readExclusion() {
TFile * file = new TFile("theExclusion_M115_EGMLOOSE006.root");
HypoTestInverterResult * r = dynamic_cast<HypoTestInverterResult*>( file->Get("result_r") );
double upperLimit = r->UpperLimit();
double ulError = r->UpperLimitEstimatedError();
std::cout << "The computed upper limit is: " << upperLimit << " +/- " << ulError << std::endl;
const int nEntries = r->ArraySize();
TCanvas *c0 = new TCanvas("c0","coucou",600,600);
c0->SetFillColor(0);
TString plotTitle = "CL Scan for workspace";
HypoTestInverterPlot *plot = new HypoTestInverterPlot("HTI_Result_Plot",plotTitle,r);
plot->Draw("CLb 2CL"); // plot all and Clb
c0->Print("limit_plot.gif");
const int nEntries = r->ArraySize();
cout << "N entries = " << nEntries << endl;
TCanvas * c2 = new TCanvas();
c2->Divide( 2, TMath::Ceil(nEntries/2));
for (int i=0; i<nEntries; i++) {
c2->cd(i+1);
SamplingDistPlot * pl = plot->MakeTestStatPlot(i);
pl->SetLogYaxis(true);
pl->Draw();
}
}
readExclusion_M130(){
TString massPointString = IntToString(massPoint);
TFile * file = new TFile("theExclusion_M"+massPointString+"_"+nomPlot+".root");
HypoTestInverterResult * r = dynamic_cast<HypoTestInverterResult*>( file->Get("result_r") );
double upperLimit = r->UpperLimit();
double ulError = r->UpperLimitEstimatedError();
std::cout << "The computed upper limit is: " << upperLimit << " +/- " << ulError << std::endl;
const int nEntries = r->ArraySize();
TCanvas *c0 = new TCanvas("c0","coucou",600,600);
c0->SetFillColor(0);
TString plotTitle = "CL Scan for workspace";
HypoTestInverterPlot *plot = new HypoTestInverterPlot("HTI_Result_Plot",plotTitle,r);
plot->Draw("CLb 2CL");//("CLb 2CL"); // plot all and Clb
c0->Print("limit_plot_M"+massPointString+".gif");
const int nEntries = r->ArraySize();
cout << "N entries = " << nEntries << endl;
TCanvas * c2 = new TCanvas();
c2->Divide( 2, TMath::Ceil(nEntries/2));
for (int i=0; i<nEntries; i++) {
c2->cd(i+1);
SamplingDistPlot * pl = plot->MakeTestStatPlot(i);
pl->SetLogYaxis(true);
pl->Draw();
}
std::cout << "The computed upper limit is: " << upperLimit << " +/- " << ulError << std::endl;
std::cout << "The expected limi is : " << r->GetExpectedUpperLimit(0) << endl;
float expected = r->GetExpectedUpperLimit(0);
float observed = r->UpperLimit();
float observedError = r->UpperLimitEstimatedError();
float expected1sP = r->GetExpectedUpperLimit(1);
float expected2sP = r->GetExpectedUpperLimit(2);
float expected1sM = r->GetExpectedUpperLimit(-1);
float expected2sM = r->GetExpectedUpperLimit(-2);
cout << "ZZZZ graph->SetPoint(" <<number << "," << massPoint<< "," << expected << ");" << endl;
cout << "ZZZZ grae->SetPoint(" <<number << "," << massPoint<< "," << expected << ");" << endl;
cout << "ZZZZ grae->SetPointError(" << number << ",0,0," << (expected-expected1sM) << "," << (expected1sP-expected) << ");" << endl;
cout << "ZZZZ grae2->SetPoint(" <<number << "," << massPoint<< "," << expected << ");" << endl;
cout << "ZZZZ grae2->SetPointError(" << number << ",0,0," << (expected-expected2sM) << "," << (expected2sP-expected) << ");" << endl;
cout << "ZZZZ gre->SetPoint(" <<number << "," << massPoint<< "," << observed << ");" << endl;
cout << "ZZZZ gre->SetPointError(" <<number << ",0," << observedError <<");" << endl;
}
void
RooStats::HypoTestInvTool::AnalyzeResult( HypoTestInverterResult * r,
int calculatorType,
int testStatType,
bool useCLs,
int npoints,
const char * fileNameBase ){
// analyze result produced by the inverter, optionally save it in a file
double lowerLimit = 0;
double llError = 0;
#if defined ROOT_SVN_VERSION && ROOT_SVN_VERSION >= 44126
if (r->IsTwoSided()) {
lowerLimit = r->LowerLimit();
llError = r->LowerLimitEstimatedError();
}
#else
lowerLimit = r->LowerLimit();
llError = r->LowerLimitEstimatedError();
#endif
double upperLimit = r->UpperLimit();
double ulError = r->UpperLimitEstimatedError();
//std::cout << "DEBUG : [ " << lowerLimit << " , " << upperLimit << " ] " << std::endl;
if (lowerLimit < upperLimit*(1.- 1.E-4) && lowerLimit != 0)
std::cout << "The computed lower limit is: " << lowerLimit << " +/- " << llError << std::endl;
std::cout << "The computed upper limit is: " << upperLimit << " +/- " << ulError << std::endl;
// compute expected limit
std::cout << "Expected upper limits, using the B (alternate) model : " << std::endl;
std::cout << " expected limit (median) " << r->GetExpectedUpperLimit(0) << std::endl;
std::cout << " expected limit (-1 sig) " << r->GetExpectedUpperLimit(-1) << std::endl;
std::cout << " expected limit (+1 sig) " << r->GetExpectedUpperLimit(1) << std::endl;
std::cout << " expected limit (-2 sig) " << r->GetExpectedUpperLimit(-2) << std::endl;
std::cout << " expected limit (+2 sig) " << r->GetExpectedUpperLimit(2) << std::endl;
printf("\n\n owen: (-2s,-1s,m,1s,2s) %5.2f %5.2f %5.2f %5.2f %5.2f\n\n",
r->GetExpectedUpperLimit(-2),
r->GetExpectedUpperLimit(-1),
r->GetExpectedUpperLimit(0),
r->GetExpectedUpperLimit(1),
r->GetExpectedUpperLimit(2) ) ;
// write result in a file
if (r != NULL && mWriteResult) {
// write to a file the results
const char * calcType = (calculatorType == 0) ? "Freq" : (calculatorType == 1) ? "Hybr" : "Asym";
const char * limitType = (useCLs) ? "CLs" : "Cls+b";
const char * scanType = (npoints < 0) ? "auto" : "grid";
if (mResultFileName.IsNull()) {
mResultFileName = TString::Format("%s_%s_%s_ts%d_",calcType,limitType,scanType,testStatType);
//strip the / from the filename
if (mMassValue.size()>0) {
mResultFileName += mMassValue.c_str();
mResultFileName += "_";
}
TString name = fileNameBase;
name.Replace(0, name.Last('/')+1, "");
mResultFileName += name;
}
TFile * fileOut = new TFile(mResultFileName,"RECREATE");
r->Write();
fileOut->Close();
}
// plot the result ( p values vs scan points)
std::string typeName = "";
if (calculatorType == 0 )
typeName = "Frequentist";
if (calculatorType == 1 )
typeName = "Hybrid";
else if (calculatorType == 2 || calculatorType == 3) {
typeName = "Asymptotic";
mPlotHypoTestResult = false;
}
const char * resultName = r->GetName();
TString plotTitle = TString::Format("%s CL Scan for workspace %s",typeName.c_str(),resultName);
HypoTestInverterPlot *plot = new HypoTestInverterPlot("HTI_Result_Plot",plotTitle,r);
// plot in a new canvas with style
TString c1Name = TString::Format("%s_Scan",typeName.c_str());
TCanvas * c1 = new TCanvas(c1Name);
c1->SetLogy(false);
plot->Draw("CLb 2CL"); // plot all and Clb
// if (useCLs)
// plot->Draw("CLb 2CL"); // plot all and Clb
// else
// plot->Draw(""); // plot all and Clb
const int nEntries = r->ArraySize();
// plot test statistics distributions for the two hypothesis
if (mPlotHypoTestResult) {
TCanvas * c2 = new TCanvas();
if (nEntries > 1) {
int ny = TMath::CeilNint(TMath::Sqrt(nEntries));
int nx = TMath::CeilNint(double(nEntries)/ny);
c2->Divide( nx,ny);
}
for (int i=0; i<nEntries; i++) {
if (nEntries > 1) c2->cd(i+1);
SamplingDistPlot * pl = plot->MakeTestStatPlot(i);
pl->SetLogYaxis(true);
pl->Draw();
}
}
}
void RA2bHypoTestInvDemo(const char * fileName =0,
const char * wsName = "combined",
const char * modelSBName = "ModelConfig",
const char * modelBName = "",
const char * dataName = "obsData",
int calculatorType = 0,
int testStatType = 3,
bool useCls = true ,
int npoints = 5,
double poimin = 0,
double poimax = 5,
int ntoys=1000,
int mgl = -1,
int mlsp = -1,
const char * outFileName = "test")
{
/*
Other Parameter to pass in tutorial
apart from standard for filename, ws, modelconfig and data
type = 0 Freq calculator
type = 1 Hybrid
testStatType = 0 LEP
= 1 Tevatron
= 2 Profile Likelihood
= 3 Profile Likelihood one sided (i.e. = 0 if mu < mu_hat)
useCLs scan for CLs (otherwise for CLs+b)
npoints: number of points to scan , for autoscan set npoints = -1
poimin,poimax: min/max value to scan in case of fixed scans
(if min >= max, try to find automatically)
ntoys: number of toys to use
extra options are available as global paramters of the macro. They are:
plotHypoTestResult plot result of tests at each point (TS distributions)
useProof = true;
writeResult = true;
nworkers = 4;
*/
if (fileName==0) {
fileName = "results/example_combined_GaussExample_model.root";
std::cout << "Use standard file generated with HistFactory :" << fileName << std::endl;
}
TFile * file = new TFile(fileName);
RooWorkspace * w = dynamic_cast<RooWorkspace*>( file->Get(wsName) );
HypoTestInverterResult * r = 0;
std::cout << w << "\t" << fileName << std::endl;
if (w != NULL) {
r = RunInverter(w, modelSBName, modelBName, dataName, calculatorType, testStatType, npoints, poimin, poimax, ntoys, useCls );
if (!r) {
std::cerr << "Error running the HypoTestInverter - Exit " << std::endl;
return;
}
}
else
{
// case workspace is not present look for the inverter result
std::cout << "Reading an HypoTestInverterResult with name " << wsName << " from file " << fileName << std::endl;
r = dynamic_cast<HypoTestInverterResult*>( file->Get(wsName) ); //
if (!r) {
std::cerr << "File " << fileName << " does not contain a workspace or an HypoTestInverterResult - Exit "
<< std::endl;
file->ls();
return;
}
}
printf("\n\n") ;
HypoTestResult* htr = r->GetResult(0) ;
printf(" Data value for test stat : %7.3f\n", htr->GetTestStatisticData() ) ;
printf(" CLsplusb : %9.4f\n", r->CLsplusb(0) ) ;
printf(" CLb : %9.4f\n", r->CLb(0) ) ;
printf(" CLs : %9.4f\n", r->CLs(0) ) ;
printf("\n\n") ;
cout << flush ;
double upperLimit = r->UpperLimit();
double ulError = r->UpperLimitEstimatedError();
std::cout << "The computed upper limit is: " << upperLimit << " +/- " << ulError << std::endl;
const int nEntries = r->ArraySize();
const char * typeName = (calculatorType == 0) ? "Frequentist" : "Hybrid";
const char * resultName = (w) ? w->GetName() : r->GetName();
TString plotTitle = TString::Format("%s CL Scan for workspace %s",typeName,resultName);
HypoTestInverterPlot *plot = new HypoTestInverterPlot("HTI_Result_Plot",plotTitle,r);
TCanvas* c1 = new TCanvas() ;
plot->Draw("CLb 2CL"); // plot all and Clb
c1->Update() ;
c1->SaveAs("cls-canv1.png") ;
c1->SaveAs("cls-canv1.pdf") ;
if (plotHypoTestResult) {
TCanvas * c2 = new TCanvas();
c2->Divide( 2, TMath::Ceil(nEntries/2));
for (int i=0; i<nEntries; i++) {
c2->cd(i+1);
SamplingDistPlot * pl = plot->MakeTestStatPlot(i);
pl->SetLogYaxis(true);
pl->Draw();
}
c2->Update() ;
c2->SaveAs("cls-canv2.png") ;
c2->SaveAs("cls-canv2.pdf") ;
}
std::cout << " expected limit (median) " << r->GetExpectedUpperLimit(0) << std::endl;
std::cout << " expected limit (-1 sig) " << r->GetExpectedUpperLimit(-1) << std::endl;
std::cout << " expected limit (+1 sig) " << r->GetExpectedUpperLimit(1) << std::endl;
// save 2d histograms bin to file
TH2F *result = new TH2F("result","result",22,100,1200,23,50,1200);
TH2F *exp_res = new TH2F("exp_res","exp_res",22,100,1200,23,50,1200);
TH2F *exp_res_minus = new TH2F("exp_res_minus","exp_res_minus",22,100,1200,23,50,1200);
TH2F *exp_res_plus = new TH2F("exp_res_plus","exp_res_plus",22,100,1200,23,50,1200);
result->Fill(mgl,mlsp,upperLimit);
exp_res->Fill(mgl,mlsp,r->GetExpectedUpperLimit(0));
exp_res_minus->Fill(mgl,mlsp,r->GetExpectedUpperLimit(-1));
exp_res_plus->Fill(mgl,mlsp,r->GetExpectedUpperLimit(1));
TFile *f = new TFile(outFileName,"RECREATE");
f->cd();
result->Write();
exp_res->Write();
exp_res_minus->Write();
exp_res_plus->Write();
f->Close();
if (w != NULL && writeResult) {
// write to a file the results
const char * calcType = (calculatorType == 0) ? "Freq" : "Hybr";
const char * limitType = (useCls) ? "CLs" : "Cls+b";
const char * scanType = (npoints < 0) ? "auto" : "grid";
TString resultFileName = TString::Format("%s_%s_%s_ts%d_",calcType,limitType,scanType,testStatType);
resultFileName += fileName;
TFile * fileOut = new TFile(resultFileName,"RECREATE");
r->Write();
fileOut->Close();
}
}
void HypoTestInvDemo(const char * fileName ="GausModel_b.root",
const char * wsName = "w",
const char * modelSBName = "model_sb",
const char * modelBName = "model_b",
const char * dataName = "data_obs",
int type = 0, // calculator type
int testStatType = 0, // test stat type
int npoints = 10,
int ntoys=1000,
bool useCls = true )
{
/*
type = 0 Freq calculator
type = 1 Hybrid
testStatType = 0 LEP
= 1 Tevatron
= 2 PL
*/
if (fileName==0) {
std::cout << "give input filename " << std::endl;
return;
}
TFile * file = new TFile(fileName);
RooWorkspace * w = dynamic_cast<RooWorkspace*>( file->Get(wsName) );
if (!w) {
return;
}
w->Print();
RooAbsData * data = w->data(dataName);
if (!data) {
Error("HypoTestDemo","Not existing data %s",dataName);
}
// get models from WS
// get the modelConfig out of the file
ModelConfig* bModel = (ModelConfig*) w->obj(modelBName);
ModelConfig* sbModel = (ModelConfig*) w->obj(modelSBName);
SimpleLikelihoodRatioTestStat slrts(*bModel->GetPdf(),*sbModel->GetPdf());
slrts.SetNullParameters(*bModel->GetSnapshot());
slrts.SetAltParameters(*sbModel->GetSnapshot());
RatioOfProfiledLikelihoodsTestStat
ropl(*bModel->GetPdf(), *sbModel->GetPdf(), sbModel->GetSnapshot());
ropl.SetSubtractMLE(false);
ProfileLikelihoodTestStat profll(*sbModel->GetPdf());
profll.SetOneSided(0);
TestStatistic * testStat = &slrts;
if (testStatType == 1) testStat = &ropl;
if (testStatType == 2) testStat = &profll;
HypoTestCalculatorGeneric * hc = 0;
if (type == 0) hc = new FrequentistCalculator(*data, *sbModel, *bModel);
else new HybridCalculator(*data, *sbModel, *bModel);
ToyMCSampler *toymcs = (ToyMCSampler*)hc->GetTestStatSampler();
//toymcs->SetNEventsPerToy(1);
toymcs->SetTestStatistic(testStat);
if (type == 1) {
HybridCalculator *hhc = (HybridCalculator*) hc;
hhc->SetToys(ntoys,ntoys);
// hhc->ForcePriorNuisanceAlt(*pdfNuis);
// hhc->ForcePriorNuisanceNull(*pdfNuis);
}
else
((FrequentistCalculator*) hc)->SetToys(ntoys,ntoys);
// Get the result
RooMsgService::instance().getStream(1).removeTopic(RooFit::NumIntegration);
TStopwatch tw; tw.Start();
const RooArgSet * poiSet = sbModel->GetParametersOfInterest();
RooRealVar *poi = (RooRealVar*)poiSet->first();
// fit the data first
sbModel->GetPdf()->fitTo(*data);
double poihat = poi->getVal();
//poi->setVal(30);
//poi->setError(10);
HypoTestInverter calc(*hc);
// GENA: for two-sided interval
//calc.SetConfidenceLevel(0.95);
// GENA: for 95% upper limit
calc.SetConfidenceLevel(0.90);
calc.UseCLs(useCls);
calc.SetVerbose(true);
// can spped up using proof
ProofConfig pc(*w, 2, "workers=2", kFALSE);
//ProofConfig pc(*w, 30, "localhost", kFALSE);
//ToyMCSampler * toymcs = dynamic_cast<ToyMCSampler *> (calc.GetHypoTestCalculator()->GetTestStatSampler() );
// GENA: disable proof for now
//toymcs->SetProofConfig(&pc); // enable proof
if (npoints > 0) {
// GENA
double poimin = TMath::Max(poihat - 4 * poi->getError(), 0.0);
//poimin = poihat;
double poimax = poihat + 4 * poi->getError();
poimin = 0;
poimax = 20;
//double poimin = poi->getMin();
//double poimax = poi->getMax();
std::cout << "Doing a fixed scan in interval : " << poimin << " , " << poimax << std::endl;
calc.SetFixedScan(npoints,poimin,poimax);
}
HypoTestInverterResult * r = calc.GetInterval();
// write to a file the results
TString resultFileName = (useCls) ? "CLs_" : "Cls+b_";
resultFileName += fileName;
// GENA
//TFile * file = new TFile(resultFileName,"RECREATE");
file = new TFile(resultFileName,"RECREATE");
r->Write();
file->Close();
double ulError = r->UpperLimitEstimatedError();
double upperLimit = r->UpperLimit();
std::cout << "The computed upper limit is: " << upperLimit << std::endl;
std::cout << "an estimated error on this upper limit is: " << ulError << std::endl;
// check using interpolation
// double interpLimit = r->FindInterpolatedLimit(1.-r->ConfidenceLevel() );
// cout << "The computer interpolated limits is " << interpLimit << endl;
const int nEntries = r->ArraySize();
std::vector<Double_t> xArray(nEntries);
std::vector<Double_t> yArray(nEntries);
std::vector<Double_t> yErrArray(nEntries);
for (int i=0; i<nEntries; i++) {
xArray[i] = r->GetXValue(i);
yArray[i] = r->GetYValue(i);
yErrArray[i] = r->GetYError(i);
std::cout << xArray[i] << " , " << yArray[i] << " err = " << yErrArray[i] << std::endl;
}
// see expected result (bands)
TGraph * g0 = new TGraph(nEntries);
TGraphAsymmErrors * g1 = new TGraphAsymmErrors(nEntries);
TGraphAsymmErrors * g2l = new TGraphAsymmErrors(nEntries);
TGraphAsymmErrors * g2u = new TGraphAsymmErrors(nEntries);
double p[7];
double q[7];
p[0] = ROOT::Math::normal_cdf(-2);
p[1] = ROOT::Math::normal_cdf(-1.5);
p[2] = ROOT::Math::normal_cdf(-1);
p[3] = 0.5;
p[4] = ROOT::Math::normal_cdf(1);
p[5] = ROOT::Math::normal_cdf(1.5);
p[6] = ROOT::Math::normal_cdf(2);
for (int i=0; i<nEntries; i++) {
SamplingDistribution * s = r->GetExpectedDistribution(i);
// GENA
//const std::vector<double> & values = s->GetSamplingDistribution();
const std::vector<Double_t> & cValues = s->GetSamplingDistribution();
std::vector<Double_t> values;
for (std::vector<Double_t>::const_iterator val = cValues.begin();
val != cValues.end();
++val) values.push_back(*val);
TMath::Quantiles(values.size(), 7, &values[0],q,p,false);
double p0 = q[3];
double p2l = q[1];
double p2u = q[5];
g0->SetPoint(i, r->GetXValue(i), p0 ) ;
g1->SetPoint(i, r->GetXValue(i), p0);
g2l->SetPoint(i, r->GetXValue(i), p2l);
g2u->SetPoint(i, r->GetXValue(i), p2u);
//g2->SetPoint(i, r->GetXValue(i), s->InverseCDF(0.50));
g1->SetPointEYlow(i, q[3] - q[2]); // -1 sigma errorr
g1->SetPointEYhigh(i, q[4] - q[3]);//+1 sigma error
g2l->SetPointEYlow(i, q[1]-q[0]); // -2 -- -1 sigma error
g2l->SetPointEYhigh(i, q[2]-q[1]);
g2u->SetPointEYlow(i, q[5]-q[4]);
g2u->SetPointEYhigh(i, q[6]-q[5]);
if (plotHypoTestResult) {
HypoTestResult * hr = new HypoTestResult();
hr->SetNullDistribution( r->GetBackgroundDistribution() );
hr->SetAltDistribution( r->GetSignalAndBackgroundDistribution(i) );
new TCanvas();
HypoTestPlot * pl = new HypoTestPlot(*hr);
pl->Draw();
}
}
HypoTestInverterPlot *plot = new HypoTestInverterPlot("result","",r);
TGraphErrors * g = plot->MakePlot();
g->Draw("APL");
g2l->SetFillColor(kYellow);
g2l->Draw("3");
g2u->SetFillColor(kYellow);
g2u->Draw("3");
g1->SetFillColor(kGreen);
g1->Draw("3");
g0->SetLineColor(kBlue);
g0->SetLineStyle(2);
g0->SetLineWidth(2);
g0->Draw("L");
//g1->Draw("P");
//g2->Draw("P");
g->SetLineWidth(2);
g->Draw("PL");
// GENA: two-sided interval
//double alpha = 1.-r->ConfidenceLevel();
// GENA: upper limit
double alpha = (1.-r->ConfidenceLevel())/2.0;
double x1 = g->GetXaxis()->GetXmin();
double x2 = g->GetXaxis()->GetXmax();
TLine * line = new TLine(x1, alpha, x2,alpha);
line->SetLineColor(kRed);
line->Draw();
// see the expected limit and -1 +1 sigma bands
// SamplingDistribution * limits = r->GetUpperLimitDistribution();
// std::cout << " expected limit (median) " << limits->InverseCDF(0.50) << std::endl;
// std::cout << " expected limit (-1 sig) " << limits->InverseCDF((ROOT::Math::normal_cdf(-1))) << std::endl;
// std::cout << " expected limit (+1 sig) " << limits->InverseCDF((ROOT::Math::normal_cdf(+1))) << std::endl;
tw.Print();
}
void
RooStats::HypoTestInvTool::AnalyzeResult( HypoTestInverterResult * r,
int calculatorType,
int testStatType,
bool useCLs,
int npoints,
const char * fileNameBase ){
// analyize result produced by the inverter, optionally save it in a file
double upperLimit = r->UpperLimit();
double ulError = r->UpperLimitEstimatedError();
std::cout << "The computed upper limit is: " << upperLimit << " +/- " << ulError << std::endl;
// compute expected limit
std::cout << " expected limit (median) " << r->GetExpectedUpperLimit(0) << std::endl;
std::cout << " expected limit (-1 sig) " << r->GetExpectedUpperLimit(-1) << std::endl;
std::cout << " expected limit (+1 sig) " << r->GetExpectedUpperLimit(1) << std::endl;
std::cout << " expected limit (-2 sig) " << r->GetExpectedUpperLimit(-2) << std::endl;
std::cout << " expected limit (+2 sig) " << r->GetExpectedUpperLimit(2) << std::endl;
// write result in a file
if (r != NULL && mWriteResult) {
// write to a file the results
const char * calcType = (calculatorType == 0) ? "Freq" : (calculatorType == 1) ? "Hybr" : "Asym";
const char * limitType = (useCLs) ? "CLs" : "Cls+b";
const char * scanType = (npoints < 0) ? "auto" : "grid";
TString resultFileName = TString::Format("%s_%s_%s_ts%d_",calcType,limitType,scanType,testStatType);
//strip the / from the filename
if (mMassValue.size()>0) {
resultFileName += mMassValue.c_str();
resultFileName += "_";
}
TString name = fileNameBase;
name.Replace(0, name.Last('/')+1, "");
resultFileName += name;
TFile * fileOut = new TFile(resultFileName,"RECREATE");
r->Write();
fileOut->Close();
}
// plot the result ( p values vs scan points)
std::string typeName = "";
if (calculatorType == 0 )
typeName = "Frequentist";
if (calculatorType == 1 )
typeName = "Hybrid";
else if (calculatorType == 2 ) {
typeName = "Asymptotic";
mPlotHypoTestResult = false;
}
const char * resultName = r->GetName();
TString plotTitle = TString::Format("%s CL Scan for workspace %s",typeName.c_str(),resultName);
HypoTestInverterPlot *plot = new HypoTestInverterPlot("HTI_Result_Plot",plotTitle,r);
plot->Draw("CLb 2CL"); // plot all and Clb
const int nEntries = r->ArraySize();
// plot test statistics distributions for the two hypothesis
if (mPlotHypoTestResult) {
TCanvas * c2 = new TCanvas();
if (nEntries > 1) {
int ny = TMath::CeilNint( sqrt(nEntries) );
int nx = TMath::CeilNint(double(nEntries)/ny);
c2->Divide( nx,ny);
}
for (int i=0; i<nEntries; i++) {
if (nEntries > 1) c2->cd(i+1);
SamplingDistPlot * pl = plot->MakeTestStatPlot(i);
pl->SetLogYaxis(true);
pl->Draw();
}
}
}