
double *netKaon_sigma2byM_exp_0to5, *netKaon_sigma2byM_exp_0to5_staterr, *netKaon_sigma2byM_exp_0to5_syserr;
ifstream infile; string fname;
fname = "data/cumulantRatios_netLambda.dat";
infile.open(fname);
if (infile)
{
infile >> netLambda_intvl_exp;
netLambda_energy_exp = new double[netLambda_intvl_exp];
netLambda_sigma2byM_exp_0to5 = new double[netLambda_intvl_exp];
netLambda_sigma2byM_exp_0to5_syserr = new double[netLambda_intvl_exp]; netLambda_sigma2byM_exp_0to5_staterr = new double[netLambda_intvl_exp];
for (int i = 0; i < netLambda_intvl_exp; ++i)
{
infile >> netLambda_energy_exp[i] >> netLambda_sigma2byM_exp_0to5[i] >> netLambda_sigma2byM_exp_0to5_staterr[i] >> netLambda_sigma2byM_exp_0to5_syserr[i]
>> temp >> temp >> temp
>> temp >> temp >> temp
>> temp >> temp >> temp;
netLambda_sigma2byM_exp_0to5_staterr[i] = sqrt(pow(netLambda_sigma2byM_exp_0to5_staterr[i],2)+pow(netLambda_sigma2byM_exp_0to5_syserr[i],2));
}
}
else{
cout << "Unable to load " << fname << "...\n";
netLambda_intvl_exp = 0;
}
infile.close();
fname = "data/cumulantRatios_netProton.dat";
infile.open(fname);
if (infile)
{
infile >> netProton_intvl_exp;
netProton_intvl_exp--; // remove 7.7 GeV
infile >> temp >> temp >> temp >> temp
>> temp >> temp >> temp >> temp >> temp >> temp
>> temp >> temp >> temp
>> temp >> temp >> temp >> temp >> temp >> temp;
netProton_energy_exp = new double[netProton_intvl_exp];
netProton_sigma2byM_exp_0to5 = new double[netProton_intvl_exp];
netProton_sigma2byM_exp_0to5_syserr = new double[netProton_intvl_exp]; netProton_sigma2byM_exp_0to5_staterr = new double[netProton_intvl_exp];
for (int i = 0; i < netProton_intvl_exp; ++i)
{
infile >> netProton_energy_exp[i] >> netProton_sigma2byM_exp_0to5[i] >> netProton_sigma2byM_exp_0to5_staterr[i] >> netProton_sigma2byM_exp_0to5_syserr[i]
>> temp >> temp >> temp >> temp >> temp >> temp
>> temp >> temp >> temp
>> temp >> temp >> temp >> temp >> temp >> temp;
netProton_sigma2byM_exp_0to5_staterr[i] = sqrt(pow(netProton_sigma2byM_exp_0to5_staterr[i],2)+pow(netProton_sigma2byM_exp_0to5_syserr[i],2));
}
}
else{
cout << "Unable to load " << fname << "...\n";
netProton_intvl_exp = 0;
}
infile.close();
fname = "data/cumulantRatios_netKaon.dat";
infile.open(fname);
if (infile)
{
infile >> netKaon_intvl_exp;
netKaon_energy_exp = new double[netKaon_intvl_exp];
netKaon_sigma2byM_exp_0to5 = new double[netKaon_intvl_exp];
netKaon_sigma2byM_exp_0to5_syserr = new double[netKaon_intvl_exp]; netKaon_sigma2byM_exp_0to5_staterr = new double[netKaon_intvl_exp];
for (int i = 0; i < netKaon_intvl_exp; ++i)
{
infile >> netKaon_energy_exp[i] >> netKaon_sigma2byM_exp_0to5[i] >> netKaon_sigma2byM_exp_0to5_staterr[i] >> netKaon_sigma2byM_exp_0to5_syserr[i]
>> temp >> temp >> temp >> temp >> temp >> temp
>> temp >> temp >> temp
>> temp >> temp >> temp >> temp >> temp >> temp;
netKaon_sigma2byM_exp_0to5_staterr[i] = sqrt(pow(netKaon_sigma2byM_exp_0to5_staterr[i],2)+pow(netKaon_sigma2byM_exp_0to5_syserr[i],2));
}
}
else{
cout << "Unable to load " << fname << "...\n";
netKaon_intvl_exp = 0;
}
infile.close();
fname = "data/momentRatios_netCharge.dat";
infile.open(fname);
if (infile)
{
infile >> netCharge_intvl_exp;
netCharge_intvl_exp--; // remove 7.7 GeV
infile >> temp >> temp >> temp >> temp
>> temp >> temp >> temp >> temp >> temp >> temp
>> temp >> temp >> temp
>> temp >> temp >> temp >> temp >> temp >> temp;
netCharge_energy_exp = new double[netCharge_intvl_exp];
netCharge_sigma2byM_exp_0to5 = new double[netCharge_intvl_exp];
netCharge_sigma2byM_exp_0to5_syserr = new double[netCharge_intvl_exp]; netCharge_sigma2byM_exp_0to5_staterr = new double[netCharge_intvl_exp];
for (int i = 0; i < netCharge_intvl_exp; ++i)
{
infile >> netCharge_energy_exp[i] >> netCharge_sigma2byM_exp_0to5[i] >> netCharge_sigma2byM_exp_0to5_staterr[i] >> netCharge_sigma2byM_exp_0to5_syserr[i]
>> temp >> temp >> temp >> temp >> temp >> temp
>> temp >> temp >> temp
>> temp >> temp >> temp >> temp >> temp >> temp;
netCharge_sigma2byM_exp_0to5_staterr[i] = sqrt(pow(netCharge_sigma2byM_exp_0to5_staterr[i],2)+pow(netCharge_sigma2byM_exp_0to5_syserr[i],2));
}
}
else{
cout << "Unable to load " << fname << "...\n";
netCharge_intvl_exp = 0;
}
infile.close();
double T, mub, muq, mus;
int intvl_fo_PQ, intvl_fo_KQ, intvl_fo_KL, intvl_fo_PL;
double *energy_fo_PQ, *T_fo_PQ, *mub_fo_PQ, *muq_fo_PQ, *mus_fo_PQ;
double *netLambda_sigma2byM_fo_PQ, *netProton_sigma2byM_fo_PQ, *netCharge_sigma2byM_fo_PQ, *netKaon_sigma2byM_fo_PQ;
double *energy_fo_KQ, *T_fo_KQ, *mub_fo_KQ, *muq_fo_KQ, *mus_fo_KQ;
double *netLambda_sigma2byM_fo_KQ, *netProton_sigma2byM_fo_KQ, *netCharge_sigma2byM_fo_KQ, *netKaon_sigma2byM_fo_KQ;
double *energy_fo_KL, *T_fo_KL, *mub_fo_KL, *muq_fo_KL, *mus_fo_KL;
double *netLambda_sigma2byM_fo_KL, *netProton_sigma2byM_fo_KL, *netCharge_sigma2byM_fo_KL, *netKaon_sigma2byM_fo_KL;
double *energy_fo_PL, *T_fo_PL, *mub_fo_PL, *muq_fo_PL, *mus_fo_PL;
double *netLambda_sigma2byM_fo_PL, *netProton_sigma2byM_fo_PL, *netCharge_sigma2byM_fo_PL, *netKaon_sigma2byM_fo_PL;
DataFileReader infile_self;
STAR_netLambda_sigma2byM netLambda_sigma2byM_hrg;
STAR_netProton_sigma2byM netProton_sigma2byM_hrg;
STAR_netCharge_sigma2byM netCharge_sigma2byM_hrg;
STAR_netKaon_sigma2byM netKaon_sigma2byM_hrg;
infile_self.read("data/freezeout_netProtonCharge_fluc.dat");
if(infile_self.isDataLoaded())
{
intvl_fo_PQ = infile_self.nRows();
energy_fo_PQ = infile_self.getColumn(0);
T_fo_PQ = infile_self.getColumn(1);
mub_fo_PQ = infile_self.getColumn(3);
muq_fo_PQ = infile_self.getColumn(5);
mus_fo_PQ = infile_self.getColumn(7);
infile_self.close();
netLambda_sigma2byM_fo_PQ = new double[intvl_fo_PQ];
netProton_sigma2byM_fo_PQ = new double[intvl_fo_PQ];
netCharge_sigma2byM_fo_PQ = new double[intvl_fo_PQ];
netKaon_sigma2byM_fo_PQ = new double[intvl_fo_PQ];
for (int i = 0; i < intvl_fo_PQ; ++i)
{
T = T_fo_PQ[i];
mub = mub_fo_PQ[i];
muq = muq_fo_PQ[i];
mus = mus_fo_PQ[i];
netLambda_sigma2byM_fo_PQ[i] = netLambda_sigma2byM_hrg.getValue(T,mub,muq,mus);
netProton_sigma2byM_fo_PQ[i] = netProton_sigma2byM_hrg.getValue(T,mub,muq,mus);
netCharge_sigma2byM_fo_PQ[i] = netCharge_sigma2byM_hrg.getValue(T,mub,muq,mus);
netKaon_sigma2byM_fo_PQ[i] = netKaon_sigma2byM_hrg.getValue(T,mub,muq,mus);
}
}
infile_self.read("data/freezeout_netKaonCharge_fluc.dat");
if(infile_self.isDataLoaded())
{
intvl_fo_KQ = infile_self.nRows();
energy_fo_KQ = infile_self.getColumn(0);
T_fo_KQ = infile_self.getColumn(1);
mub_fo_KQ = infile_self.getColumn(3);
muq_fo_KQ = infile_self.getColumn(5);
mus_fo_KQ = infile_self.getColumn(7);
infile_self.close();
netLambda_sigma2byM_fo_KQ = new double[intvl_fo_KQ];
netProton_sigma2byM_fo_KQ = new double[intvl_fo_KQ];
netCharge_sigma2byM_fo_KQ = new double[intvl_fo_KQ];
netKaon_sigma2byM_fo_KQ = new double[intvl_fo_KQ];
for (int i = 0; i < intvl_fo_KQ; ++i)
{
T = T_fo_KQ[i];
mub = mub_fo_KQ[i];
muq = muq_fo_KQ[i];
mus = mus_fo_KQ[i];
netLambda_sigma2byM_fo_KQ[i] = netLambda_sigma2byM_hrg.getValue(T,mub,muq,mus);
netProton_sigma2byM_fo_KQ[i] = netProton_sigma2byM_hrg.getValue(T,mub,muq,mus);
netCharge_sigma2byM_fo_KQ[i] = netCharge_sigma2byM_hrg.getValue(T,mub,muq,mus);
netKaon_sigma2byM_fo_KQ[i] = netKaon_sigma2byM_hrg.getValue(T,mub,muq,mus);
}
}
infile_self.read("data/freezeout_netKaonLambda_fluc.dat");
if(infile_self.isDataLoaded())
{
intvl_fo_KL = infile_self.nRows();
energy_fo_KL = infile_self.getColumn(0);
T_fo_KL = infile_self.getColumn(1);
mub_fo_KL = infile_self.getColumn(3);
muq_fo_KL = infile_self.getColumn(5);
mus_fo_KL = infile_self.getColumn(7);
infile_self.close();
netLambda_sigma2byM_fo_KL = new double[intvl_fo_KL];
netProton_sigma2byM_fo_KL = new double[intvl_fo_KL];
netCharge_sigma2byM_fo_KL = new double[intvl_fo_KL];
netKaon_sigma2byM_fo_KL = new double[intvl_fo_KL];
for (int i = 0; i < intvl_fo_KL; ++i)
{
T = T_fo_KL[i];
mub = mub_fo_KL[i];
muq = muq_fo_KL[i];
mus = mus_fo_KL[i];
netLambda_sigma2byM_fo_KL[i] = netLambda_sigma2byM_hrg.getValue(T,mub,muq,mus);
netProton_sigma2byM_fo_KL[i] = netProton_sigma2byM_hrg.getValue(T,mub,muq,mus);
netCharge_sigma2byM_fo_KL[i] = netCharge_sigma2byM_hrg.getValue(T,mub,muq,mus);
netKaon_sigma2byM_fo_KL[i] = netKaon_sigma2byM_hrg.getValue(T,mub,muq,mus);
}
}