void DRateQuasiFree()
{
cout<<"============= Quasi Free =================== "<<endl;
Double_t TMax=0.450;
Double_t TMin=0.180;
Double_t TStep=0.001;
Int_t NNT = (TMax-TMin)/TStep;
cout<<NNT<<endl;
Double_t TT[1000];
Double_t SigmaQuasiT[1000];
Double_t SigmaGluonDissVacT[1000];
Double_t SigmaQuasiFreeGluonT[1000];
Double_t aMuT[1000];
Double_t EDJPsi[1000];
Double_t EDUpsilon[1000];
Double_t Temp=0;
cout<<" T: "<<" Mu "<<" EDiss J "<<" EDiss Y "<<endl;
//NNT =1;
for(int i=0;i<NNT;i++)
{
Temp=TMin+(TStep*i);
TT[i]=Temp;
aMuT[i]= MuT(Temp);
EDJPsi[i]=EDiss(1,Temp);
EDUpsilon[i]=EDiss(2,Temp);
SigmaQuasiT[i]=SigmaQuasiQuark(0.0,Temp);
SigmaGluonDissVacT[i]= SigmaQuasiGluon(1,0.0, Temp);
SigmaQuasiFreeGluonT[i]= SigmaQuasiGluon(2,0.0, Temp);
cout<<TT[i]<<" "<<aMuT[i]<<" "<<EDJPsi[i]<<" "<<EDUpsilon[i]<<endl;
}
TGraph *GrfSigmaQ = new TGraph(NNT,TT,SigmaQuasiT);
GrfSigmaQ->SetLineWidth(2);
GrfSigmaQ->SetLineColor(2);
GrfSigmaQ->GetXaxis()->SetTitle("T(MeV/c)");
GrfSigmaQ->GetYaxis()->SetTitle("#Gamma (MeV)");
new TCanvas;
gPad->SetTicks(1);
GrfSigmaQ->Draw("APL");
TGraph *GrfSigmaGluonT = new TGraph(NNT,TT,SigmaGluonDissVacT);
GrfSigmaGluonT->SetLineWidth(2);
GrfSigmaGluonT->SetLineColor(2);
GrfSigmaGluonT->GetXaxis()->SetTitle("T(MeV/c)");
GrfSigmaGluonT->GetYaxis()->SetTitle("#Gamma_{J/#psig} (MeV)");
GrfSigmaGluonT->GetXaxis()->SetRangeUser(0.15,0.45);
GrfSigmaGluonT->GetYaxis()->SetRangeUser(1.0,1000.0);
TGraph *GrfSigmaQuasiFreeGluonT = new TGraph(NNT,TT,SigmaQuasiFreeGluonT);
GrfSigmaQuasiFreeGluonT->SetLineWidth(2);
GrfSigmaQuasiFreeGluonT->SetLineColor(4);
new TCanvas;
gPad->SetTicks(1);
gPad->SetLogy(1);
GrfSigmaGluonT->Draw("APL");
GrfSigmaQuasiFreeGluonT->Draw("PLsame");
return;
TGraph *GrfMuT = new TGraph(NNT,TT,aMuT);
GrfMuT->SetLineWidth(2);
GrfMuT->SetLineColor(4);
GrfMuT->GetXaxis()->SetTitle("T(MeV/c)");
GrfMuT->GetYaxis()->SetTitle("#mu_{D}(GeV)");
new TCanvas;
gPad->SetTicks(1);
GrfMuT->Draw("APL");
TGraph *GrfEDUpsilon = new TGraph(NNT,TT,EDUpsilon);
GrfEDUpsilon->SetLineWidth(2);
GrfEDUpsilon->SetLineColor(2);
GrfEDUpsilon->GetXaxis()->SetTitle("T(MeV/c)");
GrfEDUpsilon->GetYaxis()->SetTitle("E_{dis}(GeV)");
GrfEDUpsilon->GetYaxis()->SetRangeUser(0.0,1.2);
TGraph *GrfEDJPsi = new TGraph(NNT,TT,EDJPsi);
GrfEDJPsi->SetLineWidth(2);
GrfEDJPsi->SetLineColor(4);
GrfEDJPsi->GetXaxis()->SetTitle("T(MeV/c)");
GrfEDJPsi->GetYaxis()->SetTitle("E_{dis}(GeV)");
new TCanvas;
gPad->SetTicks(1);
GrfEDUpsilon->Draw("APL");
GrfEDJPsi->Draw("PLsame");
cout<<" ========================= pT dependance ============================== "<<endl;
Double_t PMax=10.0;
Double_t PMin=0.1;
Double_t PStep=0.1;
Int_t NNP= (PMax-PMin)/PStep;
cout<<NNP<<endl;
Double_t PP[1000];
Double_t SigmaQuasiQuarkP1[1000];
Double_t SigmaQuasiQuarkP2[1000];
Double_t SigmaQuasiQuarkP3[1000];
Double_t SigmaQuasiGluonP1[1000];
Double_t SigmaQuasiGluonP2[1000];
Double_t SigmaQuasiGluonP3[1000];
Double_t P=0;
//NNP=1;
for(int i=0;i<NNP;i++)
{
P=PMin+(PStep*i);
PP[i]=P;
SigmaQuasiQuarkP1[i]=SigmaQuasiQuark(P,0.180);
SigmaQuasiQuarkP2[i]=SigmaQuasiQuark(P,0.250);
SigmaQuasiQuarkP3[i]=SigmaQuasiQuark(P,0.375);
SigmaQuasiGluonP1[i]=SigmaQuasiGluon(2,P,0.180);
SigmaQuasiGluonP2[i]=SigmaQuasiGluon(2,P,0.250);
SigmaQuasiGluonP3[i]=SigmaQuasiGluon(2,P,0.375);
cout<<PP[i]<<" "<<SigmaQuasiQuarkP1[i]<<" "<<SigmaQuasiGluonP1[i]<<endl;
}
TGraph *GrfSigmaQP1 = new TGraph(NNP,PP,SigmaQuasiQuarkP1);
GrfSigmaQP1->SetLineWidth(2);
GrfSigmaQP1->SetLineColor(1);
GrfSigmaQP1->GetXaxis()->SetTitle("p_{J/#psi}(GeV)");
GrfSigmaQP1->GetYaxis()->SetTitle("#Gamma_{J/#psi q} (MeV)");
GrfSigmaQP1->GetYaxis()->SetRangeUser(0.0,400.0);
TGraph *GrfSigmaQP2 = new TGraph(NNP,PP,SigmaQuasiQuarkP2);
GrfSigmaQP2->SetLineWidth(2);
GrfSigmaQP2->SetLineColor(2);
TGraph *GrfSigmaQP3 = new TGraph(NNP,PP,SigmaQuasiQuarkP3);
GrfSigmaQP3->SetLineWidth(2);
GrfSigmaQP3->SetLineColor(3);
new TCanvas;
gPad->SetTicks(1);
GrfSigmaQP1->Draw("AL");
GrfSigmaQP2->Draw("Lsame");
GrfSigmaQP3->Draw("Lsame");
TGraph *GrfSigmaGP1 = new TGraph(NNP,PP,SigmaQuasiGluonP1);
GrfSigmaGP1->SetLineWidth(2);
GrfSigmaGP1->SetLineColor(1);
GrfSigmaGP1->GetXaxis()->SetTitle("p_{J/#psi}(GeV)");
GrfSigmaGP1->GetYaxis()->SetTitle("#Gamma_{J/#psi g} (MeV)");
GrfSigmaGP1->GetYaxis()->SetRangeUser(0.0,400.0);
TGraph *GrfSigmaGP2 = new TGraph(NNP,PP,SigmaQuasiGluonP2);
GrfSigmaGP2->SetLineWidth(2);
GrfSigmaGP2->SetLineColor(2);
TGraph *GrfSigmaGP3 = new TGraph(NNP,PP,SigmaQuasiGluonP3);
GrfSigmaGP3->SetLineWidth(2);
GrfSigmaGP3->SetLineColor(3);
new TCanvas;
gPad->SetTicks(1);
GrfSigmaGP1->Draw("AL");
GrfSigmaGP2->Draw("Lsame");
GrfSigmaGP3->Draw("Lsame");
}
void compareBestFit(const char* filename="test.root", const char* channelstr="boost,vbf,vhtt,cmb+", const char* type="sm", double mass=125, double minimum=-1., double maximum=4.5, const char* label="Preliminary, #sqrt{s}=7-8 TeV, L = 24.3 fb^{-1}, H #rightarrow #tau #tau")
{
SetStyle();
std::map<std::string, unsigned int> colors;
colors["0jet" ] = kBlue;
colors["2jet" ] = kMagenta;
colors["vbf" ] = kRed;
colors["boost" ] = kGreen;
colors["btag" ] = kRed;
colors["nobtag" ] = kBlue;
colors["em" ] = kBlue;
colors["et" ] = kRed;
colors["mt" ] = kGreen;
colors["mm" ] = kMagenta;
colors["tt" ] = kOrange;
colors["vhtt" ] = kMagenta+2;
colors["cmb" ] = kBlack;
colors["cmb+" ] = kGray+2;
colors["htt" ] = kBlack;
colors["ggH" ] = kRed;
colors["bbH" ] = kBlue;
colors["mvis" ] = kBlue+2;
colors["test-0" ] = kRed+2;
colors["test-1" ] = kGreen+2;
colors["test-2" ] = kGreen;
colors["test-3" ] = kRed+2;
colors["test-4" ] = kBlue;
colors["test-5" ] = kViolet-6;
colors["HIG-11-020" ] = kBlue+2;
colors["HIG-11-029" ] = kRed+2;
colors["HIG-12-018" ] = kBlue;
colors["HIG-12-032" ] = kRed+2;
colors["HIG-12-043" ] = kBlack;
colors["HIG-12-050" ] = kBlack;
std::cout << " *******************************************************************************************************\n"
<< " * Usage : root -l \n"
<< " * .x macros/compareBestFit.C+(file, chn, type) \n"
<< " * \n"
<< " * Arguments : + file const char* full path to the input file \n"
<< " * + chn const char* list of channels; choose between: 'cmb', 'htt', 'em', \n"
<< " * 'et', 'mt', 'mm', 'vhtt', 'hgg', 'hww', 'ggH', \n"
<< " * 'bbH', 'nomix[-200, +200]', 'mhmax[-400, -200, +200]' \n"
<< " * 'mhmax[+400, +600, +800]', 'test-0...5', 'saeff', 'gluph' \n"
<< " * The list should be comma separated and may contain \n"
<< " * whitespaces \n"
<< " * + type const char* type of plot; choose between 'sm' and 'mssm' \n"
<< " * \n"
<< " * + mass double Higgs mass for which the plot should be performed \n"
<< " * \n"
<< " * + minimum double Minimum value for the x-Axis (best fit value) \n"
<< " * \n"
<< " * + maximum double Maximum value for the x-Axis (best fit value) \n"
<< " * \n"
<< " *******************************************************************************************************\n";
/// open input file
TFile* inputFile = new TFile(filename); if(inputFile->IsZombie()){ std::cout << "ERROR:: file: " << filename << " does not exist.\n"; }
/// prepare input parameters
std::vector<std::string> channels;
string2Vector(cleanupWhitespaces(channelstr), channels);
/// prepare histograms
std::vector<TGraph*> hexp;
std::vector<TGraph*> hband;
for(unsigned i=0; i<channels.size(); ++i){
hexp.push_back(get<TGraph>(inputFile, std::string(channels[i]).append("/expected").c_str()));
hband.push_back(get<TGraph>(inputFile, std::string(channels[i]).append("/innerBand").c_str()));
}
int massid = 0;
for(int i0 = 0; i0 < hexp[hexp.size()-1]->GetN(); i0++) {
double lX = 0; double lY = 0;
hexp[hexp.size()-1]->GetPoint(i0, lX, lY);
if(lX==mass) {massid = i0; break;}
}
/// do the drawing
TCanvas* canv1 = new TCanvas("canv1", "Best Fit Comparison", 600, 600);
canv1->cd();
canv1->SetGridx(0);
canv1->SetGridy(0);
TLine* SM = new TLine(1, 0, 1, hexp.size());
TLine* ZERO = new TLine(0, 0, 0, hexp.size());
double *lBestFitX = new double[4];
double *lBestFitY = new double[4];
lBestFitX[0] = hexp[hexp.size()-1]->Eval(mass) - hband[hband.size()-1]->GetErrorYlow(massid);
lBestFitX[1] = hexp[hexp.size()-1]->Eval(mass) + hband[hband.size()-1]->GetErrorYhigh(massid);
lBestFitX[3] = hexp[hexp.size()-1]->Eval(mass) - hband[hband.size()-1]->GetErrorYlow(massid);
lBestFitX[2] = hexp[hexp.size()-1]->Eval(mass) + hband[hband.size()-1]->GetErrorYhigh(massid);
lBestFitY[0] = hexp.size();
lBestFitY[1] = hexp.size();
lBestFitY[2] = 0;
lBestFitY[3] = 0;
TGraph* BAND = new TGraph(4,lBestFitX,lBestFitY); BAND->SetFillColor(kYellow);
TLine * BEST = new TLine (hexp[hexp.size()-1]->Eval(mass),0,hexp[hexp.size()-1]->Eval(mass),hexp.size()); BEST->SetLineStyle(kDashed); BEST->SetLineColor(kRed);
bool firstPlot=true;
for(unsigned int i=0; i<hexp.size(); ++i){
double value[1] = {hexp[i]->Eval(mass)};
double position[1] = {hexp.size()-i-0.5};
double x;
double y;
double el=0;
double eh=0;
int k = hexp[i]->GetN();
for(int l=0; l<k; l++){
hexp[i]->GetPoint(l, x, y);
if(x==mass){
el=hband[i]->GetErrorYlow(l);
eh=hband[i]->GetErrorYhigh(l);
break;
}
}
double elow[1] = {el};
double ehigh[1] = {eh};
double help1[1] = {0.0};
double help2[1] = {0.0};
TGraphAsymmErrors *gr = new TGraphAsymmErrors(1, value, position, elow, ehigh, help1, help2);
if(firstPlot){
if(std::string(type) == std::string("mssm")){
gr->SetMaximum(hexp.size());
gr->SetMinimum(0);
}
else{
gr->SetMaximum(hexp.size());
gr->SetMinimum(0);
}
// gr->GetYaxis()->Set(hexp.size(), 0, hexp.size());
// gr = new TGraphAsymmErrors(1, value, position, elow, ehigh, help1, help2);
// std::cout << gr->GetYaxis()->GetNbins() << std::endl;
// format x-axis
std::string x_title;
if(std::string(type).find("mssm")!=std::string::npos){
x_title = std::string("best fit for #sigma(#phi#rightarrow#tau#tau)");
}
else{
x_title = std::string("best fit for #sigma/#sigma_{SM}");
}
gr->GetXaxis()->SetTitle(x_title.c_str());
gr->GetXaxis()->SetLabelFont(62);
gr->GetXaxis()->SetTitleFont(62);
gr->GetXaxis()->SetTitleColor(1);
gr->GetXaxis()->SetTitleOffset(1.05);
gr->GetXaxis()->SetLimits(minimum, maximum);
BAND->GetXaxis()->SetTitle(x_title.c_str());
BAND->GetXaxis()->SetLabelFont(62);
BAND->GetXaxis()->SetTitleFont(62);
BAND->GetXaxis()->SetTitleColor(1);
BAND->GetXaxis()->SetTitleOffset(1.05);
BAND->GetXaxis()->SetLimits(minimum, maximum);
// format y-axis
//BAND->GetYaxis()->Set(hexp.size(), 0, hexp.size());
gr ->GetYaxis()->Set(hexp.size(), 0, hexp.size());
//std::cout<<gr->GetYaxis()->GetBinCenter(hexp.size()-i)<<std::endl;
//BAND->GetYaxis()->SetBinLabel(hexp.size()-1, legendEntry(channels[hexp.size()-1]).c_str());
for(unsigned int j=0; j<hexp.size(); ++j){
gr ->GetYaxis()->SetBinLabel(hexp.size()-j, legendEntry(channels[j]).c_str());
}
gr->GetYaxis()->SetTickLength(0);
gr->GetYaxis()->SetLabelFont(62);
gr->GetYaxis()->SetTitleFont(62);
gr->GetYaxis()->SetLabelSize(0.07);
gr->GetYaxis()->SetTitle("");
gr->GetYaxis()->SetLabelFont(62);
gr->GetYaxis()->SetTitleOffset(1.05);
gr->GetYaxis()->SetLabelSize(0.03);
gr->GetYaxis()->SetLabelOffset(-0.32);
BAND->GetYaxis()->SetLabelFont(62);
BAND->GetYaxis()->SetTitleFont(62);
BAND->GetYaxis()->SetLabelSize(0.07);
BAND->GetYaxis()->SetTitle("");
BAND->GetYaxis()->SetLabelFont(62);
BAND->GetYaxis()->SetTitleOffset(1.05);
BAND->GetYaxis()->SetLabelSize(0.03);
BAND->GetYaxis()->SetLabelOffset(-0.32);
}
BAND->GetYaxis()->SetLabelSize(0.07);
BAND->SetTitle("");
gr ->GetYaxis()->SetLabelSize(0.07);
gr->SetTitle("");
gr->SetLineStyle( 1.);
gr->SetLineWidth( 2.);
//gr->SetLineColor(colorzxs.find(channels[i])->second);
gr->SetLineColor(kBlack);
gr->SetMarkerStyle(kFullCircle);
gr->SetMarkerSize(MARKER_SIZE);
//gr->SetMarkerColor(colors.find(channels[i])->second);
gr->SetMarkerColor(kBlack);
cout << "===> " << gr->GetErrorYhigh(0) << endl;
//cout << "==> "<< BAND->GetYaxis()->GetMaximum() << endl;
if(firstPlot) gr->Draw("AP");
if(firstPlot) {
BAND->Draw("Fsame");
BEST->Draw("l");
TLine *lLine = new TLine(minimum,1.0,maximum,1.0); lLine->SetLineWidth(3); lLine->SetLineColor(kBlue+2);
lLine->Draw();
SM->SetLineWidth(3);
SM->SetLineColor(kGreen+3);
if(std::string(type).find("mssm")==std::string::npos) SM->Draw("same");
}
gr->Draw(firstPlot ? "Psame" : "Psame");
//gr->Draw(firstPlot ? "AL" : "Lsame");
firstPlot=false;
}
ZERO->SetLineWidth(3);
ZERO->SetLineColor(kBlue);
ZERO->SetLineStyle(11);
//ZERO->Draw("same");
//TPaveText *pt = new TPaveText(2*(maximum+minimum)/3,hexp.size()-0.3,maximum,hexp.size()-0.02);
TPaveText *pt = new TPaveText(0.76, 0.88, 1.0, 1.0, "NDC");
if(std::string(type).find("mssm")!=std::string::npos) pt->AddText(TString::Format("m_{A} = %0.0f GeV" , mass));
else pt->AddText(TString::Format("m_{H} = %0.0f GeV" , mass));
pt->SetBorderSize( 0 );
pt->SetFillStyle( 0 );
pt->SetTextAlign( 12 );
pt->SetTextSize ( 0.03 );
pt->SetTextColor( 1 );
pt->SetTextFont ( 62 );
pt->Draw("same");
canv1->RedrawAxis();
CMSPrelim(label, "", 0.15, 0.835);
canv1->Print(std::string("BestFit").append(std::string(type).find("mssm")!=std::string::npos ? "_mssm.png" : "_sm.png").c_str());
canv1->Print(std::string("BestFit").append(std::string(type).find("mssm")!=std::string::npos ? "_mssm.pdf" : "_sm.pdf").c_str());
canv1->Print(std::string("BestFit").append(std::string(type).find("mssm")!=std::string::npos ? "_mssm.pdf" : "_sm.eps").c_str());
return;
}
int SPICE_step3_offset_gain_final_calfile() {
// Declaring arrays for the TGraphs
vector <double> Bi207 = {481.6935,553.8372,565.8473,975.651,1047.795,1059.805};
vector<float> experimental_Bi207;
vector <float> c;
vector<float> d;
//double energy_152eu[7] = {121.782, 244.697, 344.279, 443.965, 778.904, 964.079, 1408.006}; //energies of the gamma-rays associated with Eu-152, retrieved from the Idaho National Laboratory Catalogue
//double charge_152eu[448];
vector <double> channel_centroids;
// Declaring fit parameter variables
double a, b;
ifstream fin("energycalonly_centroids.txt");
ofstream outfile("offset_gain_energycalonly.txt");
/* file contains calculated charges from the centroids and energy coefficients. After every six lines is a new core number. Also note that all of the DIV/0 errors were replaced with zeros in this file */
cout << fin <<endl;
int fSize = Bi207.size();
double inValue;
while (true) {
channel_centroids.clear();
for (int i=0; i<fSize; i++) {
fin >> inValue;
channel_centroids.push_back(inValue);
}
if (fin.eof()) break;
// Here will be plotting
TGraph *gr = new TGraph(fSize, &channel_centroids[0], &Bi207[0]);
gr->SetMarkerStyle(8); // makes points bigger
gr->Draw("ap");
TF1 *f1 = new TF1("f1", "pol1", 1000, 3000 );
gr->Fit(f1, "RQ");
a = f1->GetParameter(0);
b = f1->GetParameter(1);
c.push_back(a);
d.push_back(b);
//Writing parameters to text file
outfile << a << " " << b << endl;
}
//string datafile="spice_check.root";
string calfile="SPICE_blank_calfile.txt";
//string path="singles/SPICE_energy_";
//Check if cal exists
ifstream calin(calfile.c_str());
if(!calin.is_open())return 0;
//Check if data file exists
ofstream calout("SPICE_energycalonly.cal");
unsigned int fSegment=0;
string line;
//for (int i=0; i<fSegment; i++) {
while(getline(calin,line)){
if(line.find("EngCoeff")<=1 && line.size()>1 && fSegment<120){
stringstream parsestream;
parsestream<<line;
string first;
parsestream>>first;
string buf;
buf.assign(first,7,2);
calout<<" EngCoeff: "<< " "<< c[fSegment]<< " "<< d[fSegment] <<endl;//fOffset[fSegment]<<" "<<fGain[fSegment]<<endl;
}else{
if(line.find("SPI00XN")<=1&&line.size()>1){
void Riemann(){
double xg = 0, yg = 0, zg = 0, p2g = 0;
double N = 0;
TMatrix M(1,3);
TMatrix Mg(1,3);
TMatrix A(3,3);
double u0 = 800, v0 = 500;
double rho0 = 1000;
for (int j = 1; j< 100; j++){
double xP = cos(j*1.0)*rho0+u0;
double yP = sin(j*1.0)*rho0+v0;
double R2 = xP*xP+yP*yP;
double R = sqrt(R2);
double p = (1+R2);
double x = xP/p;
double y = yP/p;
// double x = xP/p;
// double y = yP/p;
double z = R2/p;
cout << "x = " << x << " y = " << y << " z = " << z << endl;
// p = sqrt(p);
p = 1;
Mg[0][0] += p*p*x;
Mg[0][1] += p*p*y;
Mg[0][2] += p*p*z;
p2g += p*p;
N ++;
}
Mg *= 1./p2g;
/*
for(int i = 0; i < 3; i++){
cout << " " << Mg[0][i];
cout << " is Mg "<<endl;
}
for(int i = 0; i < 3; i++){
cout << " " << M[0][i];
cout << " is M "<<endl;
}
*/
TGraph* g = new TGraph(100);
for (int j = 1; j< 100; j++){
double xP = cos(j*1.0)*rho0+u0;
double yP = sin(j*1.0)*rho0+v0;
g->SetPoint(j-1, xP, yP);
cout << "xP = " << xP << " yP = " << yP << endl;
double R2 = xP*xP+yP*yP;
double R = sqrt(R2);
double p = (1+R2);
double x = xP/p;
double y = yP/p;
// double x = xP/p;
// double y = yP/p;
double z = R2/p;
cout << "x = " << x << " y = " << y << " z = " << z << " mG = " << Mg[0][2] << endl;
TMatrix K(1,3);
K[0][0] = (x-Mg[0][0]);
K[0][1] = (y-Mg[0][1]);
K[0][2] = (z-Mg[0][2]);
TMatrix ntR = K;
TMatrix tR = K.Transpose(K);
TMatrix F = tR*ntR;
for(int m = 0; m < 3; m++){
for(int l = 0; l < 3; l++)
cout << " " << F[m][l];
cout << " is F"<<endl;
}
// p = sqrt(p);
p = 1;
A += p*p*F;
}
TH1D* PLOTTER = new TH1D("", "", 1, -3, 3);
PLOTTER->SetMaximum(3);
PLOTTER->SetMinimum(-3);
PLOTTER->Draw();
// g->SetMarkerSize(1);
g->SetMarkerStyle(20);
g->Draw();
/*
for (int i = 1; i< hFIT->GetXaxis()->GetNbins()+1; i++){
double xbin = hFIT->GetXaxis()->GetBinCenter(i);
for (int j = 1; j< hFIT->GetYaxis()->GetNbins()+1; j++){
double ybin = hFIT->GetYaxis()->GetBinCenter(j);
double R2 = ybin*ybin + xbin*xbin;
double R = sqrt(R2);
double p = (1+R2);
if (R < 2.5 || R > 3.3 ) continue;
double cosPhi = xbin/R;
double sinPhi = ybin/R;
double x = R*R*cosPhi*cosPhi/p;
double y = R*R*sinPhi*sinPhi/p;
double z = R2/p;
M[0][0] += p*x*hFIT->GetBinContent(i, j);
M[0][1] += p*y*hFIT->GetBinContent(i, j);
M[0][2] += p*z*hFIT->GetBinContent(i, j);
Mg[0][0] += p*p*x*hFIT->GetBinContent(i, j);
Mg[0][1] += p*p*y*hFIT->GetBinContent(i, j);
Mg[0][2] += p*p*z*hFIT->GetBinContent(i, j);
p2g += p*p*hFIT->GetBinContent(i, j);
N += hFIT->GetBinContent(i, j);
}
}
Mg *= 1./p2g;
for (int i = 1; i< hFIT->GetXaxis()->GetNbins()+1; i++){
double xbin = hFIT->GetXaxis()->GetBinCenter(i);
for (int j = 1; j< hFIT->GetYaxis()->GetNbins()+1; j++){
double ybin = hFIT->GetYaxis()->GetBinCenter(j);
double R2 = ybin*ybin + xbin*xbin;
double R = sqrt(R2);
double p = (1+R2);
if (R < 2.5 || R > 3.3 ) continue;
M -= p*Mg;
}
}
*/
cout << "N = " << N << endl;
for(int i = 0; i < 3; i++){
cout << " " << M[0][i];
cout << ""<<endl;
}
A *= (1.0/N);
for(int i = 0; i < 3; i++){
for(int j = 0; j < 3; j++)
cout << " " << A[i][j];
cout << ""<<endl;
}
TVectorF eigVal;
TMatrix Egenv = A.EigenVectors(eigVal);
for(int i = 0; i < 3; i++){
for(int j = 0; j < 3; j++)
cout << " " << Egenv[i][j];
cout << " is Eigenv"<<endl;
}
for(int i = 0; i < 3; i++){
cout << " " << eigVal[i];
}
cout << "" << endl;
TMatrix n(3,1);
n[0][0] = Egenv[0][2];
n[1][0] = Egenv[1][2];
n[2][0] = Egenv[2][2];
TMatrix zero = A*n - eigVal[2]*n;
for(int i = 0; i < 3; i++){
cout << " " << n[i][0];
cout << " is n "<<endl;
}
for(int i = 0; i < 3; i++){
cout << " " << zero[i][0];
cout << " is An - lbda*n "<<endl;
}
cout << "Norm = " << n[0][0]*n[0][0] + n[1][0]*n[1][0] + n[2][0]*n[2][0] << endl;
for(int i = 0; i < 3; i++){
cout << " " << Mg[0][i];
}
cout << " is Mg" << endl;
double xg = Mg[0][0], yg = Mg[0][1], zg = Mg[0][2];
double n0 = n[0][0], n1 = n[1][0], n2 = n[2][0];
double c = -1*( xg*n0 + yg*n1 + zg*n2);
cout << "c = " << c << endl;
double x0 = -1.0/2 * n0/(c+n2);
double y0 = -1* n[1][0]/(2*(c+n[2][0]));
double R02 = ( n[0][0]*n[0][0] + n[1][0]*n[1][0] - 4*c*(c+n[2][0]) )/(4*(c+n[2][0]) * (c+n[2][0]));
cout << "x0 = " << x0 << " y0 = " << y0 << " r0 = " << sqrt(R02) << endl;
/*
for (int j = 1; j< 100; j++){
double xP = cos(j*1.0)*rho0+u0;
double yP = sin(j*1.0)*rho0+v0;
g->SetPoint(j-1, xP, yP);
cout << "xP = " << xP << " yP = " << yP << endl;
cout << "rho0 = " << sqrt((xP-u0)*(xP-u0) + (yP-v0)*(yP-v0)) << endl;
double R2 = xP*xP+yP*yP;
double R = sqrt(R2);
double p = (1+R2);
double x = xP/p;
double y = yP/p;
// double x = xP/p;
// double y = yP/p;
double z = R2/p;
cout << "x = " << x << " y = " << y << " z = " << z << " mG = " << Mg[0][2] << endl;
cout << " 0 = " << n0*x + n1*y + n2*z + c << endl;
}
*/
}
void PlotHARPHisto( std::string beam, std::string target, std::string energy,
std::string secondary,
std::string region,
int ibin )
{
// ReadHARPData( beam, target, energy, secondary, region );
double ymin = 10000.; // something big... don't know if I can use FLT_MAX
double ymax = -1. ;
for ( int i=0; i<NPoints[ibin]; i++ )
{
if ( (Y[ibin][i]+EY[ibin][i]) > ymax ) ymax = Y[ibin][i]+EY[ibin][i];
if ( (Y[ibin][i]-EY[ibin][i]) < ymin && (Y[ibin][i]-EY[ibin][i]) > 0. ) ymin = (Y[ibin][i]-EY[ibin][i]);
}
TH1F* hi[NModels];
std::string YTitle;
for ( int m=0; m<NModels; m++ )
{
std::string histofile = "";
// histofile = "./harp-histo/";
histofile = "./harp-histo-no-res-decays/";
// histofile = "../t23-bld/harp-histo/";
// std::string histofile = "./harp-histo/" + beam + target + energy + "GeV" + ModelName[m] + ".root";
histofile += ( beam + target + energy + "GeV" + ModelName[m] + ".root" );
// std::cout << " histofile = " << histofile << std::endl;
TFile* f = new TFile( histofile.c_str() );
char buf[5];
sprintf( buf, "%i", ibin );
std::string histoname = secondary + "_" + region + "_";
histoname.append( buf );
hi[m] = (TH1F*)f->Get( histoname.c_str() );
hi[m]->SetStats(0);
hi[m]->SetLineColor(ColorModel[m]);
hi[m]->SetLineWidth(2);
int nx = hi[m]->GetNbinsX();
for (int k=1; k <= nx; k++)
{
double yy = hi[m]->GetBinContent(k);
if ( yy > ymax ) ymax = yy;
if ( yy < ymin && yy > 0. ) ymin = yy;
}
if ( m == 0 )
{
hi[m]->Draw();
hi[m]->GetXaxis()->SetTitle("momentum (GeV/c)");
//hi[m]->GetYaxis()->SetTitle( YTitle.c_str() );
// hi[m]->GetYaxis()->SetTitle("#frac{d^{2}#sigma}{dpd#Theta} [mb/(GeV/c/rad)]");
hi[m]->GetYaxis()->SetTitle("d^{2}#sigma / dpd#Theta [mb/(GeV/c/rad)]");
hi[m]->GetYaxis()->SetTitleOffset(1.5);
}
else hi[m]->Draw("same");
}
TLegend* leg = new TLegend(0.6, 0.70, 0.9, 0.9);
for ( int m=0; m<NModels; m++ )
{
hi[m]->GetYaxis()->SetRangeUser(ymin,ymax*1.1); // hi[m]->SetTitle("");
leg->AddEntry( hi[m], ModelName[m].c_str(), "L" );
}
float* X = new float[NPoints[ibin]];
for ( int i=0; i<NPoints[ibin]; i++ )
{
X[i] = 0.5 * (XMin[ibin][i]+XMax[ibin][i]);
//std::cout << "X[" << i << "] = " << X[i] << std::endl;
//std::cout << "Y[" << i << "] = " << Y[0][i] << std::endl;
}
TGraph* gr = new TGraphErrors( NPoints[ibin], X, Y[ibin], 0, EY[ibin] );
gr->SetMarkerColor(kBlue);
gr->SetMarkerStyle(22);
gr->SetMarkerSize(1.5);
gr->Draw("p");
leg->AddEntry( gr, "exp.data", "p");
leg->Draw();
leg->SetFillColor(kWhite);
return;
}
//Draw an error envelop from a TGraphAsymmErrors
void drawGraphEnv(TGraphAsymmErrors* g, float scale = 1, bool doAxis = false,
int linestyle = 1, int linewidth = 2, int linecolor = 4,
bool fill = false,
TH1** ppGl = 0, TH1** ppGh = 0){
// const char* opth = "", const char* optl = ""){
char buffer[256];
int n = g->GetN();
double* x = new double[n+2];
double* yh = new double[n+2];
double* yl = new double[n+2];
for(int i = 0; i < n; ++i){
x[i+1] = g->GetX()[i];
yh[i+1] = g->GetY()[i] + g->GetEYhigh()[i] * scale;
yl[i+1] = g->GetY()[i] - g->GetEYlow()[i] * scale;
}
x[0] = g->GetX()[0] - g->GetEXlow()[0];
yl[0] = yl[1] - (yl[2]-yl[1])/(x[2]-x[1])*g->GetEXlow()[0];
yh[0] = yh[1] - (yh[2]-yh[1])/(x[2]-x[1])*g->GetEXlow()[0];
x[n+1] = g->GetX()[n-1] + g->GetEXhigh()[n-1];
yl[n+1] = yl[n] + (yl[n]-yl[n-1])/(x[n]-x[n-1])*g->GetEXhigh()[n-1];
yh[n+1] = yh[n] + (yh[n]-yh[n-1])/(x[n]-x[n-1])*g->GetEXhigh()[n-1];
TGraph* gl = new TGraph(n+2, x, yl);
gl->SetTitle(g->GetTitle());
TGraph* gh = new TGraph(n+2, x, yh);
gh->SetTitle(g->GetTitle());
const char* opt = "l,same";
sprintf(buffer, "%s_eh", g->GetName());
gh->SetName(buffer);
sprintf(buffer, "%s_el", g->GetName());
gl->SetName(buffer);
if(doAxis){
g->Draw("AP");
TH1* h = g->GetHistogram();
gPad->Clear();
h->Draw();
}
if(fill){
gl->SetFillStyle(linestyle);
gl->SetFillColor(linecolor);
gl->SetLineColor(linecolor);
gh->SetFillStyle(linestyle);
gh->SetFillColor(linecolor);
gh->SetLineColor(linecolor);
} else{
gl->SetLineStyle(linestyle);
gl->SetLineWidth(linewidth);
gl->SetLineColor(linecolor);
gh->SetLineStyle(linestyle);
gh->SetLineWidth(linewidth);
gh->SetLineColor(linecolor);
}
gh->Draw(opt);
gl->Draw(opt);
if(ppGh) *ppGh = gh;
if(ppGl) *ppGl = gl;
}
void kirk_dune()
{
// this binning is a primary determinant of the time this macro takes to run
// very coarse binning, just to test macro, will worsen results: ~ 45 min
// int binsnumuE = 4;
// int binsnumuPID = 4;
// int binsnueE = 4;
// int binsnuePID = 4;
// full binning: 2-3 hours
int binsnumuE = 15;
int binsnumuPID = 15;
int binsnueE = 15;
int binsnuePID = 20;
int binsnumu2d = binsnumuE*binsnumuPID;
int binsnue2d = binsnumuE*binsnumuPID;
rootlogon(); // style
// POT/yr * 3.5yrs * mass correction
const double pot = 3.5 * 1.47e21 * 40/1.13;
SpectrumLoader loaderNumu("/pnfs/dune/persistent/TaskForce_AnaTree/far/train/v2.2/numutest.root");
SpectrumLoader loaderNue("/pnfs/dune/persistent/TaskForce_AnaTree/far/train/v2.2/nuetest.root");
SpectrumLoader loaderNumuRHC("/pnfs/dune/persistent/TaskForce_AnaTree/far/train/v2.2/anumutest.root");
SpectrumLoader loaderNueRHC("/pnfs/dune/persistent/TaskForce_AnaTree/far/train/v2.2/anuetest.root");
osc::IOscCalculatorAdjustable* calc = DefaultOscCalc();
calc->SetL(1300);
calc->SetdCP(TMath::Pi()*1.5);
// Standard DUNE numbers from Matt Bass
calc->SetTh12(0.5857);
calc->SetTh13(0.148);
calc->SetTh23(0.7854);
calc->SetDmsq21(0.000075);
calc->SetDmsq32(0.002524-0.000075); // quoted value is 31
osc::IOscCalculatorAdjustable* calci = DefaultOscCalc();
calci->SetL(1300);
calci->SetdCP(TMath::Pi()*1.5);
// Standard DUNE numbers from Matt Bass
calci->SetTh12(0.5857);
calci->SetTh13(0.148);
calci->SetTh23(0.7854);
calci->SetDmsq21(0.000075);
calci->SetDmsq32(-(0.002524+0.000075)); // quoted value is 31
// One sigma errors
// (t12,t13,t23,dm21,dm32)=(0.023,0.018,0.058,0.0,0.024,0.016)
auto* loaderNumuBeam = loaderNumu.LoaderForRunPOT(20000001);
auto* loaderNumuNue = loaderNumu.LoaderForRunPOT(20000002);
auto* loaderNumuNuTau = loaderNumu.LoaderForRunPOT(20000003);
auto* loaderNumuNC = loaderNumu.LoaderForRunPOT(0);
auto* loaderNueBeam = loaderNue.LoaderForRunPOT(20000001);
auto* loaderNueNue = loaderNue.LoaderForRunPOT(20000002);
auto* loaderNueNuTau = loaderNue.LoaderForRunPOT(20000003);
auto* loaderNueNC = loaderNue.LoaderForRunPOT(0);
auto* loaderNumuBeamRHC = loaderNumuRHC.LoaderForRunPOT(20000004);
auto* loaderNumuNueRHC = loaderNumuRHC.LoaderForRunPOT(20000005);
auto* loaderNumuNuTauRHC = loaderNumuRHC.LoaderForRunPOT(20000006);
auto* loaderNumuNCRHC = loaderNumuRHC.LoaderForRunPOT(0);
auto* loaderNueBeamRHC = loaderNueRHC.LoaderForRunPOT(20000004);
auto* loaderNueNueRHC = loaderNueRHC.LoaderForRunPOT(20000005);
auto* loaderNueNuTauRHC = loaderNueRHC.LoaderForRunPOT(20000006);
auto* loaderNueNCRHC = loaderNueRHC.LoaderForRunPOT(0);
Loaders loadersdunenue;
loadersdunenue.AddLoader(loaderNueBeam, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNonSwap);
loadersdunenue.AddLoader(loaderNueNue, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNue);
loadersdunenue.AddLoader(loaderNueNuTau, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kTau);
loadersdunenue.AddLoader(loaderNueNC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNC);
Loaders loadersdunenuerhc;
loadersdunenuerhc.AddLoader(loaderNueBeamRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNonSwap);
loadersdunenuerhc.AddLoader(loaderNueNueRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNue);
loadersdunenuerhc.AddLoader(loaderNueNuTauRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kTau);
loadersdunenuerhc.AddLoader(loaderNueNCRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNC);
Loaders loadersdunenumu;
loadersdunenumu.AddLoader(loaderNumuBeam, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNonSwap);
loadersdunenumu.AddLoader(loaderNumuNue, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNue);
loadersdunenumu.AddLoader(loaderNumuNuTau, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kTau);
loadersdunenumu.AddLoader(loaderNumuNC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNC);
Loaders loadersdunenumurhc;
loadersdunenumurhc.AddLoader(loaderNumuBeamRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNonSwap);
loadersdunenumurhc.AddLoader(loaderNumuNueRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNue);
loadersdunenumurhc.AddLoader(loaderNumuNuTauRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kTau);
loadersdunenumurhc.AddLoader(loaderNumuNCRHC, caf::kFARDET, Loaders::kMC, ana::kBeam, Loaders::kNC);
const Var Enu_reco = SIMPLEVAR(dune.Ev_reco);
const Var pid_reco = SIMPLEVAR(dune.mvaresult);
float kNumuMVACutFHC = 0.25;
float kNumuMVACutRHC = 0.5;
float kNueMVACut = 0.8;
const Cut kSelNumu = SIMPLEVAR(dune.mvaresult) > kNumuMVACutFHC;
const Cut kSelNumuRHC = SIMPLEVAR(dune.mvaresult) > kNumuMVACutRHC;
const Cut kSelNue = SIMPLEVAR(dune.mvaresult) > kNueMVACut;
const Cut kSelNueRHC = SIMPLEVAR(dune.mvaresult) > kNueMVACut;
std::vector<const ISyst*> systsE = {&kEnergyScaleSyst, &kEnergyResSyst};
std::vector<const ISyst*> systsnorm = {&kNCSyst, &kNutauSyst, &kNueBeamSyst};
std::vector<const ISyst*> systsall = {&kEnergyScaleSyst, &kEnergyResSyst, &kNCSyst, &kNutauSyst, &kNueBeamSyst};
std::vector<const ISyst*> systsall2 = {&kEnergyScaleSyst, &kEnergyResSyst, &kNCSyst2, &kNutauSyst, &kNueBeamSyst};
const Var kEnuPidNumu = Var2D(Enu_reco, Binning::Simple(binsnumuE, 0, 10), pid_reco, Binning::Simple(binsnumuPID, -1, +1));
const Var kEnuPidNue = Var2D(Enu_reco, Binning::Simple(binsnueE, 0, 6), pid_reco, Binning::Simple(binsnuePID, -1, +1));
// 2D w/ Loaders
NoExtrapGenerator gendunenumu(HistAxis("PID/E2d", Binning::Simple(binsnumu2d,0,binsnumu2d), kEnuPidNumu), kNoCut);
NoExtrapGenerator gendunenue (HistAxis("PID/E2d", Binning::Simple(binsnue2d,0,binsnue2d), kEnuPidNue), kNoCut);
PredictionInterp preddunenumu(systsall, calc, gendunenumu, loadersdunenumu);
PredictionInterp preddunenue (systsall, calc, gendunenue, loadersdunenue);
NoExtrapGenerator gendunenumurhc(HistAxis("PID/E2d", Binning::Simple(binsnumu2d,0,binsnumu2d), kEnuPidNumu), kNoCut);
NoExtrapGenerator gendunenuerhc (HistAxis("PID/E2d", Binning::Simple(binsnue2d,0,binsnue2d), kEnuPidNue), kNoCut);
PredictionInterp preddunenumurhc(systsall, calc, gendunenumurhc, loadersdunenumurhc);
PredictionInterp preddunenuerhc (systsall, calc, gendunenuerhc, loadersdunenuerhc);
// 1D w/ Loaders
NoExtrapGenerator gendunenumu1d(HistAxis("Reconstructed Energy (GeV)", Binning::Simple(80,0,10), Enu_reco), kSelNumu);
NoExtrapGenerator gendunenue1d (HistAxis("Reconstructed Energy (GeV)", Binning::Simple(80,0,10), Enu_reco), kSelNue);
PredictionInterp preddunenumu1d(systsall, calc, gendunenumu1d, loadersdunenumu);
PredictionInterp preddunenue1d (systsall, calc, gendunenue1d, loadersdunenue);
NoExtrapGenerator gendunenumu1drhc(HistAxis("Reconstructed Energy (GeV)", Binning::Simple(80,0,10), Enu_reco), kSelNumuRHC);
NoExtrapGenerator gendunenue1drhc (HistAxis("Reconstructed Energy (GeV)", Binning::Simple(80,0,10), Enu_reco), kSelNueRHC);
PredictionInterp preddunenumu1drhc(systsall, calc, gendunenumu1drhc, loadersdunenumurhc);
PredictionInterp preddunenue1drhc (systsall, calc, gendunenue1drhc, loadersdunenuerhc);
// SpectrumLoader instead of Loaders
PredictionNoExtrap predNumuPID(*loaderNumuBeam, *loaderNumuNue, *loaderNumuNuTau, *loaderNumuNC, "PID", Binning::Simple(100, -1, +1), SIMPLEVAR(dune.mvaresult), kNoCut);
PredictionNoExtrap predNumuPIDRHC(*loaderNumuBeamRHC, *loaderNumuNueRHC, *loaderNumuNuTauRHC, *loaderNumuNCRHC, "PID", Binning::Simple(100, -1, +1), SIMPLEVAR(dune.mvaresult), kNoCut);
PredictionNoExtrap predNuePID(*loaderNueBeam, *loaderNueNue, *loaderNueNuTau, *loaderNueNC, "PID", Binning::Simple(100, -1, +1), SIMPLEVAR(dune.mvaresult), kNoCut);
PredictionNoExtrap predNuePIDRHC(*loaderNueBeamRHC, *loaderNueNueRHC, *loaderNueNuTauRHC, *loaderNueNCRHC, "PID", Binning::Simple(100, -1, +1), SIMPLEVAR(dune.mvaresult), kNoCut);
PredictionNoExtrap pred(*loaderNumuBeam, *loaderNumuNue, *loaderNumuNuTau, *loaderNumuNC, "Reconstructed E (GeV)", Binning::Simple(80, 0, 10), Enu_reco, kSelNumu);
PredictionNoExtrap pred2d(*loaderNumuBeam, *loaderNumuNue, *loaderNumuNuTau, *loaderNumuNC, "Reconstructed E (GeV)", Binning::Simple(binsnumu2d, 0, binsnumu2d), kEnuPidNumu, kNoCut);
PredictionNoExtrap predRHC(*loaderNumuBeamRHC, *loaderNumuNueRHC, *loaderNumuNuTauRHC, *loaderNumuNCRHC, "Reconstructed E (GeV)", Binning::Simple(80, 0, 10), Enu_reco, kSelNumuRHC);
PredictionNoExtrap predNue(*loaderNueBeam, *loaderNueNue, *loaderNueNuTau, *loaderNueNC, "Reconstructed E (GeV)", Binning::Simple(24, 0, 6), Enu_reco, kSelNue);
PredictionNoExtrap predNue2d(*loaderNueBeam, *loaderNueNue, *loaderNueNuTau, *loaderNueNC, "Reconstructed E (GeV)", Binning::Simple(binsnue2d, 0, binsnue2d), kEnuPidNue, kNoCut);
PredictionNoExtrap predNueRHC(*loaderNueBeamRHC, *loaderNueNueRHC, *loaderNueNuTauRHC, *loaderNueNCRHC, "Reconstructed E (GeV)", Binning::Simple(24, 0, 6), Enu_reco, kSelNueRHC);
// test systematics are really shifting
SystShifts scaleshift, resshift;
scaleshift.SetShift(&kEnergyScaleSyst, +3);
resshift.SetShift(&kEnergyResSyst, +3);
Spectrum nom2(*loaderNumuBeam, HistAxis("blah", Binning::Simple(binsnumuE,0,binsnumuE), Enu_reco), kNoCut);
Spectrum scale2(*loaderNumuBeam, HistAxis("blah", Binning::Simple(binsnumuE,0,binsnumuE), Enu_reco), kNoCut, scaleshift);
Spectrum res2(*loaderNumuBeam, HistAxis("blah", Binning::Simple(binsnumuE,0,binsnumuE), Enu_reco), kNoCut, resshift);
loaderNumu.Go();
loaderNue.Go();
loaderNumuRHC.Go();
loaderNueRHC.Go();
// have to have this for each prediction from a Loaders or it doesn't work; TODO fix this in source code
preddunenue.LoadedCallback();
preddunenumu.LoadedCallback();
preddunenuerhc.LoadedCallback();
preddunenumurhc.LoadedCallback();
preddunenue1d.LoadedCallback();
preddunenumu1d.LoadedCallback();
preddunenue1drhc.LoadedCallback();
preddunenumu1drhc.LoadedCallback();
SaveToFile(preddunenue, "pred_nue_fhc.root", "pred");
SaveToFile(preddunenuerhc, "pred_nue_rhc.root", "pred");
SaveToFile(preddunenumu, "pred_numu_fhc.root", "pred");
SaveToFile(preddunenumurhc, "pred_numu_rhc.root", "pred");
Spectrum mock = pred.Predict(calc).FakeData(pot);
SingleSampleExperiment expt(&pred, mock);
Spectrum mock2d = pred2d.Predict(calc).FakeData(pot);
SingleSampleExperiment expt2d(&pred2d, mock2d);
Spectrum mock2dsysts = preddunenumu.Predict(calc).FakeData(pot);
SingleSampleExperiment expt2dsysts(&preddunenumu, mock2dsysts);
Spectrum mock2dsystsrhc = preddunenumurhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expt2dsystsrhc(&preddunenumurhc, mock2dsystsrhc);
Spectrum mock2di = pred2d.Predict(calci).FakeData(pot);
SingleSampleExperiment expt2di(&pred2d, mock2di);
Spectrum mock2disysts = preddunenumu.Predict(calci).FakeData(pot);
SingleSampleExperiment expt2disysts(&preddunenumu, mock2disysts);
Spectrum mock2disystsrhc = preddunenumurhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expt2disystsrhc(&preddunenumurhc, mock2disystsrhc);
Spectrum mockRHC = predRHC.Predict(calc).FakeData(pot);
SingleSampleExperiment exptRHC(&predRHC, mockRHC);
Spectrum mockNue = predNue.Predict(calc).FakeData(pot);
SingleSampleExperiment exptNue(&predNue, mockNue);
Spectrum mockNue2d = predNue2d.Predict(calc).FakeData(pot);
SingleSampleExperiment exptNue2d(&predNue2d, mockNue2d);
Spectrum mockNue2dsysts = preddunenue.Predict(calc).FakeData(pot);
SingleSampleExperiment exptNue2dsysts(&preddunenue, mockNue2dsysts);
Spectrum mockNue2dsystsrhc = preddunenuerhc.Predict(calc).FakeData(pot);
SingleSampleExperiment exptNue2dsystsrhc(&preddunenuerhc, mockNue2dsystsrhc);
Spectrum mockNue2di = predNue2d.Predict(calci).FakeData(pot);
SingleSampleExperiment exptNue2di(&predNue2d, mockNue2di);
Spectrum mockNue2disysts = preddunenue.Predict(calci).FakeData(pot);
SingleSampleExperiment exptNue2disysts(&preddunenue, mockNue2disysts);
Spectrum mockNue2disystsrhc = preddunenuerhc.Predict(calci).FakeData(pot);
SingleSampleExperiment exptNue2disystsrhc(&preddunenuerhc, mockNue2disystsrhc);
Spectrum mockNueRHC = predNueRHC.Predict(calc).FakeData(pot);
SingleSampleExperiment exptNueRHC(&predNueRHC, mockNueRHC);
Spectrum mockNuePID = predNuePID.Predict(calc).FakeData(pot);
Spectrum mockNuePIDRHC = predNuePIDRHC.Predict(calc).FakeData(pot);
Spectrum mockNumuPID = predNumuPID.Predict(calc).FakeData(pot);
Spectrum mockNumuPIDRHC = predNumuPIDRHC.Predict(calc).FakeData(pot);
Surface surf(&expt, calc, &kFitSinSqTheta23, 20, .4, .6, &kFitDmSq32Scaled, 20, 2.35, 2.55);
Surface surf2d(&expt2d, calc, &kFitSinSqTheta23, 20, .4, .6, &kFitDmSq32Scaled, 20, 2.35, 2.55);
Surface surf2dcheck(&expt2dsysts, calc, &kFitSinSqTheta23, 20, .4, .6, &kFitDmSq32Scaled, 20, 2.35, 2.55); //should be same as previous line, let's check
Surface surf2dsysts(&expt2dsysts, calc, &kFitSinSqTheta23, 20, .4, .6, &kFitDmSq32Scaled, 20, 2.35, 2.55, {}, systsnorm);
Surface surf2dsystsall(&expt2dsysts, calc, &kFitSinSqTheta23, 20, .4, .6, &kFitDmSq32Scaled, 20, 2.35, 2.55, {}, systsall);
Surface surfRHC(&exptRHC, calc, &kFitSinSqTheta23, 20, .4, .6, &kFitDmSq32Scaled, 20, 2.35, 2.55);
MultiExperiment numuall({&expt2dsysts, &expt2dsystsrhc});
Surface surfAll(&numuall, calc, &kFitSinSqTheta23, 20, .4, .6, &kFitDmSq32Scaled, 20, 2.35, 2.55, {}, systsall);
MultiExperiment me({&expt, &exptNue, new SolarConstraints()});
MultiExperiment me2d({&expt2d, &exptNue2d, new SolarConstraints()});
MultiExperiment me2dsysts({&expt2dsysts, &exptNue2dsysts, new SolarConstraints()});
MultiExperiment me2di({&expt2di, &exptNue2di, new SolarConstraints()});
MultiExperiment me2disysts({&expt2disysts, &exptNue2disysts, new SolarConstraints()});
MultiExperiment meRHC({&exptRHC, &exptNueRHC, new SolarConstraints()});
MultiExperiment meAll({&exptNue2dsysts, &exptNue2dsystsrhc, &expt2dsysts, &expt2dsystsrhc, new SolarConstraints()});
Surface surfNue(&me, calc, &kFitDeltaInPiUnits, 20, 0, 2, &kFitSinSqTheta23, 20, .4, .6);
Surface surfNue2d(&me2d, calc, &kFitDeltaInPiUnits, 20, 0, 2, &kFitSinSqTheta23, 20, .4, .6);
Surface surfNue2dsysts(&me2dsysts, calc, &kFitDeltaInPiUnits, 20, 0, 2, &kFitSinSqTheta23, 20, .4, .6, {}, systsnorm);
Surface surfNue2dsystsall(&me2dsysts, calc, &kFitDeltaInPiUnits, 20, 0, 2, &kFitSinSqTheta23, 20, .4, .6, {}, systsall);
Surface surfNue2dsystsall2(&me2dsysts, calc, &kFitDeltaInPiUnits, 20, 0, 2, &kFitSinSqTheta23, 20, .4, .6, {}, systsall2);
Surface surfNueRHC(&meRHC, calc, &kFitDeltaInPiUnits, 20, 0, 2, &kFitSinSqTheta23, 20, .4, .6);
Surface surfNueAll(&meAll, calc, &kFitDeltaInPiUnits, 20, 0, 2, &kFitSinSqTheta23, 20, .4, .6, {}, systsall);
new TCanvas;
TH1* h3 = DataMCComparisonComponents(mock, &pred, calc);
h3->SetTitle("#nu_{#mu} FHC selection (MVA>0.25) 3.5yrs #times 40kt");
CenterTitles(h3);
Legend();
gPad->Print("components.pdf");
gPad->Print("components.C");
new TCanvas;
TH1* h3r = DataMCComparisonComponents(mockRHC, &predRHC, calc);
h3r->SetTitle("#nu_{#mu} RHC selection (MVA>0.5) 3.5yrs #times 40kt");
CenterTitles(h3);
Legend();
gPad->Print("components_rhc.pdf");
gPad->Print("components_rhc.C");
new TCanvas;
TH1* h4 = DataMCComparisonComponents(mockNue, &predNue, calc);
h4->SetTitle("#nu_{e} FHC selection (MVA>0.8) 3.5yrs #times 40kt");
CenterTitles(h4);
Legend();
gPad->Print("components_nue.pdf");
gPad->Print("components_nue.C");
new TCanvas;
TH1* h4r = DataMCComparisonComponents(mockNueRHC, &predNueRHC, calc);
h4r->SetTitle("#nu_{e} RHC selection (MVA>0.8) 3.5yrs #times 40kt");
CenterTitles(h4);
Legend();
gPad->Print("components_nue_rhc.pdf");
gPad->Print("components_nue_rhc.C");
new TCanvas;
TH1* h2 = DataMCComparisonComponents(mockNumuPID, &predNumuPID, calc);
h2->SetTitle("#nu_{#mu} FHC 3.5yrs #times 40kt");
CenterTitles(h2);
Legend();
h2->GetYaxis()->SetRangeUser(1, 1e4);
gPad->SetLogy();
gPad->Print("components_pid.pdf");
gPad->Print("components_pid.C");
new TCanvas;
TH1* h2d = DataMCComparisonComponents(mock2d, &pred2d, calc);
h2d->SetTitle("#nu_{#mu} FHC 3.5yrs #times 40kt");
CenterTitles(h2);
Legend();
h2->GetYaxis()->SetRangeUser(1, 1e4);
gPad->SetLogy();
gPad->Print("components_pid_2d.pdf");
gPad->Print("components_pid_2d.C");
new TCanvas;
TH1* h2r = DataMCComparisonComponents(mockNumuPIDRHC, &predNumuPIDRHC, calc);
h2r->SetTitle("#nu_{#mu} RHC 3.5yrs #times 40kt");
CenterTitles(h2);
Legend();
h2->GetYaxis()->SetRangeUser(1, 1e4);
gPad->SetLogy();
gPad->Print("components_pid_rhc.pdf");
gPad->Print("components_pid_rhc.C");
new TCanvas;
TH1* h = DataMCComparisonComponents(mockNuePID, &predNuePID, calc);
h->SetTitle("#nu_{e} FHC 3.5yrs #times 40kt");
CenterTitles(h);
Legend();
h->GetYaxis()->SetRangeUser(0, 600);
gPad->Print("components_nue_pid.pdf");
gPad->Print("components_nue_pid.C");
new TCanvas;
TH1* hd = DataMCComparisonComponents(mockNue2d, &predNue2d, calc);
hd->SetTitle("#nu_{e} FHC 3.5yrs #times 40kt");
CenterTitles(h);
Legend();
h->GetYaxis()->SetRangeUser(0, 600);
gPad->Print("components_nue_pid_2d.pdf");
gPad->Print("components_nue_pid_2d.C");
new TCanvas;
TH1* hr = DataMCComparisonComponents(mockNuePIDRHC, &predNuePIDRHC, calc);
h->SetTitle("#nu_{e} RHC 3.5yrs #times 40kt");
CenterTitles(h);
Legend();
h->GetYaxis()->SetRangeUser(0, 600);
gPad->Print("components_nue_pid_rhc.pdf");
gPad->Print("components_nue_pid_rhc.C");
new TCanvas;
surf.DrawContour(Gaussian90Percent2D(surf), kSolid, 4);
// surfRHC.DrawContour(Gaussian90Percent2D(surfRHC), kSolid, kGreen+2);
surf2d.DrawContour(Gaussian90Percent2D(surf2d), kSolid, 1);
surf2dcheck.DrawContour(Gaussian90Percent2D(surf2d), kSolid, 1); // if there are 2 solid black lines there is a problem
surf2dsysts.DrawContour(Gaussian90Percent2D(surf2dsysts), kSolid, kGreen+2);
surf2dsystsall.DrawContour(Gaussian90Percent2D(surf2dsystsall), kSolid, 2);
surf.DrawBestFit(kRed);
surfAll.DrawContour(Gaussian90Percent2D(surfAll), 1, kMagenta);
gPad->Print("cont.pdf");
new TCanvas;
surfNue.DrawContour(Gaussian90Percent2D(surfNue), kSolid, 4);
surfNue2d.DrawContour(Gaussian90Percent2D(surfNue2d), kSolid, 1);
surfNue2dsysts.DrawContour(Gaussian90Percent2D(surfNue2dsysts), kSolid, kGreen+2);
surfNue2dsystsall.DrawContour(Gaussian90Percent2D(surfNue2dsystsall), kSolid, 2);
// surfNue2dsystsall2.DrawContour(Gaussian90Percent2D(surfNue2dsystsall2), kSolid, kMagenta); // just a check that a 50% NC syst is same as a 5%
surfNueAll.DrawContour(Gaussian90Percent2D(surfNueAll), kSolid, kMagenta);
surfNue.DrawBestFit(kRed);
gPad->Print("cont_nue.pdf");
Spectrum testnom = preddunenumu.Predict(calc);
Spectrum scaleshifted = preddunenumu.PredictSyst(calc,scaleshift);
Spectrum resshifted = preddunenumu.PredictSyst(calc,resshift);
new TCanvas;
TH1* htestnom = testnom.ToTH1(pot);
TH1* hscaleshifted = scaleshifted.ToTH1(pot);
TH1* hresshifted = resshifted.ToTH1(pot);
htestnom->SetLineWidth(2);
hscaleshifted->SetLineWidth(2);
hresshifted->SetLineWidth(2);
hscaleshifted->SetLineColor(2);
hresshifted->SetLineColor(4);
htestnom->Draw();
hscaleshifted->Draw("same");
hresshifted->Draw("same");
gPad->Print("testsysts.pdf"); // yes things are really shifting, here we can see it happen
new TCanvas;
TH1* hnom2 = nom2.ToTH1(pot);
TH1* hscale2 = scale2.ToTH1(pot);
TH1* hres2 = res2.ToTH1(pot);
hnom2->SetLineWidth(2);
hscale2->SetLineWidth(2);
hres2->SetLineWidth(2);
hscale2->SetLineColor(2);
hres2->SetLineColor(4);
hnom2->Draw();
hscale2->Draw("same");
hres2->Draw("same");
gPad->Print("testsysts2.pdf"); // check shifts are happening in 2D variable also
new TCanvas;
// This is a very cheesy way to make the McD plot - would have to be very
// different if we were varying any other parameters; leave in for now but don't trust this
calc->SetdCP(0);
Spectrum zeroNumu = pred.Predict(calc).FakeData(pot);
Spectrum zeroNue = predNue.Predict(calc).FakeData(pot);
Spectrum zeroNumu2d = pred2d.Predict(calc).FakeData(pot);
Spectrum zeroNue2d = predNue2d.Predict(calc).FakeData(pot);
Spectrum zeroNumuRHC = predRHC.Predict(calc).FakeData(pot);
Spectrum zeroNueRHC = predNueRHC.Predict(calc).FakeData(pot);
calc->SetdCP(TMath::Pi());
Spectrum oneNumu = pred.Predict(calc).FakeData(pot);
Spectrum oneNue = predNue.Predict(calc).FakeData(pot);
Spectrum oneNumu2d = pred2d.Predict(calc).FakeData(pot);
Spectrum oneNue2d = predNue2d.Predict(calc).FakeData(pot);
Spectrum oneNumuRHC = predRHC.Predict(calc).FakeData(pot);
Spectrum oneNueRHC = predNueRHC.Predict(calc).FakeData(pot);
TGraph* g = new TGraph;
TGraph* g2d = new TGraph;
TGraph* grhc = new TGraph;
TGraph* gold = new TGraph;
TGraph* gold2 = new TGraph;
for(int i = -100; i <= 100; ++i){
calc->SetdCP(i/100.*TMath::Pi());
Spectrum mockNumu = pred.Predict(calc).FakeData(pot);
Spectrum mockNue = predNue.Predict(calc).FakeData(pot);
Spectrum mockNumu2d = pred2d.Predict(calc).FakeData(pot);
Spectrum mockNue2d = predNue2d.Predict(calc).FakeData(pot);
Spectrum mockNumuRHC = predRHC.Predict(calc).FakeData(pot);
Spectrum mockNueRHC = predNueRHC.Predict(calc).FakeData(pot);
const double llZero = LogLikelihood(zeroNumu.ToTH1(pot), mockNumu.ToTH1(pot))+
LogLikelihood(zeroNue.ToTH1(pot), mockNue.ToTH1(pot));
const double llOne = LogLikelihood(oneNumu.ToTH1(pot), mockNumu.ToTH1(pot))+
LogLikelihood(oneNue.ToTH1(pot), mockNue.ToTH1(pot));
const double llZero2d = LogLikelihood(zeroNumu2d.ToTH1(pot), mockNumu2d.ToTH1(pot))+
LogLikelihood(zeroNue2d.ToTH1(pot), mockNue2d.ToTH1(pot));
const double llOne2d = LogLikelihood(oneNumu2d.ToTH1(pot), mockNumu2d.ToTH1(pot))+
LogLikelihood(oneNue2d.ToTH1(pot), mockNue2d.ToTH1(pot));
const double llZeroRHC = LogLikelihood(zeroNumuRHC.ToTH1(pot), mockNumuRHC.ToTH1(pot))+LogLikelihood(zeroNumu.ToTH1(pot), mockNumu.ToTH1(pot))+
LogLikelihood(zeroNueRHC.ToTH1(pot), mockNueRHC.ToTH1(pot))+LogLikelihood(zeroNue.ToTH1(pot), mockNue.ToTH1(pot));
const double llOneRHC = LogLikelihood(oneNumuRHC.ToTH1(pot), mockNumuRHC.ToTH1(pot))+LogLikelihood(oneNumu.ToTH1(pot), mockNumu.ToTH1(pot))+
LogLikelihood(oneNueRHC.ToTH1(pot), mockNueRHC.ToTH1(pot))+LogLikelihood(oneNue.ToTH1(pot), mockNue.ToTH1(pot));
const double ll = std::min(llZero, llOne);
const double ll2d = std::min(llZero2d, llOne2d);
const double llrhc = std::min(llZeroRHC, llOneRHC);
if(ll>0) g->SetPoint(g->GetN(), i/100., sqrt(ll));
if(ll2d>0) g2d->SetPoint(g2d->GetN(), i/100., sqrt(ll2d));
if(llrhc>0) grhc->SetPoint(grhc->GetN(), i/100., sqrt(llrhc));
}
TH2* axes = new TH2F("", "3.5yrs #times 40kt, stats only;#delta / #pi;#sqrt{#chi^{2}}", 200, -1, +1, 50, 0, 8);
CenterTitles(axes);
axes->Draw();
g2d->SetLineWidth(2);
g2d->SetLineColor(1);
g2d->Draw("l same");
g->SetLineWidth(2);
g->SetLineColor(4);
g->Draw("l same");
grhc->SetLineWidth(2);
grhc->SetLineColor(kMagenta);
grhc->Draw("l same");
gPad->SetGridx();
gPad->SetGridy();
gPad->Print("mcd_hacky.pdf");
gPad->Print("mcd_hacky.C");
new TCanvas; // now try to make the plot right
TH2* axes2 = new TH2F("", "3.5yrs #times 40kt, stats only;#delta / #pi;#sqrt{#chi^{2}}", 100, -1, +1, 50, 0, 8);
TGraph* gr1d = new TGraph; // IH+NH, all systs, 1D (E only)
TGraph* grfull = new TGraph; // IH+NH, all systs, 2D (ExPID)
TGraph* gr2 = new TGraph; // IH+NH, norm systs only, 2D
TGraph* gr3 = new TGraph; // FHC only, all systs, 2D, IH+NH
TGraph* grstat = new TGraph; // FHC only, no systs, 2D, IH+NH
TGraph* grnh = new TGraph; // NH only part of previous
TGraph* grih = new TGraph; // IH only part
// lots of possible combinations here: 2 hierarchies x 2 (FHC, RHC) x 2 expts (numu, nue) 2 x variables (1D, 2D) = 16, at 2 values of dCP = 32
// do dCP = 0 case
calc->SetdCP(0);
calci->SetdCP(0);
Spectrum tempnumu = preddunenumu.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumu(&preddunenumu, tempnumu);
Spectrum tempnue = preddunenue.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnue(&preddunenue, tempnue);
Spectrum tempnumui = preddunenumu.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumui(&preddunenumu, tempnumu);
Spectrum tempnuei = preddunenue.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnuei(&preddunenue, tempnue);
Spectrum tempnumurhc = preddunenumurhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumurhc(&preddunenumurhc, tempnumurhc);
Spectrum tempnuerhc = preddunenuerhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnuerhc(&preddunenuerhc, tempnuerhc);
Spectrum tempnumuirhc = preddunenumurhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumuirhc(&preddunenumurhc, tempnumurhc);
Spectrum tempnueirhc = preddunenuerhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnueirhc(&preddunenuerhc, tempnuerhc);
Spectrum tempnumu1d = preddunenumu1d.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumu1d(&preddunenumu1d, tempnumu1d);
Spectrum tempnue1d = preddunenue1d.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnue1d(&preddunenue1d, tempnue1d);
Spectrum tempnumui1d = preddunenumu1d.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumui1d(&preddunenumu1d, tempnumu1d);
Spectrum tempnuei1d = preddunenue1d.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnuei1d(&preddunenue1d, tempnue1d);
Spectrum tempnumurhc1d = preddunenumu1drhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumurhc1d(&preddunenumu1drhc, tempnumurhc1d);
Spectrum tempnuerhc1d = preddunenue1drhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnuerhc1d(&preddunenue1drhc, tempnuerhc1d);
Spectrum tempnumuirhc1d = preddunenumu1drhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumuirhc1d(&preddunenumu1drhc, tempnumurhc1d);
Spectrum tempnueirhc1d = preddunenue1drhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnueirhc1d(&preddunenue1drhc, tempnuerhc1d);
MultiExperiment tempme({&expttempnumu, &expttempnue, new SolarConstraints()}); // FHC only NH numu+nue
MultiExperiment tempmei({&expttempnumui, &expttempnuei, new SolarConstraints()}); // FHC only IH numu+nue
MultiExperiment tempmefull({&expttempnumu, &expttempnue, &expttempnumurhc, &expttempnuerhc, new SolarConstraints()}); // nue+numu FHC+RHC NH 2D
MultiExperiment tempmeifull({&expttempnumui, &expttempnuei, &expttempnumuirhc, &expttempnueirhc, new SolarConstraints()}); // nue+numu FHC+RHC IH 2D
MultiExperiment tempmefull1d({&expttempnumu1d, &expttempnue1d, &expttempnumurhc1d, &expttempnuerhc1d, new SolarConstraints()}); // nue+numu FHC+RHC NH 1D
MultiExperiment tempmeifull1d({&expttempnumui1d, &expttempnuei1d, &expttempnumuirhc1d, &expttempnueirhc1d, new SolarConstraints()}); // nue+numu FHC+RHC IH 1D
// now dCP = PI case
calc->SetdCP(TMath::Pi());
calci->SetdCP(TMath::Pi());
Spectrum tempnumu2 = preddunenumu.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumu2(&preddunenumu, tempnumu2);
Spectrum tempnue2 = preddunenue.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnue2(&preddunenue, tempnue2);
Spectrum tempnumui2 = preddunenumu.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumui2(&preddunenumu, tempnumu2);
Spectrum tempnuei2 = preddunenue.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnuei2(&preddunenue, tempnue2);
Spectrum tempnumurhc2 = preddunenumurhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumurhc2(&preddunenumurhc, tempnumurhc2);
Spectrum tempnuerhc2 = preddunenuerhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnuerhc2(&preddunenuerhc, tempnuerhc2);
Spectrum tempnumuirhc2 = preddunenumurhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumuirhc2(&preddunenumurhc, tempnumurhc2);
Spectrum tempnueirhc2 = preddunenuerhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnueirhc2(&preddunenuerhc, tempnuerhc2);
Spectrum tempnumu1d2 = preddunenumu1d.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumu1d2(&preddunenumu1d, tempnumu1d2);
Spectrum tempnue1d2 = preddunenue1d.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnue1d2(&preddunenue1d, tempnue1d2);
Spectrum tempnumui1d2 = preddunenumu1d.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumui1d2(&preddunenumu1d, tempnumu1d2);
Spectrum tempnuei1d2 = preddunenue1d.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnuei1d2(&preddunenue1d, tempnue1d2);
Spectrum tempnumurhc1d2 = preddunenumu1drhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnumurhc1d2(&preddunenumu1drhc, tempnumurhc1d2);
Spectrum tempnuerhc1d2 = preddunenue1drhc.Predict(calc).FakeData(pot);
SingleSampleExperiment expttempnuerhc1d2(&preddunenue1drhc, tempnuerhc1d2);
Spectrum tempnumuirhc1d2 = preddunenumu1drhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnumuirhc1d2(&preddunenumu1drhc, tempnumurhc1d2);
Spectrum tempnueirhc1d2 = preddunenue1drhc.Predict(calci).FakeData(pot);
SingleSampleExperiment expttempnueirhc1d2(&preddunenue1drhc, tempnuerhc1d2);
MultiExperiment tempme2({&expttempnumu2, &expttempnue2, new SolarConstraints()});
MultiExperiment tempmei2({&expttempnumui2, &expttempnuei2, new SolarConstraints()});
MultiExperiment tempmefull2({&expttempnumu2, &expttempnue2, &expttempnumurhc2, &expttempnuerhc2, new SolarConstraints()});
MultiExperiment tempmeifull2({&expttempnumui2, &expttempnuei2, &expttempnumuirhc2, &expttempnueirhc2, new SolarConstraints()});
MultiExperiment tempmefull1d2({&expttempnumu1d2, &expttempnue1d2, &expttempnumurhc1d2, &expttempnuerhc1d2, new SolarConstraints()});
MultiExperiment tempmeifull1d2({&expttempnumui1d2, &expttempnuei1d2, &expttempnumuirhc1d2, &expttempnueirhc1d2, new SolarConstraints()});
// now make fitters that will do actual fits // TODO make variable names intelligible
// these allow Dmsq32, sinsqth23, sinsq2th13 to float, constrained only by the data itself
// they also allow Dmsq21 and sinsq2th12 to float, constrained be external solar data (see CAFAna/Experiments/SolarConstraints.*)
// dCP = 0 fits
Fitter fit(&tempme, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsnorm); // FHC only, NH, norm systs only
Fitter fit2(&tempme, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}); // FHC only, NH, no systs
Fitter fit3(&tempme, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall); // FHC only, NH, all systs
Fitter fitfull(&tempmefull, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall); // FHC+ RHC, NH, all systs
Fitter fitfull1d(&tempmefull1d, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall); // FHC+ RHC, NH, all systs, 1D
SystShifts systsout = SystShifts::Nominal();
Fitter fiti(&tempmei, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsnorm); // same but IH now
Fitter fit2i(&tempmei, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21});
Fitter fit3i(&tempmei, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
Fitter fitfulli(&tempmeifull, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
Fitter fitfull1di(&tempmeifull1d, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
SystShifts systsouti = SystShifts::Nominal();
// dCP = PI fits
Fitter xfit(&tempme2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsnorm);
Fitter xfit2(&tempme2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21});
Fitter xfit3(&tempme2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
Fitter xfitfull(&tempmefull2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
Fitter xfitfull1d(&tempmefull1d2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
SystShifts xsystsout = SystShifts::Nominal();
Fitter xfiti(&tempmei2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsnorm);
Fitter xfit2i(&tempmei2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21});
Fitter xfit3i(&tempmei2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
Fitter xfitfulli(&tempmeifull2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
Fitter xfitfull1di(&tempmeifull1d2, {&kFitDmSq32Scaled, &kFitSinSq2Theta23, &kFitSinSq2Theta13, &kFitSinSq2Theta12, &kFitDmSq21}, systsall);
SystShifts xsystsouti = SystShifts::Nominal();
for(int i = -50; i <= 50; ++i){ // scan over dCP, create fake data at each dCP value, compare to dCP = 0 or PI cases, for each hierarchy
calc->SetdCP(i/50.*TMath::Pi());
calci->SetdCP(i/50.*TMath::Pi());
std::cout << "Doing fits for dCP significance: " << i+50 << "%" << std::endl;
// do the actual fits here, returns are chisq value of fits
double throwaway = fit.Fit(calc, systsout, Fitter::kQuiet); // debugging some odd behavior
double chisqout = fit.Fit(calc, systsout, Fitter::kQuiet);
double chisqouti = fiti.Fit(calci, systsouti, Fitter::kQuiet);
double chisqout2 = fit2.Fit(calc, systsout, Fitter::kQuiet);
double chisqout2i = fit2i.Fit(calci, systsout, Fitter::kQuiet);
double chisqout3 = fit3.Fit(calc, systsout, Fitter::kQuiet);
double chisqout3i = fit3i.Fit(calci, systsouti, Fitter::kQuiet);
double chisqoutfull = fitfull.Fit(calc, systsout, Fitter::kQuiet);
double chisqoutfulli = fitfulli.Fit(calci, systsout, Fitter::kQuiet);
double chisqoutfull1d = fitfull1d.Fit(calc, systsout, Fitter::kQuiet);
double chisqoutfull1di = fitfull1di.Fit(calci, systsout, Fitter::kQuiet);
double xthrowaway = xfit.Fit(calc, systsout, Fitter::kQuiet);
double xchisqout = xfit.Fit(calc, systsout, Fitter::kQuiet);
double xchisqouti = xfiti.Fit(calci, systsouti, Fitter::kQuiet);
double xchisqout2 = xfit2.Fit(calc, systsout, Fitter::kQuiet);
double xchisqout2i = xfit2i.Fit(calci, systsout, Fitter::kQuiet);
double xchisqout3 = xfit3.Fit(calc, systsout, Fitter::kQuiet);
double xchisqout3i = xfit3i.Fit(calci, systsouti, Fitter::kQuiet);
double xchisqoutfull = xfitfull.Fit(calc, systsout, Fitter::kQuiet);
double xchisqoutfulli = xfitfulli.Fit(calci, systsout, Fitter::kQuiet);
double xchisqoutfull1d = xfitfull1d.Fit(calc, systsout, Fitter::kQuiet);
double xchisqoutfull1di = xfitfull1di.Fit(calci, systsout, Fitter::kQuiet);
// std::cout << " for dcp = " << i/50.*TMath::Pi() << " chisqs are: " << chisqout << " " << chisqouti << " " << sqrt(std::min(chisqout,chisqouti)) << std::endl; // debug
// prevent possible errors
if(chisqout < 0) chisqout = 0;
if(chisqouti < 0) chisqouti = 0;
if(chisqout2 < 0) chisqout = 0;
if(chisqout2i < 0) chisqouti = 0;
if(chisqout3 < 0) chisqout = 0;
if(chisqout3i < 0) chisqouti = 0;
if(chisqoutfull < 0) chisqoutfull = 0;
if(chisqoutfulli < 0) chisqoutfulli = 0;
if(chisqoutfull1d < 0) chisqoutfull1d = 0;
if(chisqoutfull1di < 0) chisqoutfull1di = 0;
if(xchisqout < 0) xchisqout = 0;
if(xchisqouti < 0) xchisqouti = 0;
if(xchisqout2 < 0) xchisqout = 0;
if(xchisqout2i < 0) xchisqouti = 0;
if(xchisqout3 < 0) xchisqout = 0;
if(xchisqout3i < 0) xchisqouti = 0;
if(xchisqoutfull < 0) xchisqoutfull = 0;
if(xchisqoutfulli < 0) xchisqoutfulli = 0;
if(xchisqoutfull1d < 0) xchisqoutfull1d = 0;
if(xchisqoutfull1di < 0) xchisqoutfull1di = 0;
//chisq for each point is minimum chisq of fit comparing to dCP = 0, PI, for either hierarchy
gr2->SetPoint(gr2->GetN(), i/50., sqrt(std::min( std::min(chisqout,chisqouti), std::min(xchisqout,xchisqouti) )));
gr3->SetPoint(gr3->GetN(), i/50., sqrt(std::min(std::min(chisqout3,chisqout3i),std::min(xchisqout3,xchisqout3i))));
grnh->SetPoint(grnh->GetN(), i/50., sqrt(std::min(chisqout2,xchisqout2)));
grih->SetPoint(grih->GetN(), i/50., sqrt(std::min(chisqout2i,xchisqout2i)));
grstat->SetPoint(grstat->GetN(), i/50., sqrt(std::min(std::min(chisqout2i,chisqout2),std::min(xchisqout2i,xchisqout2))));
grfull->SetPoint(grfull->GetN(), i/50., sqrt(std::min(std::min(chisqoutfulli,chisqoutfull),std::min(xchisqoutfulli,xchisqoutfull))));
gr1d->SetPoint(gr1d->GetN(), i/50., sqrt(std::min(std::min(chisqoutfull1di,chisqoutfull1d),std::min(xchisqoutfull1di,xchisqoutfull1d))));
}
axes2->Draw();
grfull->SetLineWidth(2);
grfull->SetLineColor(2);
grfull->Draw("l same");
gr1d->SetLineWidth(2);
gr1d->SetLineColor(4);
gr1d->Draw("l same");
gr2->SetLineWidth(2);
gr2->SetLineColor(4);
// gr2->Draw("l same");
gr3->SetLineWidth(2);
gr3->SetLineColor(kGreen+2);
gr3->Draw("l same");
grnh->SetLineWidth(2);
grnh->SetLineColor(1);
// grnh->Draw("l same");
grih->SetLineWidth(2);
grih->SetLineColor(2);
// grih->Draw("l same");
grstat->SetLineWidth(2);
grstat->SetLineColor(1);
grstat->Draw("l same");
gPad->SetGridx();
gPad->SetGridy();
gPad->Print("mcd.pdf");
gPad->Print("mcd.C");
}
void proj_npe_7()
{
//=========Macro generated from canvas: c/
//========= (Wed Jul 15 10:08:15 2015) by ROOT version6.04/00
TCanvas *c = new TCanvas("c", "",0,45,600,500);
c->SetHighLightColor(2);
c->Range(-2716.773,-19.2575,4381.788,173.3175);
c->SetFillColor(0);
c->SetBorderMode(0);
c->SetBorderSize(2);
c->SetFrameBorderMode(0);
c->SetFrameBorderMode(0);
Double_t _fx8[40] = {
-1533.68,
-1080.366,
-985.4475,
-967.7257,
-676.2766,
-543.2768,
0.5077484,
1.609375,
4,
230.4228,
298.6529,
327.7793,
383.4035,
536.5637,
668.7969,
863.9145,
907.8805,
964.7188,
971.6563,
1075.914,
1097.936,
1215.826,
1275.258,
1308.524,
1328.116,
1732.736,
2102.711,
2197.457,
2255.99,
2286.444,
2371.061,
2594.067,
2630.891,
2704.654,
2727.792,
2773.388,
2784.73,
2845.592,
2924.958,
3198.695};
Double_t _fy8[40] = {
2.75,
2.65,
2.65,
2.7,
2.35,
2.45,
140.25,
2.65,
2.15,
2.55,
2.35,
2.45,
2.3,
2.5,
2.65,
4.05,
2.55,
2.5,
2.35,
2.25,
2.6,
2.7,
2.7,
2.6,
2.4,
2.35,
2.8,
2.55,
2.35,
2.8,
2.4,
2.35,
2.6,
2.6,
2.45,
2.45,
2.65,
2.55,
2.55,
2.65};
TGraph *graph = new TGraph(40,_fx8,_fy8);
graph->SetName("");
graph->SetTitle("npe values of flashes in event: 7");
graph->SetFillColor(1);
Int_t ci; // for color index setting
TColor *color; // for color definition with alpha
ci = TColor::GetColor("#0000ff");
graph->SetMarkerColor(ci);
graph->SetMarkerStyle(20);
TH1F *Graph_Graph8 = new TH1F("Graph_Graph8","npe values of flashes in event: 7",100,-2006.917,3671.932);
Graph_Graph8->SetMinimum(0);
Graph_Graph8->SetMaximum(154.06);
Graph_Graph8->SetDirectory(0);
Graph_Graph8->SetStats(0);
ci = TColor::GetColor("#000099");
Graph_Graph8->SetLineColor(ci);
Graph_Graph8->GetXaxis()->SetTitle("flash_t");
Graph_Graph8->GetXaxis()->SetLabelFont(42);
Graph_Graph8->GetXaxis()->SetLabelSize(0.035);
Graph_Graph8->GetXaxis()->SetTitleSize(0.035);
Graph_Graph8->GetXaxis()->SetTitleFont(42);
Graph_Graph8->GetYaxis()->SetTitle("flash_npe");
Graph_Graph8->GetYaxis()->SetLabelFont(42);
Graph_Graph8->GetYaxis()->SetLabelSize(0.035);
Graph_Graph8->GetYaxis()->SetTitleSize(0.035);
Graph_Graph8->GetYaxis()->SetTitleFont(42);
Graph_Graph8->GetZaxis()->SetLabelFont(42);
Graph_Graph8->GetZaxis()->SetLabelSize(0.035);
Graph_Graph8->GetZaxis()->SetTitleSize(0.035);
Graph_Graph8->GetZaxis()->SetTitleFont(42);
graph->SetHistogram(Graph_Graph8);
graph->Draw("ap");
TPaveText *pt = new TPaveText(0.1823077,0.9368947,0.8176923,0.995,"blNDC");
pt->SetName("title");
pt->SetBorderSize(0);
pt->SetFillColor(0);
pt->SetFillStyle(0);
pt->SetTextFont(42);
TText *AText = pt->AddText("npe values of flashes in event: 7");
pt->Draw();
c->Modified();
c->cd();
c->SetSelected(c);
}
void Neutrals (/*TH1 *h1*/)//const char *part="e")//,int nevent = 1000)
{
cout << "TEST VII" << endl;
char infile[100];
int pz[9] = {1,2,4,8,12,16,32,40,50};
double x[9];
double means[9] = {0};
double y[9];
double mval = 0;
int lastbincont = 0;
bool lastbin = false;
int var = 11;
double intnum[1000] = {0};
double varnum[1000] = {0};
char *part[] = {"gamma","neutron","anti_neutron"};
int i = 0;
int w =4;
//TCanvas *c3 = new TCanvas("TresGraphitos","stupid graph",1);
// TH1F *h4 = new TH1F("histo","histo",1000,0,.5);
//TH2F *h3 = new TH2F("HistoGraph","HistoGraph",1000,0,.55,1000,0,1.2);
// TMarker *grmark = new TMarker();
// TCanvas *c19 = new TCanvas();
// h3->Draw();
for (int q=0; q<3; q++)
{
for (int w=0; w<9;w++)
{
cout << "TEST VI" << endl;
char ffile[100];
sprintf(ffile,"/phenix/u/jpinkenburg/sPHENIX/analysis/AntiSigma/macros/HistoBaseFiles/%s_ThinBins.root", part[q]);
TFile *f = TFile::Open(ffile);
char hname[100];
sprintf(hname,"%s%dd",part[q],pz[w]);
TH1F *h1 = (TH1F *)f->Get(hname);
var = 11;
i = 0;
while (var <= 8001)
{
if (i<1000)
{
varnum[i] = .005*(i);
intnum[i] = (h1->Integral(var-10,var))/10000.;//(h1->Integral());
i++;
}
var+=10;
}
// varnum[0] = 0;
// intnum[0] = 0;
char fname [100];
sprintf(fname, "Gamma_Neutron_Hijing_Energy_Graphs.root");
TFile *fout = TFile::Open(fname,"UPDATE");
// h1->Write();
//fout->Write();
f->Close();
//char hname[100];
//sprintf(hname,"%s%dGeV",part[q],pz[w]);
// cout << h1->Integral() << " " << hname << " " << pz[i] << endl;
//TH2 *h2 = new TH2F("hname","hname",1,0,5,1,0,1.2);
gStyle->SetOptStat(0);
TMarker *mean = new TMarker();
mean->SetMarkerStyle(20);
mean->SetMarkerColor(3);
char canvname[100];
sprintf(canvname,"%s%d",part[q],pz[w]);
//TCanvas *c3 = new TCanvas(canvname,"stupid graph",1);
//double dtot[9] = {0.1,0.2,0.3,0.4,0.5,0.6,0.7,0.8,0.9};
cout << "TEST V" << endl;
TGraph *gr = new TGraph((i-2),varnum,intnum);
char gtitle[100];
sprintf(gtitle,"%s%dGeV;ConeSize;Percentage of Energy Deposited",part[q],pz[w]);
char gname[100];
sprintf(gname,"%s%dGeV",part[q],pz[w]);
cout << intnum[50] << " " << varnum[50] << endl;
gr->SetTitle(gtitle);
gr->SetName(gname);
gr->SetMarkerStyle(20);
if (part[q] == "anti_neutron")
{
gr->SetMarkerColor(4);
}
else if (part[q] == "neutron")
{
gr->SetMarkerColor(2);
}
else if (part[q] == "gamma")
{
gr->SetMarkerColor(3);
}
else
{
cout << "idiot" << endl;
}
// gr->SetMaximum(1.2);
//h2->Draw();
//gr->Draw("A*");
gr->Draw("ALP");
//c3->DrawFrame(0,0,0.5,1.2);
// gr->PaintGrapHist((i-1),varnum,intnum,"chopt");
// gr->SetHistogram(h4);
//h4->Write();
gr->Write();
cout << "TEST 1" << endl;
// TH2F *h3 = (TH2F *) "HistoGraph";
cout << "TEST II" << endl;
cout << "TEST III" << endl;
//h3->Write();
cout << "TEST IV" << endl;
//double x;
//double y;
//gr()->GetPoint(
fout->Write();
fout->Close();
// gr->Close();
for (int a=0;a<1000;a++)
{
intnum[a] = 0;
varnum[a] = 0;
}
}
}
}
