int main() {
TList *list = new TList();
printf_s("list.First() = %s\n", list->First());
printf_s("list.Pop() = %s\n", list->Pop());
list->Push("Hola");
printf_s("Pushed \"Hola\"!\n");
list->Push("Holita");
printf_s("Pushed \"Holita\"!\n");
list->Push("Que tal?");
printf_s("Pushed \"Que tal?\"!\n");
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.First() = %s\n", list->First());
printf_s("list.Pop() = %s\n", list->Pop());
printf_s("list.First() = %s\n", list->First());
list->Push("Hola");
list->Reset();
printf_s("list reset!\n");
printf_s("list.First() = %s\n", list->First());
printf_s("list.Next() = %s\n", list->Next());
delete list;
getchar();
}
void collectContours(map<string,TGraph2D *>& m_graphs,
const vector<string>& keys,
map<string,double>& m_contourlevels,
map<string,TList *>& m_contours)
{
cout << "CollectContours" << endl;
TCanvas *canv = new TCanvas("dummy","dummy",100,100);
//canv->Divide(3,2);
std::cout << "keys.size() = " << keys.size() << std::endl;
//process TGraph2Ds into contours at levels m_contourlevels
for (size_t i=0; i<keys.size(); i++) {
double clev = m_contourlevels[keys[i]];
TGraph2D *gr2d = m_graphs[keys[i]];
std::cout << "gr2d = " << gr2d << std::endl;
std::cout << "gr2d->GetN() = " << gr2d->GetN() << std::endl;
if (gr2d && (gr2d->GetN() > 0)) {
gr2d->GetHistogram()->SetContour(1, &clev);
//canv->cd(i+1);
cout << "drawing... " << endl;
gr2d->Draw("CONT LIST"); // it's stupid, but only "CONT" will generate the list
gPad->Update();
TObjArray *contours = (TObjArray *)gROOT->GetListOfSpecials()->FindObject("contours");
assert(contours);
TList *newlist = 0;
for (int ci=0; ci<contours->GetEntriesFast(); ci++) {
TList *contLevel = (TList*)contours->At(ci);
printf("%s: Contour %d has %d Graphs\n", keys[i].c_str(), ci, contLevel->GetSize());
if (contLevel->GetSize()) {
assert(contLevel->First());
if (!newlist) newlist = new TList();
TGraph *curv = (TGraph*)(contLevel->First());
for (int j=0; j<contLevel->GetSize(); j++) {
newlist->Add((TGraph *)(curv->Clone()));
curv=(TGraph *)(contLevel->After(curv));
}
}
} // contour loop
cout << "Inserting contour list for "<< keys[i] << " newlist="<<newlist<<endl;
m_contours[keys[i]] = newlist;
} // if (gr2d)
} // key loop
//delete canv;
} // collectContours
void KVClassFactory::AddAllBaseConstructors()
{
// Add constructors with the same signature as all base class constructors
// (apart from the default ctor or any copy constructors, which are a special case)
// By default, all constructors are 'public'.
if(!fBaseClass) return;
KVHashList clist;
clist.AddAll(fBaseClass->GetListOfMethods());
KVSeqCollection* constructors = clist.GetSubListWithName(fBaseClassName);
TIter next_ctor(constructors);
TMethod* method;
while( (method = (TMethod*)next_ctor()) )
{
if(!method->GetNargs()) continue; // ignore default ctor
TList* args = method->GetListOfMethodArgs();
TMethodArg* arg = (TMethodArg*)args->First();
TString typenam=arg->GetFullTypeName();
if(typenam.Contains(fBaseClassName)) continue; // ignore copy ctor
KVClassMethod* ctor;
if(arg->GetDefault()) ctor = AddConstructor( typenam, arg->GetName(), arg->GetDefault() );
else ctor = AddConstructor(typenam, arg->GetName());
for(int i=1; i<method->GetNargs(); i++){
arg = (TMethodArg*)args->At(i);
if(arg->GetDefault()) ctor->AddArgument( arg->GetFullTypeName(), arg->GetName(), arg->GetDefault() );
else ctor->AddArgument(arg->GetFullTypeName(), arg->GetName());
}
}
delete constructors;
}
void TGo4LogInfo::linkedObjectUpdated(const char * linkname, TObject * obj)
{
TList* lst = dynamic_cast<TList*>(obj);
if (lst != 0) {
TListIter iter(lst, kFALSE);
TObject* obj = 0;
while ((obj = iter()) != 0) {
// first item is id of current status message, used to submit next request
if (obj==lst->First()) continue;
const char* msg = obj->GetName();
const char* separ = strchr(msg,':');
if ((separ==0) || (strlen(separ)<3)) continue;
Long64_t tm = TString(msg, separ-msg).Atoll();
QDateTime dt;
dt.setTime_t((time_t) tm);
separ++;
int level = 1;
if (*separ=='2') level=2; else
if (*separ=='3') level=3;
AddMessage(dt, level, separ+2);
}
} else
if (obj!=0) {
AddMessage(QDateTime::currentDateTime(), 0, obj->GetName());
}
}
void compareHistos( char *Current, char *Reference=0 ) {
TText* te = new TText();
te->SetTextSize(0.1);
TFile * curfile = new TFile( TString(Current)+".root" );
TFile * reffile = curfile;
if (Reference) reffile = new TFile(TString(Reference)+".root");
char * prefix="DQMData/MixingV/Mixing";
//1-Dimension Histogram
TDirectory * refDir=reffile->GetDirectory(prefix);
TDirectory * curDir=curfile->GetDirectory(prefix);
TList* list = refDir->GetListOfKeys();
TObject* object = list->First();
int iHisto = 0;
char title[50];
while (object) {
// find histo objects
std::cout << " object :" << object->GetName() << std::endl;
TProfile * h1 = dynamic_cast<TProfile*>( refDir->Get(object->GetName()));
TProfile * h2 = dynamic_cast<TProfile*>( curDir->Get(object->GetName()));
bool isHisto = (refDir->Get(object->GetName()))->InheritsFrom("TProfile");
std::cout << " isHisto = " << isHisto << std::endl;
if (isHisto && h1 && h2 && *h1->GetName()== *h2->GetName()) {
iHisto++;
char title[50];
// draw and compare
std::cout << " Start draw and compare" << std::endl;
TCanvas c1;
TProfile htemp2;
h2->Copy(htemp2);// to keep 2 distinct histos
h1->SetLineColor(2);
htemp2.SetLineColor(3);
h1->SetLineStyle(3);
h1->SetMarkerColor(3);
htemp2.SetLineStyle(5);
htemp2.SetMarkerColor(5);
TLegend leg(0.1, 0.15, 0.2, 0.25);
leg.AddEntry(h1, "Reference", "l");
leg.AddEntry(&htemp2, "New ", "l");
h1->Draw();
htemp2.Draw("Same");
leg.Draw();
sprintf(title,"%s%s", object->GetName(),".gif");
c1.Print(title);
}
// go to next object
object = list->After(object);
}
}
void DoCompare( char *Current, char *Reference=0 ){
TText* te = new TText();
te->SetTextSize(0.1);
gROOT->ProcessLine(".x HistoCompare.C");
HistoCompare * myPV = new HistoCompare();
TFile * curfile = new TFile( TString(Current)+".root" );
TFile * reffile = curfile;
if (Reference) reffile = new TFile(TString(Reference)+".root");
char * prefix="DQMData/MixingV/";
//1-Dimension Histogram
TDirectory * refDir=reffile->GetDirectory(prefix);
TDirectory * curDir=curfile->GetDirectory(prefix);
TList* list = refDir->GetListOfKeys();
TObject* object = list->First();
int iHisto = 0; char title[50];
while (object) {
// find histo objects
TH1F * h1 = dynamic_cast<TH1F*>( refDir->Get(object->GetName()));
TH1F * h2 = dynamic_cast<TH1F*>( curDir->Get(object->GetName()));
bool isHisto = (refDir->Get(object->GetName()))->InheritsFrom("TH1F");
if (isHisto && h1 && h2 && *h1->GetName()== *h2->GetName()) {
iHisto++;
char title[50];
// draw and compare
TCanvas c1;
TH1F htemp2;
h2->Copy(htemp2);// to keep 2 distinct histos
h1->SetLineColor(2);
htemp2.SetLineColor(3);
h1->SetLineStyle(3);
htemp2.SetLineStyle(5);
TLegend leg(0.1, 0.15, 0.2, 0.25);
leg.AddEntry(h1, "Reference", "l");
leg.AddEntry(&htemp2, "New ", "l");
h1->Draw();
htemp2.Draw("Same");
leg.Draw();
myPV->PVCompute(h1,&htemp2, te);
sprintf(title,"%s%s", object->GetName(),".eps");
c1.Print(title);
}
// go to next object
object = list->After(object);
}
}
TGraph* ContourGraph( TH2F* hist,double xmin=16, double xmax=90) {
//temporary canvas
TCanvas* MOO = new TCanvas( TString::Format("dummy_canvas_%s", hist->GetName()), "A scan of m_{0} versus m_{12}", 0, 0, 650,640);
MOO->cd();
TGraph* gr0 = new TGraph();
TH2F* h = (TH2F*)hist->Clone();
TGraph* gr = (TGraph*)gr0->Clone(TString::Format("gr_%s", h->GetName()));
cout << "==> Will dumb histogram: " << h->GetName() << " into a graph" <<endl;
h->SetContour( 1 );
//h->GetXaxis()->SetRangeUser(250,1200);
h->GetXaxis()->SetRangeUser(xmin, xmax);
//h->GetYaxis()->SetRangeUser(2,50);
double pval = CombinationGlob::cl_percent[1];
std::cout << pval << std::endl;
double signif = TMath::NormQuantile(1-pval);
h->SetContourLevel( 0, signif );
h->Draw("CONT LIST");
h->SetDirectory(0);
gPad->Update();
TObjArray *contours = (TObjArray*) gROOT->GetListOfSpecials()->FindObject("contours");
Int_t ncontours = contours->GetSize();
cout << "Found " << ncontours << " contours " << endl;
TList *list = (TList*)contours->At(0);
contours->Print("v");
if(!list) return NULL;
gr = (TGraph*)list->First();
if(!gr) return NULL;
gr->SetName(TString::Format("gr_%s", hist->GetName()));
//gr->SetName(hist->GetName());
int N = gr->GetN();
double x0, y0;
for(int j=0; j<N; j++) {
gr->GetPoint(j,x0,y0);
cout << j << " : " << x0 << " : "<<y0 << endl;
}
// // gr->SetMarkerSize(2.0);
//gr->Draw("ALP");
delete MOO;
cout << "Generated graph " << gr << " with name " << gr->GetName() << endl;
return gr;
}
TList PlotAlignmentValidation::getTreeList()
{
TList treeList = new TList();
TFile *first_source = (TFile*)sourcelist->First();
std::cout<<first_source->GetName()<<std::endl;
TDirectoryFile *d=(TDirectoryFile*)first_source->Get( treeBaseDir.c_str() );
treeList.Add( (TTree*)(*d).Get("TkOffVal") );
if( moreThanOneSource ==true ){
TFile *nextsource = (TFile*)sourcelist->After( first_source );
while ( nextsource ) {
std::cout<<nextsource->GetName()<<std::endl;
d=(TDirectoryFile*)nextsource->Get("TrackerOfflineValidation");
treeList.Add((TTree*)(*d).Get("TkOffVal"));
nextsource = (TFile*)sourcelist->After( nextsource );
}
}return treeList;
}
/**
* Get or create a stack legend. This is done by adding a TLegend
* object to the list of functions for the first histogram in the
* stack.
*
* @param stack Stack to get the legend from/modify
*
* @return The legend object or null
*/
TLegend* StackLegend(THStack* stack)
{
TList* hists = stack->GetHists();
if (!hists) return 0;
TObject* first = hists->First();
if (!first) return 0;
TH1* hist = static_cast<TH1*>(first);
TList* list = hist->GetListOfFunctions();
TObject* o = list->FindObject("legend");
if (o) return static_cast<TLegend*>(o);
TLegend* l = new TLegend(0.65, 0.65, 0.9, 0.9, "", "NDC");
l->SetName("legend");
l->SetBorderSize(0);
l->SetFillColor(0);
l->SetFillStyle(0);
l->SetTextFont(42);
list->Add(l);
return l;
}
TList* getContours(const TH2* hist,double contourLevel,const TString filename)
{
TH2* h = (TH2*)hist->Clone("_clone");
double limitValue[1] = {contourLevel};
h->SetContour(1,limitValue);
TCanvas* c = new TCanvas("contour_canvas","Contour List",0,0,600,600);
h->Draw("CONT LIST");
c->Update();
TList* contours = (TList*)((TObjArray*)gROOT->GetListOfSpecials()->FindObject("contours"))->At(0);
TGraph* contour = (TGraph*)contours->First();
if(filename!="")
{
for(unsigned int j = 0; j < contours->GetSize(); j++)
{
TString newFilename = filename+"_";
newFilename+=j;
contour->SaveAs(newFilename+".C");
contour = (TGraph*)contours->After(contour); // Get Next graph
}
}
delete h;
delete c;
return contours;
}
void merge(TString outfile, TString firstfile, TString pat=defaultPattern)
{
TList decayModes;
bool save=false;
TString dir=".";
TString first="";
long flags=0,id=0,size=0,modtime=0;
if(firstfile.Contains("~"))
{
cout<<"ERROR: input path cannot contain '~' character."<<endl;
return;
}
// Check pattern
TRegexp pattern(pat,true);
if(pattern.Status()!=0)
{
cout<<"ERROR: Wrong regular expression."<<endl;
return;
}
// Load libraries
loadLibs();
gSystem->GetPathInfo(firstfile, &id, &size, &flags, &modtime);
bool isDirectory = flags&2;
if(isDirectory)
{
dir=firstfile;
first="";
}
else
{
//Separate directory from filename
int separator=firstfile.Last('/');
if(separator!=-1) dir=firstfile(0,separator+1);
first=firstfile(separator+1,firstfile.Length());
}
cout<<"Output file: "<<outfile<<endl;
cout<<"Input dir: "<<dir<<endl;
if(!isDirectory) cout<<"First file: "<<first<<endl;
cout<<endl;
// Get file list and add first file if present
TList *files = getFileList(first,dir,pattern);
if(!isDirectory)
{
TFile *ff = new TFile(firstfile,"READ");
files->AddBefore(files->First(),ff);
}
// Merge files
TIter next(files);
TFile *file;
while(file = (TFile*)next())
{
if(!file->IsOpen()) continue;
ReadFile(file,decayModes);
cout<<"=============================="<<endl;
save=true;
}
// Save output
if(save)
{
cout<<"Saving..."<<endl;
SaveOutput(outfile,decayModes);
cout<<"Output saved to "<<outfile<<endl<<endl;
}
else cout<<"Nothing to save."<<endl<<endl;
// Closing files
cout<<"Closing files..."<<endl;
TIter cl(files);
while(file = (TFile*)cl()) { file->Close(); delete file; }
delete files;
gSystem->Exit(0);
}
void ttreesToHistograms() {
//********************************************************************
//**** Variables ****//
cout << "Loading variables into vectors..." << endl;
vector<TString> fileName;
fileName.push_back( "rootfiles0/PhotonJetPt15_Summer09.root" );//file0
fileName.push_back( "rootfiles0/PhotonJetPt30_Summer09.root" );//file1
fileName.push_back( "rootfiles0/PhotonJetPt80_Summer09.root" );//file2
fileName.push_back( "rootfiles0/PhotonJetPt170_Summer09.root" );//file3
fileName.push_back( "rootfiles0/PhotonJetPt300_Summer09.root" );//file4
fileName.push_back( "rootfiles0/PhotonJetPt470_Summer09.root" );//file5
fileName.push_back( "rootfiles0/PhotonJetPt800_Summer09.root" );//file6
TString treeName = "TreePhotonJet";
TString outputFileName = "PhotonJetHists-2009-09-02-matchesReco.root";
//*********************************
//**** Set Scale
// The following 4 number set the scale
// example:
// scale = (integrated luminosity (1/pb))*(cross section (pb))*(filter eff)/(events analyzed)
float invLuminosityToScaleTo = 200; // in pb-1
vector<float> crossSection;
crossSection.push_back( 2.887E5 -3.222E4 ); // in pb
crossSection.push_back( 3.222E4 -1.010E3 );
crossSection.push_back( 1.010E3 -5.143E1 );
crossSection.push_back( 5.143E1 -4.193E0 );
crossSection.push_back( 4.193E0 -4.515E-1 );
crossSection.push_back( 4.515E-1 -2.003E-2 );
crossSection.push_back( 2.003E-2 );
vector<float> filterEffeciency;
filterEffeciency.push_back( 1.0 );
filterEffeciency.push_back( 1.0 );
filterEffeciency.push_back( 1.0 );
filterEffeciency.push_back( 1.0 );
filterEffeciency.push_back( 1.0 );
filterEffeciency.push_back( 1.0 );
filterEffeciency.push_back( 1.0 );
vector<float> eventsAnalyzied;
eventsAnalyzied.push_back( 1073270 );
eventsAnalyzied.push_back( 1088546 );
eventsAnalyzied.push_back( 993509 );
eventsAnalyzied.push_back( 1483940 );
eventsAnalyzied.push_back( 1024589 );
eventsAnalyzied.push_back( 1014413 );
eventsAnalyzied.push_back( 1216320 );
// END of setting scale
//*********************************
//*********************************
//**** Set Cuts ****//
// Variables will be plotted for each "location"
vector<TString> locationCut;
locationCut.push_back( "abs(hardGenPhoton_eta)>1.55&&abs(hardGenPhoton_eta)<2.5" );
locationCut.push_back( "abs(hardGenPhoton_eta)<1.45" );
vector<TString> locationName;
locationName.push_back( "Endcap" );
locationName.push_back( "Barrel" );
// These cuts will be merged into one giant cut, applied to all plots for all files
vector<TString> cuts;
cuts.push_back( "hardGenPhoton_et>15.0&&photon_et>15.0&&photon_matches_hardGen>0.5" );
// These cuts will be applied only to corresponding file
vector<TString> fileCuts;
fileCuts.push_back( "event_genEventScale>15&&event_genEventScale<30" ); //file0
fileCuts.push_back( "event_genEventScale>30&&event_genEventScale<80" ); //file1
fileCuts.push_back( "event_genEventScale>80&&event_genEventScale<170" ); //file2
fileCuts.push_back( "event_genEventScale>170&&event_genEventScale<300" ); //file3
fileCuts.push_back( "event_genEventScale>300&&event_genEventScale<470" ); //file4
fileCuts.push_back( "event_genEventScale>470&&event_genEventScale<800" ); //file5
fileCuts.push_back( "event_genEventScale>800&&event_genEventScale<1400" ); //file6
//**** END of setting cuts
//*********************************
//*********************************
int locationVariablesToPlot[2][2]; // [a][b], a=number of locations, b=2 (for min,max range of variables to plot)
locationVariablesToPlot[0][0] = 16; // Endcap
locationVariablesToPlot[0][1] = 35;
locationVariablesToPlot[1][0] = 16; // Barrel
locationVariablesToPlot[1][1] = 35;
/*locationVariablesToPlot[2][0] = 0;
locationVariablesToPlot[2][1] = 4;
locationVariablesToPlot[3][0] = 0;
locationVariablesToPlot[3][1] = 4;
locationVariablesToPlot[4][0] = 0;
locationVariablesToPlot[4][1] = 4;
locationVariablesToPlot[5][0] = 0;
locationVariablesToPlot[5][1] = 4;
locationVariablesToPlot[6][0] = 0;
locationVariablesToPlot[6][1] = 4;
locationVariablesToPlot[7][0] = 0;
locationVariablesToPlot[7][1] = 4;*/
// Variables you want plotted
vector<TString> variableToPlot;
// --- the following require gen level info
variableToPlot.push_back( "hardGenPhoton_et" ); // 0
variableToPlot.push_back( "hardGenPhoton_eta" );
variableToPlot.push_back( "hardGenPhoton_phi" );
variableToPlot.push_back( "fmod(hardGenPhoton_phi+3.141592,20.0*3.141592/180.0)-10.0*3.141592/180.0" );
variableToPlot.push_back( "abs(hardGenPhoton_eta)" ); // 4
variableToPlot.push_back( "(recPhoton.energy-hardGenPhoton_energy)/hardGenPhoton_energy" );
variableToPlot.push_back( "(recPhoton.energy-hardGenPhoton_energy)/hardGenPhoton_energy:hardGenPhoton_energy" );
variableToPlot.push_back( "(recPhoton.energy-hardGenPhoton_energy)/hardGenPhoton_energy:abs(hardGenPhoton_eta)" );
variableToPlot.push_back( "(recPhoton.energy-hardGenPhoton_energy)/hardGenPhoton_energy:hardGenPhoton_phiMod" );
variableToPlot.push_back( "photon_hadronicOverEm:hardGenPhoton_et" );
variableToPlot.push_back( "photon_hadronicOverEm:abs(hardGenPhoton_eta)" ); // 10
variableToPlot.push_back( "photon_hadronicOverEm:hardGenPhoton_phiMod" );
variableToPlot.push_back( "photon_eta-hardGenPhoton_eta" );
variableToPlot.push_back( "photon_eta-hardGenPhoton_eta:hardGenPhoton_et" );
variableToPlot.push_back( "photon_eta-hardGenPhoton_eta:abs(hardGenPhoton_eta)" );
variableToPlot.push_back( "deltaPhiGenRecPhoton" ); // 15
// --- the following require only rec photons
variableToPlot.push_back( "photon_et" ); // 16
variableToPlot.push_back( "photon_eta" );
variableToPlot.push_back( "photon_phi" );
variableToPlot.push_back( "fmod(photon_phi+3.141592,20.0*3.141592/180.0)-10.0*3.141592/180.0" );
variableToPlot.push_back( "abs(photon_eta)" ); // 20
variableToPlot.push_back( "photon_r9" );
variableToPlot.push_back( "photon_ecalRecHitSumEtConeDR03" );
variableToPlot.push_back( "photon_hcalTowerSumEtConeDR03" );
variableToPlot.push_back( "photon_trkSumPtSolidConeDR03" );
variableToPlot.push_back( "photon_trkSumPtHollowConeDR03" ); //25
variableToPlot.push_back( "photon_nTrkSolidConeDR03" );
variableToPlot.push_back( "photon_nTrkHollowConeDR03" );
variableToPlot.push_back( "photon_hadronicOverEm" );
variableToPlot.push_back( "photon_r2x5" );
variableToPlot.push_back( "photon_ecalRecHitSumEtConeDR03/photon_et" ); // 30
variableToPlot.push_back( "photon_hcalTowerSumEtConeDR03/photon_et" );
variableToPlot.push_back( "photon_trkSumPtSolidConeDR03/photon_et" );
variableToPlot.push_back( "photon_trkSumPtHollowConeDR03/photon_et" );
// --- the following require jets
/*variableToPlot.push_back( "calcDeltaPhi(photon_phi,jet_phi)" );
variableToPlot.push_back( "calcDeltaPhi(photon_phi,jet2_phi)" ); // 35
variableToPlot.push_back( "calcDeltaPhi(jet_phi,jet2_phi)" );*/
variableToPlot.push_back( "(photon_et-jet_et)/photon_et" );
variableToPlot.push_back( "jet2_et/photon_et" );
// Histograms for the above variables
vector<TH1*> histogram;
// --- the following require gen level info
histogram.push_back( new TH1F("photonGenEt", "Photon E_{T} ;E_{T} (GeV);entries per 15 GeV", 50, 0, 750) ); // 0
histogram.push_back( new TH1F("photonGenEta", "Photon #eta ;#eta;entries per 0.1 bin", 61, -3.05, 3.05) );
histogram.push_back( new TH1F("photonGenPhi", "Photon #phi ;#phi;entries per bin", 62, (-1.-1./30.)*TMath::Pi(), (1.+1./30.)*TMath::Pi()) );
histogram.push_back( new TH1F("photonGenPhiMod", "Photon #phi_{mod} ", 42, (-1.-1./20)*0.1745329, (1.+1./20.)*0.1745329) );
histogram.push_back( new TH1F("photonGenAbsEta", "Photon |#eta| ", 51, 0.00, 2.55) );
histogram.push_back( new TH1F("photonDeltaE", "(E(#gamma_{rec})-E(#gamma_{gen}))/E(#gamma_{gen}) ", 50, -0.8, 0.3) );
histogram.push_back( new TH2F("photonDeltaE_vs_E","(E(#gamma_{rec})-E(#gamma_{gen}))/E(#gamma_{gen}) vs E(#gamma_{gen}) ", 50, 0, 3000, 50, -0.8, 0.3) );
histogram.push_back( new TH2F("photonDeltaE_vs_AbsEta","(E(#gamma_{rec})-E(#gamma_{gen}))/E(#gamma_{gen}) vs |#eta(#gamma_{gen}|) ", 51, 0.0, 2.5, 50, -0.8, 0.3) );
histogram.push_back( new TH2F("photonDeltaE_vs_PhiMod","(E(#gamma_{rec})-E(#gamma_{gen}))/E(#gamma_{gen}) vs #phi_{mod}(#gamma_{gen}) ", 42, (-1.-1./20)*0.1745329, (1.+1./20.)*0.1745329, 50, -0.9, 0.2) );
histogram.push_back( new TH2F("photonHoverE_vs_Et", "H/E vs E_{T}(#gamma_{gen}) ", 50, 0, 1000, 50, 0.0, 0.2) );
histogram.push_back( new TH2F("photonHoverE_vs_AbsEta", "H/E vs |#eta(#gamma_{gen})| ", 51, 0.0, 2.5, 50, 0.0, 0.2) );
histogram.push_back( new TH2F("photonHoverE_vs_PhiMod", "H/E vs #phi_{mod}(#gamma_{gen}) ", 42, (-1.-1./20)*0.1745329, (1.+1./20.)*0.1745329, 50, 0.0, 0.2) );
histogram.push_back( new TH1F("photonDeltaEta", "#Delta#eta(#gamma_{rec},#gamma_{gen}) ;#Delta#eta(#gamma_{rec},#gamma_{gen});entries/bin", 41, -0.01, 0.01) );
histogram.push_back( new TH2F("photonDeltaEta_vs_Et", "#Delta#eta(#gamma_{rec},#gamma_{gen}) vs E_{T}(#gamma_{gen}) ", 50, 0, 1000, 41, -0.1, 0.1) );
histogram.push_back( new TH2F("photonDeltaEta_vs_AbsEta","#Delta#eta(#gamma_{rec},#gamma_{gen}) vs #eta(#gamma_{gen})", 51, 0.0, 2.55, 41, -0.1, 0.1) );
histogram.push_back( new TH1F("photonDeltaPhi", "#Delta#phi(#gamma_{rec},#gamma_{gen}) ;#Delta#phi(#gamma_{rec},#gamma_{gen});entries/bin", 41, 0.0, 0.01) ); // 15
// --- the following require only rec photons
histogram.push_back( new TH1F("photonEt", "Photon E_{T} ;E_{T} (GeV);entries per 15 GeV", 50, 0, 750 ) ); // 16
histogram.push_back( new TH1F("photonEta", "Photon #eta ;#eta;entries per 0.1" , 61, -3.05, 3.05) );
histogram.push_back( new TH1F("photonPhi", "Photon #phi ;#phi;entries per bin" , 62, (-1.-1./30.)*TMath::Pi(), (1.+1./30.)*TMath::Pi()) );
histogram.push_back( new TH1F("photonPhiMod", "Photon #phi_{mod} " , 42, (-1.-1./20)*0.1745329, (1.+1./20.)*0.1745329) );
histogram.push_back( new TH1F("photonAbsEta", "Photon |#eta| " , 51, 0.00, 2.55) ); // 20
histogram.push_back( new TH1F("photonR9", "R9 = E(3x3) / E(SuperCluster) ;R9;entries/bin" , 50, 0.6, 1.0) );
histogram.push_back( new TH1F("photonEcalIso", "#SigmaEcal Rec Hit E_{T} in Hollow #DeltaR cone " , 50, 0 , 15) );
histogram.push_back( new TH1F("photonHcalIso", "#SigmaHcal Rec Hit E_{T} in Hollow #DeltaR cone " , 50, 0 , 15) );
histogram.push_back( new TH1F("photonTrackSolidIso", "#Sigmatrack p_{T} in Solid #DeltaR cone " , 50, 0 , 15) );
histogram.push_back( new TH1F("photonTrackHollowIso", "#Sigmatrack p{T} in Hollow #DeltaR cone " , 50, 0 , 15) ); // 25
histogram.push_back( new TH1F("photonTrackCountSolid", "Number of tracks in Solid #DeltaR cone ;Number of Tracks;entries/bin" , 25, -0.5, 24.5) );
histogram.push_back( new TH1F("photonTrackCountHollow", "Number of tracks in Hollow #DeltaR cone ;Number of Tracks;entries/bin", 25, -0.5, 24.5) );
histogram.push_back( new TH1F("photonHoverE", "Hadronic / EM ", 50, 0.0, 0.2) );
histogram.push_back( new TH1F("photonScSeedE2x5over5x5", "E2x5/E5x5 " , 50, 0.6, 1.0) );
histogram.push_back( new TH1F("photonEcalIsoOverE", "#SigmaEcal Rec Hit E_{T} in #DeltaR cone / Photon E_{T} " , 50, -0.1, 1.0) ); // 30
histogram.push_back( new TH1F("photonHcalIsoOverE", "#SigmaHcal Rec Hit E_{T} in #DeltaR cone / Photon E_{T} " , 50, -0.1, 1.0) );
histogram.push_back( new TH1F("photonTrackSolidIsoOverE" , "#SigmaTrack p_{T} in #DeltaR cone / Photon E_{T} " , 50, -0.1, 1.0) );
histogram.push_back( new TH1F("photonTrackHollowIsoOverE", "#SigmaTrack p_{T} in Hollow #DeltaR cone / Photon E_{T} " , 50, -0.1, 1.0) );
// --- the following require jets
/*histogram.push_back( new TH1F("h_deltaPhi_photon_jet", "#Delta#phi between Highest E_{T} #gamma and jet;#Delta#phi(#gamma,1^{st} jet)" , 50, 0, 3.1415926) );
histogram.push_back( new TH1F("h_deltaPhi_photon_jet2","#Delta#phi between Highest E_{T} #gamma and 2^{nd} highest jet;#Delta#phi(#gamma,2^{nd} jet)", 50, 0, 3.1415926) );
histogram.push_back( new TH1F("h_deltaPhi_jet_jet2" , "#Delta#phi between Highest E_{T} jet and 2^{nd} jet;#Delta#phi(1^{st} jet,2^{nd} jet)" , 50, 0, 3.1415926) );*/
histogram.push_back( new TH1F("h_deltaEt_photon_jet" , "(E_{T}(#gamma)-E_{T}(jet))/E_{T}(#gamma) when #Delta#phi(#gamma,1^{st} jet) > 2.8;#DeltaE_{T}(#gamma,1^{st} jet)/E_{T}(#gamma)", 20, -1.0, 1.0) );
histogram.push_back( new TH1F("h_jet2_etOverPhotonEt", "E_{T}(2^{nd} highest jet) / E_{T}(#gamma);E_{T}(2^{nd} Jet)/E_{T}(#gamma)", 20, 0.0, 4.0) );
//**** END of Variables ****//
//********************************************************************
//********************************************************************
//**** Main part of Program ****//
// Human error checking
if (variableToPlot.size() != histogram.size() ) {
cout << "Should have equal entries in histogram and variableToPlot vector." << endl;
return;
}
if (fileName.size() > crossSection.size() ) {
cout << "Should have equal entries in fileName and crossSection vetor." << endl;
return;
}
if (fileName.size() > fileCuts.size() ) {
cout << "Should have equal entries in fileName and fileCuts vector." << endl;
return;
}
// Combine all the cuts into one
cout << endl << "Cuts that will be applied to everything: " << endl << " ";
TCut allCuts = "";
for (int i =0; i<cuts.size(); i++) {
allCuts += cuts[i];
if (i>0) cout << "&&";
cout << "(" << cuts[i] << ")";
}
cout << endl << endl;
// Open the files & set their scales
cout << endl << "Histograms will be scaled to " << invLuminosityToScaleTo << "pb-1 " << endl;
cout << "Looking for TTree named \"" << treeName << "\" in files..." << endl;
vector<float> fileScale;
TList *fileList = new TList();
for (int i=0; i < fileName.size(); i++) {
TFile* currentFile = TFile::Open(fileName[i]);
fileList->Add(currentFile);
float currentScale = crossSection[i]*invLuminosityToScaleTo*filterEffeciency[i]/eventsAnalyzied[i];
fileScale.push_back( currentScale );
// Display entries in that file's TTree
TTree* tree;
currentFile->GetObject(treeName, tree);
cout << "file" << i <<": " << fileName[i] << " contains " << tree->GetEntries(allCuts) << " entries, and will be scaled by " <<
currentScale << endl;
}
cout << endl << endl;
//Create output file
TFile *outputFile = TFile::Open( outputFileName, "RECREATE" );
//************************************************************
// Core of the Script //
// Loop over locations
for (int l=0; l<locationName.size(); l++) {
TString currentLocation = locationName[l];
TCut currentCuts = allCuts;
currentCuts += locationCut[l];
cout << "Creating plots for " << currentLocation << ", " << locationCut[l] << endl;
// Loop over variables to plot
for (int i=0; i<variableToPlot.size(); i++) {
// should we plot this variable for this location?
if (i<locationVariablesToPlot[l][0] || i>locationVariablesToPlot[l][1]) continue;
TString currentHistType = histogram[i]->IsA()->GetName();
TString currentHistName = TString(histogram[i]->GetName()) + "_" + currentLocation;
TString currentHistTitle = TString(histogram[i]->GetTitle()) + "(" + currentLocation + ")";
cout << " " << variableToPlot[i] << " >> " << currentHistName;
TString currentHistDrawOpt;
if (currentHistType=="TH2F") {
currentHistDrawOpt="goffbox";
} else {
currentHistDrawOpt="egoff";
}
TH1* currentHist = (TH1*)histogram[i]->Clone(currentHistName); // Creates clone with name currentHistName
currentHist->Sumw2(); // store errors
currentHist->SetTitle(currentHistTitle);
//cout << " from file";
// Plot from the first file
int f = 0;
//cout << f;
TTree *tree;
TFile *current_file = (TFile*)fileList->First();
current_file->cd();
current_file->GetObject(treeName, tree);
tree->Draw(variableToPlot[i]+">>"+currentHistName,currentCuts+TCut(fileCuts[f]),currentHistDrawOpt);
currentHist->Scale(fileScale[f]);
f++;
// Loop over files
current_file = (TFile*)fileList->After( current_file );
while ( current_file ) {
current_file->cd();
//cout << ", file" << f;
current_file->GetObject(treeName, tree);
TString tempHistName = currentHistName+"Temp";
TH1* tempHist = (TH1*)currentHist->Clone(tempHistName);
tree->Draw(variableToPlot[i]+">>"+tempHistName,currentCuts+TCut(fileCuts[f]),currentHistDrawOpt);
tempHist->Scale(fileScale[f]);
currentHist->Add(tempHist);
tempHist->Delete();
current_file = (TFile*)fileList->After( current_file );
f++;
} // End of loop over files
outputFile->cd();
currentHist->Write();
cout << endl;
} // End of loop over variabls to plot
} // End of loop over locations
// END of Core of Script //
//************************************************************
cout << endl;
cout << "Wrote file " << outputFileName << endl;
cout << endl;
outputFile->Close();
}
/*************************************************************************************
* createMFOutfile: moves the MLB distributions into an output file for use in
* R. Nally's MassFit.C code.
* input: the main() arguments array
* output: writes to an output file the histograms, in a MassFit.C-readable format
*
* Structure-wise: can be implemented into class easily.
***********************************/
void createMFOutfile(const char* argv[]) {
TFile *f = new TFile(argv[2]);
//create the output file we'd like to write histograms to
TFile *output = new TFile(outfileName, "RECREATE");
//get the filesystem information from the file
f->cd();
TList *alokDirs = (TList*) f->GetListOfKeys();
//create a list of "All" histograms and initialize (TODO)
TList *allHists = new TList;
//loop through the directories in the input file
for(int idir=0; alokDirs->At(idir-1) != alokDirs->Last(); idir++) {
//if it's not mlb, we don't care
if(!TString(alokDirs->At(idir)->GetName()).Contains("_Mlb")) continue;
//get the file directory information, its histograms
TDirectory *cDir = (TDirectory*) f->Get(alokDirs->At(idir)->GetName());
TList *alokHistos = (TList*) cDir->GetListOfKeys();
//loop through the histograms in the current directory
for(int ihisto=0; alokHistos->At(ihisto-1) != alokHistos->Last(); ihisto++) {
// don't consider the graph objects
if(TString(alokHistos->At(ihisto)->GetName()).Contains("Graph_")) continue;
// clone the histogram, give it a new name
TString cloneName = formatName(alokHistos->At(ihisto)->GetName(),nominalWidth);
TH1F *thisto = (TH1F*) cDir->Get(alokHistos->At(ihisto)->GetName());
TH1F *tclone = (TH1F*) thisto->Clone(cloneName);
// open the outfile and write the histo in
output->cd();
TList *outkeys = (TList*) output->GetListOfKeys();
// if the histogram already exists, add thisto to the existing one
// messy, but removes the need for magic
for(int iout=0; outkeys->At(iout-1) != outkeys->Last(); iout++) {
if(outkeys->At(iout)->GetName() == cloneName) {
cout<<" - found another histogram in output with name "<<cloneName<<endl;
TH1F *theHisto = (TH1F*) output->Get(cloneName);
cout<<" - got the same histogram from the output file"<<endl;
TH1F *tHclone = (TH1F*) theHisto->Clone(cloneName);
cout<<" - cloned the histogram"<<endl;
cout<<" - adding in clone"<<endl;
tclone->Add(tHclone);
cout<<" - deleting the original histogram from the output file"<<endl;
output->Delete(cloneName + TString(";1"));
cout<<" - deleted thing from output file"<<endl;
cout<<" - tclone looks like "<<tclone<<endl;
}
}
cout<<" - writing the tclone to file"<<endl;
tclone->Write();
// reopen the input root file and clean up
f->cd();
delete thisto;
delete tclone;
}
}
f->Close();
output->cd();
output->Close();
// if we want to interpolate, start making more histograms
if(interpolate) {
// Have to reopen the outfile because ROOT is odd
TFile *output2 = new TFile(outfileName, "UPDATE");
output2->cd();
std::pair<double,TString> maxPair = *moreFiles.begin();
double maxWidth = maxPair.first;
// check that it makes sense to interpolate with our settings
if(maxWidth <= nominalWidth) {
cout<<"\n\nERROR: Max width is less than or equal to the nominal width! Exiting."<<endl;
exit(EXIT_FAILURE);
}
// open the input file and loop through the relevant directories
TFile *maxFile = new TFile(maxPair.second);
for(int i=0; i<lepsSize; i++) {
// change directory and get the name of the folder we want to access
maxFile->cd();
char a[128];
sprintf(a, "mlbwa_%s_Mlb", leps[i]);
TDirectory *tDir = (TDirectory*) maxFile->Get(a);
TList *alok = tDir->GetListOfKeys();
// get the maxWidth histogram in this folder, clone and rename it
TString maxHName = alok->First()->GetName();
TString maxCloneName = formatName(maxHName, maxWidth);
TH1F *maxHisto = (TH1F*) tDir->Get(maxHName);
TH1F *maxClone = (TH1F*) maxHisto->Clone(maxCloneName);
// write this max histogram to the outfile
output2->cd();
maxClone->Write();
// get the corresponding nominal histogram from the outfile
TH1F *nomHisto = (TH1F*) output2->Get(formatName(maxHName,nominalWidth));
TCanvas *c = new TCanvas("");
nomHisto->Draw();
c->SaveAs(formatName(maxHName,nominalWidth)+TString(".pdf"));
// for each interpolation, create a morphed histogram and write to outfile
for(int i=interpolations; i>0; i--) {
double tWidth = nominalWidth + i*(maxWidth - nominalWidth)/(interpolations+1);
TString interpName = formatName(maxHName, tWidth);
TH1F *interpHisto = (TH1F*) th1fmorph(interpName, interpName,nomHisto,maxHisto,
nominalWidth,maxWidth,tWidth,nomHisto->Integral(),1);
interpHisto->Write();
}
}
maxFile->cd();
maxFile->Close();
output2->cd();
output2->Close();
// Otherwise, we want to collect signal histograms of different weights
} else {
// Have to reopen the outfile because ROOT is odd
TFile *output2 = new TFile(outfileName, "UPDATE");
output2->cd();
// Loop through the additional files
for(std::vector<std::pair<double, TString> >::const_iterator pf=moreFiles.begin();
pf!=moreFiles.end();
pf++) {
// This is the current file and width
TFile *curFile = new TFile(pf->second, "READ");
double curWid = pf->first;
// Loop through lepton final states
for(int i=0; i<lepsSize; i++) {
curFile->cd();
// Get the desired directory
char dirName[128];
sprintf(dirName, "mlbwa_%s_Mlb", leps[i]);
TDirectory *curDir = (TDirectory*) curFile->Get(dirName);
// Get the names of the first histogram in the directory
// (we don't want more than one additional signal histo per extra file)
// Format it with the usual method
TString histName = TString(curDir->GetListOfKeys()->First()->GetName());
TString cloneName = formatName(histName,curWid);
// Get the mlb histo
TH1D *curHisto = (TH1D*) curDir->Get(histName)->Clone(cloneName);
// Write to the outfile
output2->cd();
curHisto->Write();
}
curFile->Close();
}
output2->cd();
output2->Close();
}
}
int main() {
TList *list = new TList();
printf_s("list.First() = %s\n", list->First());
printf_s("list.Pop() = %s\n", list->Pop());
list->Push("Hola");
printf_s("Pushed \"Hola\"!\n");
list->Push("Holita");
printf_s("Pushed \"Holita\"!\n");
list->Push("Que tal?");
printf_s("Pushed \"Que tal?\"!\n");
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.Next() = %s\n", list->Next());
printf_s("list.First() = %s\n", list->First());
printf_s("list.Pop() = %s\n", list->Pop());
printf_s("list.First() = %s\n", list->First());
list->Push("Hola");
list->Reset();
printf_s("list reset!\n");
printf_s("list.First() = %s\n", list->First());
printf_s("list.Next() = %s\n", list->Next());
//copy constructor
list->Push("Hola");
list->Push("que");
TList *list2 = new TList(*list);
printf_s("list2.First() = %s\n", list2->First());
printf_s("list2.Next() = %s\n", list2->Next());
list2->Push("tal?");
printf_s("list2.Next() = %s\n", list2->Next());
delete list2;
list->Push("tal");
list->Push("estas?");
//TList GetReverseList(TList lstSrc)
TList listRev = GetReverseList(*list);
printf_s("listRev.First() = %s\n", listRev.First());
printf_s("listRev.Next() = %s\n", listRev.Next());
printf_s("listRev.Next() = %s\n", listRev.Next());
printf_s("listRev.Next() = %s\n", listRev.Next());
//TList * GetReverseList(TList &lstSrc, TList *listCopy)
//this is the way to avoid returning an object in the Stack
TList * listInv = new TList();
GetReverseList(*list, listInv);
printf_s("listInv.First() = %s\n", listInv->First());
printf_s("listInv.Next() = %s\n", listInv->Next());
printf_s("listInv.Next() = %s\n", listInv->Next());
printf_s("listInv.Next() = %s\n", listInv->Next());
delete list;
delete listInv;
getchar();
}
double fourrier() {
gStyle->SetOptStat(0);
gStyle->SetPadLeftMargin(0.13);
gStyle->SetPadBottomMargin(0.13);
//gStyle->SetTitleOffset(0.0,"X");
gStyle->SetTitleFontSize(0.08);
gStyle->SetTitleFont(62);
//gStyle->SetTitleAlign(33);
//TGaxis::SetMaxDigits(3);
double pars[] = { 6.35356e+00,
1.0,
4.13113e+00,
-4.43669e+00,
0.1,
0.01,
0.1,
9.64513e+03,
1.22279e+00,
4.66147e-04,
2.96494e-05,
-6.21090e-06,
1.0,
-3.23049e-06
};
TLegend *tl = new TLegend(0.25,0.6,0.85,0.8);
//TLegend *tl = new TLegend(0.462644, 0.651163, 0.862069, 0.852008);
tl->SetBorderSize(0);
TFile *f = TFile::Open("hadd_out/hadd.pi.root");
TEfficiency* eff = (TEfficiency*) f->Get("prob_cut_9/eff1d_mom_e_id");
tl->AddEntry(eff,"#pi^{#pm} mis-id prob. (p^{EID}_{comb} > 0.9)","pl");
bool draw_func = false;
if (draw_func) {
TFile *f2 = TFile::Open("../new_test/eid90pct/anav2_pip_pim_brem_plab5.5.root");
TEfficiency* eff2 = (TEfficiency*) f2->Get("pi_eff1d_total_smooth1d_clone");
TList *list = (TList*) eff2->GetListOfFunctions();
TF1* fsmth = (TF1*) list->First();
tl->AddEntry(fsmth,"parametrization");
}
TCanvas *tc = new TCanvas("tc","tc");
tc->cd();
eff->Draw();
//
tc->Update();
//eff->GetPaintedGraph()->GetHistogram()->SetMinimum(0);
//eff->GetPaintedGraph()->GetHistogram()->SetMaximum(0.006);
eff->GetPaintedGraph()->SetMinimum(5e-6);
eff->GetPaintedGraph()->SetMaximum(0.007);
eff->Draw();
//eff->SetTitle(Form("%s;p_{MC}[GeV/c];#varepsilon(#pi^{#pm})^{EID}",eff->GetTitle()));
//eff->SetTitle(Form("#varepsilon(#pi^{#pm}) for combined eID prob > 90%%;p_{MC}[GeV/c];#varepsilon(#pi^{#pm})^{EID}"));
eff->SetTitle(Form(";p_{MC}[GeV/c];#varepsilon(#pi^{#pm})^{EID}"));
set_style(eff->GetPaintedGraph());
if (draw_func) fsmth->Draw("same");
gPad->SetLogy();
tc->Update();
tl->Draw();
//TF1* f1 = new TF1("f1",func,0.0001,12,14);
//for (int ii=0; ii < 14; ++ii) {
// if (ii==9||ii==10||ii==11)
// f1->FixParameter(ii,pars[ii]);
// else
// f1->SetParameter(ii,pars[ii]);
//}
//eff->Fit(f1,"+RME");
//eff->Draw();
//cout << "Eff (0.01)= " << f1->Eval(0.01) << endl;
//cout << "Eff (0.1)= " << f1->Eval(0.1) << endl;
//cout << "Eff (0.2)= " << f1->Eval(0.2) << endl;
//cout << "Eff (0.5)= " << f1->Eval(0.5) << endl;
//cout << "Eff (1.0)= " << f1->Eval(1.0) << endl;
//TF1* f2 = new TF1("f1",func,0.0001,12,13);
//for (int ii=0; ii < 13; ++ii) {
// if (ii!=12)
// f2->SetParameter(ii,f1->GetParameter(ii));
// else
// f2->SetParameter(ii,100*f1->GetParameter(ii));
//}
//f2->SetLineColor(4);
//f2->Draw("same");
}
void
draw2DLimitContours(map<string,TList *>& m_contours,
const TString& par1,
const TString& par2,
const TString& plotprefix,
TLegend *legend)
{
//from here we build the two-dimensional aTGC limit
TCanvas *finalPlot = new TCanvas("final","limits",500,500);
finalPlot->cd();
cout << "Drawing expected 68%" << endl;
TList *contLevel = m_contours["exp68"];
TGraph *curv;
std::cout << "m_contours.size() = " << m_contours.size() << std::endl;
for (map<string,TList *>::const_iterator iter = m_contours.begin(); iter != m_contours.end(); iter++ ){
std::cout << "iter->first = " << iter->first << std::endl;
std::cout << "iter->second = " << iter->second << std::endl;
}
std::cout << "contLevel = " << contLevel << std::endl;
assert(contLevel);
curv = (TGraph*)(contLevel->First());
curv->GetXaxis()->SetLimits(parmin(par1),parmax(par1));
curv->GetYaxis()->SetRangeUser(parmin(par2),parmax(par2));
curv->SetTitle();
curv->GetXaxis()->SetTitle(par2latex(par1));
curv->GetXaxis()->SetTitleFont(42);
curv->GetYaxis()->SetTitle(par2latex(par2));
curv->GetYaxis()->SetTitleFont(42);
curv->GetYaxis()->SetTitleOffset(1.20);
for (int i=0; i<contLevel->GetSize(); i++) {
assert(curv);
curv->SetLineColor(kBlue);
curv->SetLineWidth(2);
curv->SetLineStyle(9);
if (!i) {
curv->Draw("AC");
legend->AddEntry(curv,"Expected 68% C.L.","L");
} else
curv->Draw("SAME C");
curv=(TGraph *)(contLevel->After(curv));
}
cout << "Drawing expected 95%" << endl;
contLevel = m_contours["exp95"];
curv = (TGraph*)(contLevel->First());
for (int i=0; i<contLevel->GetSize(); i++) {
curv->SetLineColor(kGreen);
curv->SetLineWidth(2);
curv->SetLineStyle(9);
curv->Draw("SAME C");
if (!i) legend->AddEntry(curv,"Expected 95% C.L.","L");
curv=(TGraph *)(contLevel->After(curv));
}
cout << "Drawing expected 99%" << endl;
contLevel = m_contours["exp99"];
curv = (TGraph*)(contLevel->First());
for (int i=0; i<contLevel->GetSize(); i++) {
curv->SetLineColor(kRed);
curv->SetLineWidth(2);
curv->SetLineStyle(9);
curv->Draw("SAME C");
if (!i) legend->AddEntry(curv,"Expected 99% C.L.","L");
curv=(TGraph *)(contLevel->After(curv));
}
contLevel = m_contours["obs95"];
if (contLevel) {
cout << "Drawing obs95" << endl;
curv = (TGraph*)(contLevel->First());
for (int i=0; i<contLevel->GetSize(); i++) {
curv->Draw("SAME C");
curv->SetLineWidth(2);
if (!i) legend->AddEntry(curv,"Observed 95% C.L.","L");
curv=(TGraph *)(contLevel->After(curv));
}
}
TGraph *SMpoint = new TGraph(1);
SMpoint->SetPoint(1,0,0);
//SMpoint->Draw("SAME Po");
//smLabel = TPaveText(0,
// m_contours["-2s"]->GetYaxis()->GetXmax()/8,
// m_contours["-2s"]->GetXaxis()->GetXmax()/3->5,
// -m_contours["-2s"]->GetYaxis()->GetXmax()/8);
//smLabel->SetFillStyle(0);
//smLabel->SetBorderSize(0);
//smLabel->AddText(" SM");
//smLabel->Draw();
legend->Draw();
TPaveText *text = new TPaveText(0.566,0.87,0.965,1.101,"NDC");
text->SetFillStyle(0);
text->SetBorderSize(0);
//text->AddText(Form("95%% CL Limit on %s and %s",par2latex(par1).Data(),par2latex(par2).Data()));
text->AddText(0,0.35,Form("#intL dt= %.1f fb^{-1}, #sqrt{s} = %d TeV",intlumifbinv,beamcometev));
text->Draw();
// text2 = TPaveText(0.155,0.199,0.974,0.244,"NDC");
// text2->SetFillStyle(0);
// text2->SetBorderSize(0);
// text2->AddText("Values outside contour excluded");
// text2->Draw();
//text3 = TPaveText(0.506,0.699,0.905,0.758,"NDC");
//text3->SetFillStyle(0);
//text3->SetBorderSize(0);
//text3->AddText(options.flavorText);
//text3->Draw();
gPad->SetGrid(1,1);
finalPlot->RedrawAxis();
finalPlot->ResetAttPad();
finalPlot->Update();
finalPlot->Draw();
finalPlot->Update();
finalPlot->Modified();
finalPlot->Update();
finalPlot->Print(Form("%s.pdf",plotprefix.Data()));
finalPlot->Print(Form("%s.eps",plotprefix.Data()));
//finalPlot->Print(Form("%s.png",plotprefix.Data()));
} // draw2DlimitContours
void
draw2DLimitBFstyle(map<string,TList *>& m_contours,
const TString& par1,
const TString& par2,
const TString& plotprefix,
TLegend *legend)
{
//from here we build the two-dimensional aTGC limit
TCanvas *finalPlot = new TCanvas("final","limits",500,500);
finalPlot->cd();
cout << "Drawing +2s" << endl;
TList *contLevel = m_contours["+2s"];
TGraph *curv;
assert(contLevel);
curv = (TGraph*)(contLevel->First());
//curv->GetYaxis()->SetRangeUser(-1.25*curv->GetYaxis()->GetXmax(),
//+2.0*curv->GetYaxis()->GetXmax());
//curv->GetYaxis()->SetRangeUser(-0.1,0.15);
curv->GetYaxis()->SetRangeUser(parmin(par2),parmax(par2));
curv->SetTitle();
curv->GetXaxis()->SetTitle(par2latex(par1));
curv->GetXaxis()->SetTitleFont(42);
curv->GetYaxis()->SetTitle(par2latex(par2));
curv->GetYaxis()->SetTitleFont(42);
curv->GetYaxis()->SetTitleOffset(1.20);
for (int i=0; i<contLevel->GetSize(); i++) {
assert(curv);
curv->SetLineColor(kYellow);
curv->SetFillColor(kYellow);
curv->GetXaxis()->SetLimits(parmin(par1),parmax(par1));
if (!i) {
curv->Draw("ACF");
legend->AddEntry(curv,"#pm 2#sigma","F");
} else
curv->Draw("SAME CF");
curv=(TGraph *)(contLevel->After(curv));
}
cout << "Drawing +1s" << endl;
contLevel = m_contours["+1s"];
curv = (TGraph*)(contLevel->First());
for (int i=0; i<contLevel->GetSize(); i++) {
curv->SetLineColor(kGreen);
curv->SetFillColor(kGreen);
curv->Draw("SAME CF");
if (!i) legend->AddEntry(curv,"#pm 1#sigma","F");
curv=(TGraph *)(contLevel->After(curv));
}
cout << "Drawing -1s" << endl;
contLevel = m_contours["-1s"];
curv = (TGraph*)(contLevel->First());
for (int i=0; i<contLevel->GetSize(); i++) {
curv->SetLineColor(kYellow);
curv->SetFillColor(kYellow);
curv->Draw("SAME CF");
curv=(TGraph *)(contLevel->After(curv));
}
cout << "Drawing -2s" << endl;
contLevel = m_contours["-2s"];
if (!contLevel)
// this can happen more often for this contour if there is insufficient
// sensitivity close to the SM
cerr << "No contour level for +2s, have to fill in the central region" << endl;
else {
curv = (TGraph*)(contLevel->First());
for (int i=0; i<contLevel->GetSize(); i++) {
curv->SetFillColor(kWhite);
curv->SetLineColor(kYellow);
curv->Draw("SAME CF");
curv=(TGraph *)(contLevel->After(curv));
}
}
cout << "Drawing median" << endl;
curv = (TGraph*)(m_contours["median"]->First());
curv->SetLineColor(kBlack);
curv->SetLineWidth(2);
curv->SetLineStyle(2);
curv->Draw("SAME C");
legend->AddEntry(curv,"Expected","L");
cout << "Drawing obs" << endl;
contLevel = m_contours["obs"];
curv = (TGraph*)(contLevel->First());
for (int i=0; i<contLevel->GetSize(); i++) {
curv->SetLineColor(kBlack);
curv->SetLineWidth(2);
curv->Draw("SAME C");
if (!i) legend->AddEntry(curv,"Observed","L");
curv=(TGraph *)(contLevel->After(curv));
}
TGraph *SMpoint = new TGraph(1);
SMpoint->SetPoint(1,0,0);
SMpoint->Draw("SAME Po");
// smLabel = TPaveText(0,
// m_contours["-2s"]->GetYaxis()->GetXmax()/8,
// m_contours["-2s"]->GetXaxis()->GetXmax()/3->5,
// -m_contours["-2s"]->GetYaxis()->GetXmax()/8);
// smLabel->SetFillStyle(0);
// smLabel->SetBorderSize(0);
// smLabel->AddText(" SM");
// smLabel->Draw();
legend->Draw();
TPaveText *text = new TPaveText(0.566,0.87,0.965,1.101,"NDC");
text->SetFillStyle(0);
text->SetBorderSize(0);
text->AddText(Form("95%% CL Limit on %s and %s",par2latex(par1).Data(),par2latex(par2).Data()));
text->AddText(0,0.35,Form("#intL dt= %.1f fb^{-1}, #sqrt{s} = %d TeV",intlumifbinv,beamcometev));
text->Draw();
// text2 = TPaveText(0.155,0.199,0.974,0.244,"NDC");
// text2->SetFillStyle(0);
// text2->SetBorderSize(0);
// text2->AddText("Values outside contour excluded");
// text2->Draw();
//text3 = TPaveText(0.506,0.699,0.905,0.758,"NDC");
//text3->SetFillStyle(0);
//text3->SetBorderSize(0);
//text3->AddText(options.flavorText);
//text3->Draw();
finalPlot->RedrawAxis();
finalPlot->ResetAttPad();
finalPlot->Update();
finalPlot->Draw();
finalPlot->Update();
finalPlot->Modified();
finalPlot->Update();
finalPlot->Print(Form("%s.pdf",plotprefix.Data()));
finalPlot->Print(Form("%s.eps",plotprefix.Data()));
finalPlot->Print(Form("%s.png",plotprefix.Data()));
} // draw2DlimitBFstyle
void AnalyzeWaveforms(char *WaveformsFile = "Waveforms.root", const int nAddedChannels = 5) {
//try to access waveforms file and in case of failure return
if(gSystem->AccessPathName(WaveformsFile,kFileExists)) {
cout << "Error: file " << WaveformsFile << " does not exsist. Run .x WaveformsFileMaker.C to create it" << endl;
return;
}
// gStyle->SetOptFit(111);
// gStyle->SetStatFormat("1.3E");
// gStyle->SetFitFormat("1.3E");
// fetch the list of trees contained in the waveforms file
// for every tree generate a waveform graph
TFile *f = TFile::Open(WaveformsFile);
TList *listOfKeys = f->GetListOfKeys();
Int_t numberOfKeys = listOfKeys->GetEntries();
TList *listOfGraphs = new TList();
// if the waveform file name begins with the string "comparator" it goes in this list
TList *listOfCompWaves = new TList();
// if the waveform file name begins with the string "sum output" it goes in this list
TList *listOfAdderWaves = new TList();
for(Int_t i = 0; i < numberOfKeys; i++) {
TString *keyName = new TString(listOfKeys->At(i)->GetName());
TTree *tree = (TTree*)f->Get(keyName->Data());
Float_t x = 0;
Float_t y = 0;
tree->SetBranchAddress("x",&x);
tree->SetBranchAddress("y",&y);
Int_t nentries = tree->GetEntries();
TString *gName = new TString(keyName->Data());
gName->Append(" graph");
TGraphErrors *gWave = new TGraphErrors(nentries);
gWave->SetName(gName->Data());
gWave->SetTitle(gName->Data());
gWave->GetXaxis()->SetTitle("Time");
gWave->GetYaxis()->SetTitle("Voltage");
// gWave->SetBit(TH1::kCanRebin);
for (Int_t j = 0; j < nentries; j++) {
tree->GetEntry(j);
gWave->SetPoint(j,x,y);
}
listOfGraphs->Add(gWave);
if(keyName->BeginsWith("comparator"))
listOfCompWaves->Add(gWave);
if(keyName->BeginsWith("sum output"))
listOfAdderWaves->Add(gWave);
/* TString *cName = new TString(keyName->Data());
cName->Append(" canvas");
TCanvas *cy = new TCanvas(cName->Data(),cName->Data(),800,600);
gWave->Draw("AL"); */
}
cout << listOfAdderWaves->GetEntries() << endl;
// analysis for waves with no delay
// global variables
Double_t xMin,xMax,yStart,yEnd;
Int_t graphPoints;
Double_t step;
// comparator outputs waves sum
TGraphErrors *gFirstCompWave = (TGraphErrors *)listOfCompWaves->First();
graphPoints = gFirstCompWave->GetN();
gFirstCompWave->GetPoint(0,xMin,yStart);
gFirstCompWave->GetPoint(graphPoints - 1,xMax,yEnd);
step = (xMax - xMin)/graphPoints;
cout << gFirstCompWave->GetName() << endl;
cout << "xMin = " << xMin << " xMax = " << xMax << " graphPoints = " << graphPoints << endl;
TGraphErrors *gCompSum = new TGraphErrors(graphPoints);
gCompSum->SetLineColor(kBlue);
gCompSum->SetLineWidth(2);
gCompSum->SetName("Comparator Outputs Sum");
gCompSum->SetTitle("Comparator Outputs Sum");
Int_t nCompWaves = listOfCompWaves->GetEntries();
Float_t gx,gy = 0;
// Alpha coefficiens are now written "hard coded" here
Float_t alphaArray[3] = {0.199,0.201,0.197};
// Deleays coming from the multiplexer are written "hard coded" here
Float_t muxDelayArray[3] = {0,77.14E-12,192.01E-12};
for(Int_t i = 0; i < graphPoints; i++) {
for(Int_t j = 0; j < nCompWaves; j++) {
TGraphErrors *gCompWave = (TGraphErrors *)listOfCompWaves->At(j);
gy += (gCompWave->Eval(xMin + i*step + muxDelayArray[j]))*alphaArray[j];
}
gCompSum->SetPoint(i,xMin + i*step,gy);
gy = 0;
}
// note that there is a manual correction on the x axis for the comparator waves sum to compare them better in the multigraph
Double_t *xArray = gCompSum->GetX();
for(Int_t i = 0; i < graphPoints; i++) {
xArray[i] += 5.6E-9;
}
// TCanvas *cCompSum = new TCanvas("cCompSum","Comparator Outputs Sum",800,600);
// gCompSum->Draw("AL");
// adder outputs waves sum
// THE ANALYSIS FOR THE ADDER OUTPUT WITH NOT DELAY AND 3 CHANNELS ADDED IS DEPRECATED.
// THERE WAS A MISTAKE IN THE DATA TAKING
// I'LL KEEP THE CODE HERE FOR FURTHER REFERENCE
/*
TGraphErrors *gFirstAdderWave = (TGraphErrors *)listOfAdderWaves->First();
graphPoints = gFirstAdderWave->GetN();
gFirstAdderWave->GetPoint(0,xMin,yStart);
gFirstAdderWave->GetPoint(graphPoints - 1,xMax,yEnd);
step = (xMax - xMin)/graphPoints;
cout << gFirstAdderWave->GetName() << endl;
cout << "xMin : " << xMin << " xMax : " << xMax << endl;
TGraphErrors *gAdderSum = new TGraphErrors(graphPoints);
gAdderSum->SetLineWidth(2);
// gAdderSum->SetLineColor(kGreen);
gAdderSum->SetLineStyle(9);
gAdderSum->SetName("Sum of the adder outputs with no delay");
gAdderSum->SetTitle("Sum of the adder outputs with no delay");
Int_t nAdderWaves = listOfAdderWaves->GetEntries();
gy = 0;
for(Int_t i = 0; i < graphPoints; i++) {
for(Int_t j = 0; j < nAdderWaves; j++) {
TGraphErrors *gAdderWave = (TGraphErrors *)listOfAdderWaves->At(j);
gy += gAdderWave->Eval(xMin + i*step);
}
gAdderSum->SetPoint(i,xMin + i*step,gy);
gy = 0;
}
// TCanvas *cAdderSum = new TCanvas("cAdderSum","Sum of the adder outputs",800,600);
// gAdderSum->Draw("AL");
TGraphErrors *g3ChannelsSumNoDelay = listOfGraphs->FindObject("sum_output_3_channels_(3) graph");
g3ChannelsSumNoDelay->SetLineColor(kRed);
g3ChannelsSumNoDelay->SetLineWidth(2);
// note that there is a manual correction on the x axis for the adder output to compare it better in the multigraph
Double_t *xArray = g3ChannelsSumNoDelay->GetX();
graphPoints = g3ChannelsSumNoDelay->GetN();
for(Int_t i = 0; i < graphPoints; i++) {
xArray[i] -= 600E-12;
}
// comparison among the computed adder output ,the real one and the sum of the comparator outputs with alpha coefficients correction
TMultiGraph *mgSumNoDelay = new TMultiGraph();
mgSumNoDelay->Add(g3ChannelsSumNoDelay);
mgSumNoDelay->Add(gAdderSum);
mgSumNoDelay->Add(gCompSum);
mgSumNoDelay->SetTitle("Collection of graphs for 3 channels sum with no delay");
TCanvas *cmgSumNoDelay = new TCanvas("cmgSumNoDelay", "Collection of graphs for 3 channels sum with no delay", 1200,800);
cmgSumNoDelay->Update();
mgSumNoDelay->Draw("AL");
legend = new TLegend(0.6,0.78,0.99,0.99);
legend->AddEntry(g3ChannelsSumNoDelay, "Actual sum done by the adder", "lp");
legend->AddEntry(gAdderSum, "Sum of the adder outputs", "lp");
legend->AddEntry(gCompSum, "Sum of the comparator outputs","lp");
legend->Draw();
mgSumNoDelay->GetXaxis()->SetTitle("Seconds");
mgSumNoDelay->GetYaxis()->SetTitle("Volts");
TPaveText *title = (TPaveText*)cmgSumNoDelay->GetPrimitive("title");
title->SetX1NDC(0.009);
title->SetY1NDC(0.94);
title->SetX2NDC(0.56);
title->SetY2NDC(0.99);
cmgSumNoDelay->Modified();
*/
// analysis for delayed adder outputs
Int_t nAdderWaves = listOfAdderWaves->GetEntries();
TGraphErrors *g3ChannelsSumDelay = listOfGraphs->FindObject("sum_output_3_channels_(1-1-1) graph");
g3ChannelsSumDelay->SetLineColor(kRed);
g3ChannelsSumDelay->SetLineWidth(2);
// Delay coming from cables are written "hard coded" here
Float_t cablesDelayArray[3] = {0,1.45E-9,3.21E-9};
graphPoints = g3ChannelsSumDelay->GetN();
//g3ChannelsSumDelay->GetPoint(0,xMin,yStart);
//g3ChannelsSumDelay->GetPoint(graphPoints - 1,xMax,yEnd);
xMin = 6E-9;
xMax = 16E-9;
step = (xMax - xMin)/graphPoints;
cout << "Sum of the adder outputs with delay" << endl;
cout << "xMin : " << xMin << " xMax : " << xMax << endl;
TGraphErrors *gAdderSumDelay = new TGraphErrors(graphPoints);
gAdderSumDelay->SetLineColor(kBlue);
gAdderSumDelay->SetLineWidth(2);
gAdderSumDelay->SetName("Sum of the adder outputs with delay");
gAdderSumDelay->SetTitle("Sum of the adder outputs with delay");
gy = 0;
// note that there is a manual correction on the delay of 500E-12 to compare the adder output better in the multigraph
for(Int_t i = 0; i < graphPoints; i++) {
for(Int_t j = 0; j < nAdderWaves; j++) {
TGraphErrors *gAdderWave = (TGraphErrors *)listOfAdderWaves->At(j);
gy += gAdderWave->Eval(xMin + i*step + cablesDelayArray[j] - 500E-12);
}
gAdderSumDelay->SetPoint(i,xMin + i*step,gy);
gy = 0;
}
// TCanvas *cSumSumDelay = new TCanvas("cSumSumDelay","Sum of the sum outputs with delay",800,600);
// gAdderSumDelay->Draw("APEL");
TMultiGraph *mg3ChannelsSumDelay = new TMultiGraph();
mg3ChannelsSumDelay->Add(gAdderSumDelay);
mg3ChannelsSumDelay->Add(g3ChannelsSumDelay);
mg3ChannelsSumDelay->SetTitle("Collection of graphs for 3 channels sum with delay");
TCanvas *cmg3ChannelsSumDelay = new TCanvas("cmg3ChannelsSumDelay", "Collection of graphs for 3 channels sum with delay", 1200, 800);
cmg3ChannelsSumDelay->Update();
legend = new TLegend(0.6,0.78,0.99,0.99);
legend->AddEntry(g3ChannelsSumDelay, "Actual sum done by the adder", "lp");
legend->AddEntry(gAdderSumDelay, "Sum of the delayed adder outputs", "lp");
mg3ChannelsSumDelay->Draw("AL");
legend->Draw();
mg3ChannelsSumDelay->GetXaxis()->SetTitle("Seconds");
mg3ChannelsSumDelay->GetYaxis()->SetTitle("Volts");
TPaveText *title = (TPaveText*)cmg3ChannelsSumDelay->GetPrimitive("title");
title->SetX1NDC(0.009);
title->SetY1NDC(0.94);
title->SetX2NDC(0.56);
title->SetY2NDC(0.99);
cmg3ChannelsSumDelay->Modified();
/*
// delay test just to try a different method
TMultiGraph *mgDelayTest = new TMultiGraph();
Double_t gxTest,gyTest;
TGraphErrors *gDelayTest0 = new TGraphErrors(((TGraphErrors *)listOfAdderWaves->At(0))->GetN());
for(Int_t j = 0; j < gDelayTest0->GetN(); j++) {
((TGraphErrors *)listOfAdderWaves->At(0))->GetPoint(j,gxTest,gyTest);
gDelayTest0->SetPoint(j,gxTest - cablesDelayArray[0],gyTest);
}
mgDelayTest->Add(gDelayTest0);
TGraphErrors *gDelayTest1 = new TGraphErrors(((TGraphErrors *)listOfAdderWaves->At(1))->GetN());
for(Int_t j = 0; j < gDelayTest1->GetN(); j++) {
((TGraphErrors *)listOfAdderWaves->At(1))->GetPoint(j,gxTest,gyTest);
gDelayTest1->SetPoint(j,gxTest - cablesDelayArray[1],gyTest);
}
mgDelayTest->Add(gDelayTest1);
TGraphErrors *gDelayTest2 = new TGraphErrors(((TGraphErrors *)listOfAdderWaves->At(2))->GetN());
for(Int_t j = 0; j < gDelayTest2->GetN(); j++) {
((TGraphErrors *)listOfAdderWaves->At(2))->GetPoint(j,gxTest,gyTest);
gDelayTest2->SetPoint(j,gxTest - cablesDelayArray[2],gyTest);
}
mgDelayTest->Add(gDelayTest2);
// TCanvas *cmgDelayTest = new TCanvas("cmgDelayTest", "cmgDelayTest", 800,600);
// mgDelayTest->Draw("APEL");
graphPoints = 12000;
xMin = 2E-9;
xMax = 22E-9;
step = (xMax - xMin)/graphPoints;
cout << "xMin : " << xMin << " xMax : " << xMax << endl;
Double_t delayTest0xMin,delayTest0xMax,delayTest1xMin,delayTest1xMax,delayTest2xMin,delayTest2xMax;
gDelayTest0->GetPoint(0,delayTest0xMin,gyTest);
gDelayTest0->GetPoint(gDelayTest0->GetN() - 1,delayTest0xMax,gyTest);
gDelayTest1->GetPoint(0,delayTest1xMin,gyTest);
gDelayTest1->GetPoint(gDelayTest1->GetN() - 1,delayTest1xMax,gyTest);
gDelayTest2->GetPoint(0,delayTest2xMin,gyTest);
gDelayTest2->GetPoint(gDelayTest2->GetN() - 1,delayTest2xMax,gyTest);
cout << delayTest0xMin << endl;
TGraphErrors *gAdderSumDelayV2 = new TGraphErrors(graphPoints);
for(Int_t i = 0; i < graphPoints; i++) {
gyTest = gDelayTest0->Eval(xMin + i*step);
gyTest += gDelayTest1->Eval(xMin + i*step);
gyTest += gDelayTest2->Eval(xMin + i*step);
gAdderSumDelayV2->SetPoint(i,xMin + i*step+ 500E-12,gyTest);
}
gAdderSumDelayV2->SetLineColor(kGreen);
gAdderSumDelayV2->SetLineWidth(2);
mg3ChannelsSumDelay->Add(gAdderSumDelayV2);
c3ChannelsSumDelay->Modified();
TCanvas *cAdderSumDelayV2 = new TCanvas("cAdderSumDelayV2","cAdderSumDelayV2",800,600);
gAdderSumDelayV2->Draw("APL");
*/
// List of waves representing the adder output with 5,4,3,2,1 channels in input
TGraphErrors *gAdder5Channels = listOfGraphs->FindObject("adder output 5 channels v2 graph");
TGraphErrors *gAdder4Channels = listOfGraphs->FindObject("adder output 4 channels v2 graph");
TGraphErrors *gAdder3Channels = listOfGraphs->FindObject("adder output 3 channels v2 graph");
TGraphErrors *gAdder2Channels = listOfGraphs->FindObject("adder output 2 channels v2 graph");
TGraphErrors *gAdder1Channel = listOfGraphs->FindObject("adder output 1 channel v2 graph");
TGraphErrors *gAdderSingleCh0 = listOfGraphs->FindObject("single sum output ch 0 input 500 mV DT 100 mV graph");
TGraphErrors *gAdderSingleCh1 = listOfGraphs->FindObject("single sum output ch 1 input 500 mV DT 100 mV graph");
TGraphErrors *gAdderSingleCh4 = listOfGraphs->FindObject("single sum output ch 4 input 500 mV DT 100 mV graph");
TGraphErrors *gAdderSingleCh5 = listOfGraphs->FindObject("single sum output ch 5 input 500 mV DT 100 mV graph");
TGraphErrors *gAdderSingleCh7 = listOfGraphs->FindObject("single sum output ch 7 input 500 mV DT 100 mV graph");
TMultiGraph *mgAdder54321Channels = new TMultiGraph();
mgAdder54321Channels->SetTitle("Collection of graphs for different numbers of added channels");
mgAdder54321Channels->Add(gAdder5Channels);
mgAdder54321Channels->Add(gAdder4Channels);
mgAdder54321Channels->Add(gAdder3Channels);
mgAdder54321Channels->Add(gAdder2Channels);
mgAdder54321Channels->Add(gAdder1Channel);
TCanvas *cmgAdder54321Channels = new TCanvas("cmgAdder54321Channels", "Collection of graphs for different numbers of added channels",1200,800);
mgAdder54321Channels->Draw("AL");
cmgAdder54321Channels->Update();
mgAdder54321Channels->GetXaxis()->SetTitle("seconds");
mgAdder54321Channels->GetYaxis()->SetTitle("Volts");
cmgAdder54321Channels->Modified();
// analysis of the linearity of the adder
Double_t addedVMax[nAddedChannels];
addedVMax[0] = TMath::MaxElement(gAdder1Channel->GetN(), gAdder1Channel->GetY());
addedVMax[1] = TMath::MaxElement(gAdder2Channels->GetN(), gAdder2Channels->GetY());
addedVMax[2] = TMath::MaxElement(gAdder3Channels->GetN(), gAdder3Channels->GetY());
addedVMax[3] = TMath::MaxElement(gAdder4Channels->GetN(), gAdder4Channels->GetY());
addedVMax[4] = TMath::MaxElement(gAdder5Channels->GetN(), gAdder5Channels->GetY());
Double_t singleVMax[nAddedChannels];
singleVMax[0] = TMath::MaxElement(gAdderSingleCh0->GetN(), gAdderSingleCh0->GetY());
singleVMax[1] = TMath::MaxElement(gAdderSingleCh1->GetN(), gAdderSingleCh1->GetY());
singleVMax[2] = TMath::MaxElement(gAdderSingleCh4->GetN(), gAdderSingleCh4->GetY());
singleVMax[3] = TMath::MaxElement(gAdderSingleCh5->GetN(), gAdderSingleCh5->GetY());
singleVMax[4] = TMath::MaxElement(gAdderSingleCh7->GetN(), gAdderSingleCh7->GetY());
vector<double> expectedVMax(nAddedChannels);
Double_t previousVmax = 0;
for(Int_t i = 0; i < expectedVMax.size(); i++) {
expectedVMax[i] = singleVMax[i] + previousVmax;
previousVmax = expectedVMax[i];
cout << "singleVMax[" <<i <<"] = " << singleVMax[i] << endl;
cout << "addedVMax[" <<i <<"] = " << addedVMax[i] << endl;
cout << "expectedVMax[" <<i <<"] = " << expectedVMax[i] << endl;
}
TGraph *gAdderLinearity = new TGraph(expectedVMax.size(),&expectedVMax[0],addedVMax);
gAdderLinearity->SetTitle("Linearity of the adder");
gAdderLinearity->GetXaxis()->SetTitle("Expected amplitude value (V)");
gAdderLinearity->GetYaxis()->SetTitle("Actual amplitude value (V)");
gAdderLinearity->GetYaxis()->SetTitleOffset(1.3);
TCanvas *cgAdderLinearity = new TCanvas("cgAdderLinearity","Linearity of the adder",800,600);
cgAdderLinearity->SetGrid();
cgAdderLinearity->Update();
gAdderLinearity->SetMarkerStyle(20);
gAdderLinearity->SetMarkerSize(0.8);
//gAdderLinearity->Fit("pol1","Q+","",expectedVMax[0],expectedVMax[2]);
TF1 *line = new TF1("line","x",expectedVMax.back(),expectedVMax.front());
gAdderLinearity->Draw("APEL");
line->Draw("SAME");
//gAdderLinearity->GetFunction("pol1")->SetRange(expectedVMax.back(),expectedVMax.front());;
cgAdderLinearity->SetLeftMargin(0.13);
cgAdderLinearity->Modified();
f->Close();
}
TCanvas *ContourList(){
const Double_t PI = TMath::Pi();
TCanvas* c = new TCanvas("c","Contour List",0,0,600,600);
c->SetRightMargin(0.15);
c->SetTopMargin(0.15);
Int_t i, j, TotalConts;
Int_t nZsamples = 80;
Int_t nPhiSamples = 80;
Double_t HofZwavelength = 4.0; // 4 meters
Double_t dZ = HofZwavelength/(Double_t)(nZsamples - 1);
Double_t dPhi = 2*PI/(Double_t)(nPhiSamples - 1);
TArrayD z(nZsamples);
TArrayD HofZ(nZsamples);
TArrayD phi(nPhiSamples);
TArrayD FofPhi(nPhiSamples);
// Discretized Z and Phi Values
for ( i = 0; i < nZsamples; i++) {
z[i] = (i)*dZ - HofZwavelength/2.0;
HofZ[i] = SawTooth(z[i], HofZwavelength);
}
for(Int_t i=0; i < nPhiSamples; i++){
phi[i] = (i)*dPhi;
FofPhi[i] = sin(phi[i]);
}
// Create Histogram
TH2D *HistStreamFn = new TH2D("HstreamFn",
"#splitline{Histogram with negative and positive contents. Six contours are defined.}{It is plotted with options CONT LIST to retrieve the contours points in TGraphs}",
nZsamples, z[0], z[nZsamples-1], nPhiSamples, phi[0], phi[nPhiSamples-1]);
// Load Histogram Data
for (Int_t i = 0; i < nZsamples; i++) {
for(Int_t j = 0; j < nPhiSamples; j++){
HistStreamFn->SetBinContent(i,j, HofZ[i]*FofPhi[j]);
}
}
gStyle->SetPalette(1);
gStyle->SetOptStat(0);
gStyle->SetTitleW(0.99);
gStyle->SetTitleH(0.08);
Double_t contours[6];
contours[0] = -0.7;
contours[1] = -0.5;
contours[2] = -0.1;
contours[3] = 0.1;
contours[4] = 0.4;
contours[5] = 0.8;
HistStreamFn->SetContour(6, contours);
// Draw contours as filled regions, and Save points
HistStreamFn->Draw("CONT Z LIST");
c->Update(); // Needed to force the plotting and retrieve the contours in TGraphs
// Get Contours
TObjArray *conts = (TObjArray*)gROOT->GetListOfSpecials()->FindObject("contours");
TList* contLevel = NULL;
TGraph* curv = NULL;
TGraph* gc = NULL;
Int_t nGraphs = 0;
Int_t TotalConts = 0;
if (conts == NULL){
printf("*** No Contours Were Extracted!\n");
TotalConts = 0;
return;
} else {
TotalConts = conts->GetSize();
}
printf("TotalConts = %d\n", TotalConts);
for(i = 0; i < TotalConts; i++){
contLevel = (TList*)conts->At(i);
printf("Contour %d has %d Graphs\n", i, contLevel->GetSize());
nGraphs += contLevel->GetSize();
}
nGraphs = 0;
TCanvas* c1 = new TCanvas("c1","Contour List",610,0,600,600);
c1->SetTopMargin(0.15);
TH2F *hr = new TH2F("hr",
"#splitline{Negative contours are returned first (highest to lowest). Positive contours are returned from}{lowest to highest. On this plot Negative contours are drawn in red and positive contours in blue.}",
2, -2, 2, 2, 0, 6.5);
hr->Draw();
Double_t x0, y0, z0;
TLatex l;
l.SetTextSize(0.03);
char val[20];
for(i = 0; i < TotalConts; i++){
contLevel = (TList*)conts->At(i);
if (i<3) z0 = contours[2-i];
else z0 = contours[i];
printf("Z-Level Passed in as: Z = %f\n", z0);
// Get first graph from list on curves on this level
curv = (TGraph*)contLevel->First();
for(j = 0; j < contLevel->GetSize(); j++){
curv->GetPoint(0, x0, y0);
if (z0<0) curv->SetLineColor(kRed);
if (z0>0) curv->SetLineColor(kBlue);
nGraphs ++;
printf("\tGraph: %d -- %d Elements\n", nGraphs,curv->GetN());
// Draw clones of the graphs to avoid deletions in case the 1st
// pad is redrawn.
gc = (TGraph*)curv->Clone();
gc->Draw("C");
sprintf(val,"%g",z0);
l.DrawLatex(x0,y0,val);
curv = (TGraph*)contLevel->After(curv); // Get Next graph
}
}
c1->Update();
printf("\n\n\tExtracted %d Contours and %d Graphs \n", TotalConts, nGraphs );
gStyle->SetTitleW(0.);
gStyle->SetTitleH(0.);
return c1;
}
void plotMSSM(const TString& what="(ggA+bbA)*BRAZh*BRhbb"){
const double BRZll=0.06726;
const double fb2pb=1000;
//TString scale(Form("*%f*%f",BRZll,fb2pb));
TString scale("");
TString cname(what);
cname.ReplaceAll("*","x");
cname.ReplaceAll("(","U");
cname.ReplaceAll(")","U");
cname+="_MSSM_mhmax";
//
TString goodName(what);
goodName.ReplaceAll("mh","m_{h}");
goodName.ReplaceAll("ggA","#sigma_{gg#rightarrowA}");
goodName.ReplaceAll("bbA","#sigma_{bb#rightarrowA}");
goodName.ReplaceAll("BRAZh","B(A#rightarrowZh)");
goodName.ReplaceAll("BRhbb","B(h#rightarrowbb)");
//goodName+=("*B(Z#rightarrowll)");
//goodName+=("[pb] ");
goodName+=("[GeV] ");
TString goodType("MSSM m_{h}^{max}");
//goodName=("#sigma*B(pp#rightarrowA#rightarrowZh#rightarrowllbb) [fb]");
//goodName=("#sigma*B(pp#rightarrowA) [fb]");
//goodName=("BR(A#rightarrowZh)");
//goodName=("BR(h#rightarrowbb)");
//if (m>0) mass=(Form(" * (mA==%d)",m));
//TString ok(" * validity * stability * perturbativity * unitarity ");
//TString ok(" * unitarity");
TString ok("");
TChain* ch=new TChain("TreeMSSM");
ch->Add("lsf_working_dir_M225_20636539/parameter_MSSM.root");
ch->Add("lsf_working_dir_M250_20636540/parameter_MSSM.root");
ch->Add("lsf_working_dir_M275_20636541/parameter_MSSM.root");
ch->Add("lsf_working_dir_M300_20636542/parameter_MSSM.root");
ch->Add("lsf_working_dir_M325_20636543/parameter_MSSM.root");
ch->Add("lsf_working_dir_M350_20636544/parameter_MSSM.root");
ch->Add("lsf_working_dir_M400_20636545/parameter_MSSM.root");
ch->Add("lsf_working_dir_M500_20636546/parameter_MSSM.root");
ch->Add("lsf_working_dir_M600_20636547/parameter_MSSM.root");
//double tanbeta[30]={1,10,20,30,40,50,60,70,80,90,100,120,140,160,180,200,220,240,260,280,300,400,500,600,700,800,900,1000,1100,10000};
//double tanbeta[51]={0,10,20,30,40,50,60,70,80,90,100,120,140,160,180,200,220,240,260,280,300,320,340,360,380,400,420,440,460,480,500,550,600,650,700,750,800,850,900,950,1000,1100,1200,1300,1400,1500,2000,3000,4000,5000,6000};
double tanbeta[51]={0,10,20,30,40,50,60,70,80,90,100,120,140,160,180,200,220,240,260,280,300,320,340,360,380,400,420,440,460,500,550,580,600,650,700,750,800,850,900,950,1000,1100,1200,1300,1400,1500,2000,3000,4000,5000,6000};
Double_t bin_tb[50];
for (unsigned int i=0; i<50; i++) {
bin_tb[i]=0.005*(tanbeta[i]+tanbeta[i+1]);
//cout << "bin_tb[" << i << "]=" << bin_tb[i] << " " << tanbeta[i+1]/100. << endl;
}
double mA[11]={200,225,250,275,300,325,350,400,500,600,700};
Double_t bin_mA[10];
for (unsigned int i=0; i<=10; ++i) {
bin_mA[i]=0.5*(mA[i]+mA[i+1]);
//cout << "bin_mA["<<i<<"]=" << bin_mA[i] << endl;
}
bin_mA[10]=650;
TH2F* hggA=new TH2F("hggA","ggA cross section vs tan#beta,m_{A}; m_{A} GeV; tan#beta",9,bin_mA,49,bin_tb);
hggA->Sumw2();
//hggA->Draw();
TString cut=what+scale+ok;
cout << "CUT: " << cut << endl;
ch->Project("hggA","tb:mA",cut);
TStyle *tdrStyle = gROOT->GetStyle("tdrStyle");
// Double_t level[15]={.01,.02,.05,.1,.2,.5,1.,2.,5.,10.,20.,50.,100.,200.,500.};
// hggA->SetContour(14,level);
// hggA->SetMinimum(level[0]);
//
//Double_t level[10]={1.,5.,10.,20.,50.,100.,200.,500.,800.,1000.}; // for x-section
//Double_t level[10]={100,105,110.,115.,120.,123,125.7,127,130.,135.}; // for mh
Double_t level[10]={1,2,3.,4.,120.,123,125.7,127,130.,135.}; // for mh
//Double_t level[10]={.01,.1,.2,0.5,0.6,0.65,0.7,0.75,0.8,0.9}; // for BR
//Double_t level[10]={.01,.02,.05,.07,.1,.15,0.2,0.5,0.75,1.}; // for BR
hggA->SetContour(9,level);
hggA->SetMinimum(level[0]);
Double_t level[7]={122.7.,123.7,125.4,126.0,127.7,128.7.,150}; // for mh
hggA->SetContour(6,level);
hggA->SetMinimum(90);
Int_t colors[7] = {kWhite,kGreen,kGreen+2,kBlack,kGreen+2,kGreen,kWhite};
tdrStyle->SetPalette((sizeof(colors)/sizeof(Int_t)), colors);
// DRAW
tdrStyle->SetOptStat(0);
// tdrStyle->SetPadGridX(true);
// tdrStyle->SetPadGridY(true);
// tdrStyle->SetPadTopMargin(0.05);
// tdrStyle->SetPadBottomMargin(0.13);
tdrStyle->SetTitleYOffset(1.3);
tdrStyle->SetTitleXOffset(1.6);
tdrStyle->SetTitleOffset(1.3,"Z");
// tdrStyle->SetOptLogz(1);
// tdrStyle->SetOptLogy(1);
tdrStyle->SetPadRightMargin(0.14);
//tdrStyle->SetPalette(1);
tdrStyle->cd();
gROOT->ForceStyle();
cout << "Creating canvas " << cname << endl;
TCanvas* c1=new TCanvas(cname,goodName,1200,600);
cout << " done " << c1->GetName() << endl;
c1->Divide(2);
c1->cd(1);
hggA->DrawCopy("lego2");
gPad->SetLogz();
gPad->SetLogy();
//gPad->SetPhi(120);
gPad->SetPhi(-150);
//gPad->SetTheta(30);
gPad->UseCurrentStyle();
gPad->Update();
TLatex tl;
tl.SetTextSize(0.04);
tl.SetNDC();
tl.DrawLatex(0.1,0.95,goodName);
tl.SetTextAlign(11);
tl.DrawLatex(0.1,0.89,goodType);
c1->cd(2);
// tdrStyle->SetPadLeftMargin(0.25);
gPad->UseCurrentStyle();
gPad->Update();
hggA->GetXaxis()->SetTitleOffset(1.1);
hggA->GetYaxis()->SetTitleOffset(1.1);
hggA->GetZaxis()->SetTitleOffset(100);
//hggA->Smooth();
gPad->SetLogy(kFALSE);
hggA->DrawCopy("zcont1");
tl.DrawLatex(0.15,0.97,goodName);
tl.SetTextAlign(11);
tl.DrawLatex(0.2,0.9,goodType);
TCanvas* ctmp=new TCanvas(cname,goodName,600,600);
hggA->GetYaxis()->SetRangeUser(0.1,10.);
hggA->DrawCopy("zcont1");
tl.DrawLatex(0.83,0.97,goodName);
tl.SetTextAlign(11);
tl.DrawLatex(0.2,0.9,goodType);
pCan(ctmp,cname+"_Lin");
// TH1F* test=new TH1F("test","ggA cross section vs tan#beta; tan#beta",27,bin_tb);
// ch->Project("test","tb",what);
// test->Draw();
TCanvas* c2=new TCanvas(cname+"Obs",goodName,800,800);
gPad->UseCurrentStyle();
gPad->Update();
hggA->GetXaxis()->SetTitleOffset(1.1);
hggA->GetYaxis()->SetTitleOffset(1.1);
hggA->DrawCopy("cont list");
gPad->Update();
//return;
// Get Contours
TObjArray *conts = (TObjArray*)gROOT->GetListOfSpecials()->FindObject("contours");
TList* contLevel = NULL;
TGraph* curv = NULL;
TGraph* gc = NULL;
Int_t nGraphs = 0;
Int_t TotalConts = 0;
if (conts == NULL){
printf("*** No Contours Were Extracted!\n");
TotalConts = 0;
return;
} else {
TotalConts = conts->GetSize();
}
printf("TotalConts = %d\n", TotalConts);
for(i = 0; i < TotalConts; i++){
contLevel = (TList*)conts->At(i);
printf("Contour %d has %d Graphs\n", i, contLevel->GetSize());
nGraphs += contLevel->GetSize();
}
nGraphs = 0;
TH2F *hr = new TH2F("hr", ";m_{A};tan#beta", 2, 225, 600, 2, 0.1, 100);
hr->GetXaxis()->SetTitleOffset(1.1);
hr->GetXaxis()->SetRangeUser(200,650);
hr->GetYaxis()->SetTitleOffset(1.2);
hr->GetYaxis()->SetNdivisions(110,kFALSE);
hr->GetXaxis()->SetNdivisions(20205,kFALSE);
hr->Draw();
Double_t x0, y0, z0;
TLatex l;
l.SetTextSize(0.03);
l.SetTextAlign(32);
char val[20];
for(i = 0; i < TotalConts; i++){
contLevel = (TList*)conts->At(i);
z0 = level[i];
printf("Z-Level Passed in as: Z = %f\n", z0);
// Get first graph from list on curves on this level
curv = (TGraph*)contLevel->First();
for(j = 0; j < contLevel->GetSize(); j++){
// last point
//curv->GetPoint(curv->GetN()-1, x0, y0);
// first point
curv->GetPoint(2, x0, y0);
// if (z0<0) curv->SetLineColor(kRed);
// if (z0>0) curv->SetLineColor(kBlue);
nGraphs ++;
printf("\tGraph: %d -- %d Elements\n", nGraphs,curv->GetN());
// Draw clones of the graphs to avoid deletions in case the 1st
// pad is redrawn.
gc = (TGraph*)curv->Clone();
gc->Draw("C");
if (z0>=.01) sprintf(val,"%0.2f",z0);
if (z0>=.1) sprintf(val,"%0.2f",z0);
if (z0>=1) sprintf(val,"%0.0f",z0);
l.DrawLatex(x0*0.99,y0,val);
curv = (TGraph*)contLevel->After(curv); // Get Next graph
}
}
gPad->SetLogy();
gPad->SetGridx();
gPad->SetGridy();
gPad->SetRightMargin(0.05);
gPad->SetTopMargin(0.10);
c2->Update();
printf("\n\n\tExtracted %d Contours and %d Graphs \n", TotalConts, nGraphs );
tl.SetTextAlign(31);
tl.DrawLatex(0.8,0.85,goodName);
tl.SetTextAlign(31);
tl.DrawLatex(0.8,0.77,goodType);
pCan(c2,cname+"_BW");
c1->cd(1);
gPad->SetLogy();
gPad->SetLogz();
c1->cd(2);
gPad->SetLogy();
c1->Update();
pCan(c1,cname);
}
void drawContour(TString bino="bino", TString jet="nojet", bool print=false) {
bool useCustomGetContour = false;
// TString data_dir = "table_20120131/multiChannel"; // answering preapproval questions
TString data_dir = "table_20120209/multiChannel"; // last success after answering preapproval questions
//TString data_dir = ".";
gStyle->SetOptStat(0);
TString label = bino + "_mN375_met100_" + jet;
if(bino.Contains("mNScan")) label = bino + "_met100_" + jet;
gStyle->SetPalette(1);
gStyle->SetPadLeftMargin(0.15);
// TString option2D = "CONT4 Z";
TString option2D = "COL Z";
// for bino & wino
const int nG = 21;
const int nS = 21;
float mGVals[nG+1] = {400, 480, 560, 640, 720, 800, 880, 960, 1040, 1120, 1200, 1280, 1360, 1440, 1520, 1600, 1680, 1760, 1840, 1920, 2000, 2100};
float mSVals[nS+1] = {400, 480, 560, 640, 720, 800, 880, 960, 1040, 1120, 1200, 1280, 1360, 1440, 1520, 1600, 1680, 1760, 1840, 1920, 2000, 2100};
// to make valuse on the center of each bin
float* mGBins = new float[nG+1];
float* mSBins = new float[nS+1];
for(int i=0; i<nG+1; i++) mGBins[i] = mGVals[i]-40;
for(int i=0; i<nS+1; i++) mSBins[i] = mSVals[i]-40;
// for mNScan
const int nX = 10;
const int nY = 23;
float xVals[nX+1] = {150, 250, 350, 450, 550, 650, 750, 850, 950, 1050, 1150};
float yVals[nY+1] = {240, 320, 400, 480, 560, 640, 720, 800, 880, 960, 1040, 1120, 1200, 1280, 1360, 1440, 1520, 1600, 1680, 1760, 1840, 1920, 2000, 2100};
float* xBins = new float[nX+1];
float* yBins = new float[nY+1];
for(int i=0; i<nX+1; i++) xBins[i] = xVals[i]-50;
for(int i=0; i<nY+1; i++) yBins[i] = yVals[i]-40;
TFile* fout = new TFile("hist_exclusion_"+label+".root","RECREATE");
const int nxs = 6;
TString xsname[nxs] = {"xsec","xsec_1L","xsec_1H","xsec_2L","xsec_2H","acc"};
TH2D* h_xs[nxs];
for(int i=0; i<nxs; i++) {
if(bino.Contains("mNScan")) h_xs[i] = new TH2D(xsname[i],xsname[i],nX,xBins,nY,yBins);
else h_xs[i] = new TH2D(xsname[i],xsname[i],nS,mSBins,nG,mGBins);
}
const int nlimit = 6;
TString limitname[nlimit] = {"limit", "exp", "exp_1L","exp_1H","exp_2L","exp_2H"};
TH2D* h_limit[nlimit];
for(int i=0; i<nlimit; i++) {
if(bino.Contains("mNScan")) h_limit[i] = new TH2D(limitname[i],limitname[i],nX,xBins,nY,yBins);
else h_limit[i] = new TH2D(limitname[i],limitname[i],nS,mSBins,nG,mGBins);
}
TString datafile = data_dir + "/" + bino + "_" + jet + ".table";
std::ifstream fin;
fin.open(datafile.Data());
while(1){
// #echo "mS mG mN acc xsec xsecPDFError xsecRSErrorNeg xsecRSErrorPos obsLimit expLimit exp_m1s exp_m2s exp_p1s exp_p2s"
int mS, mG, mN;
double acc, xsec, xsecPDFError, xsecRSErrorNeg, xsecRSErrorPos, obsLimit, expLimit, exp_m1s, exp_m2s, exp_p1s, exp_p2s;
fin >> mS >> mG >> mN >> acc >> xsec >> xsecPDFError >> xsecRSErrorNeg >> xsecRSErrorPos >> obsLimit >> expLimit >> exp_m1s >> exp_m2s >> exp_p1s >> exp_p2s;
if(!fin.good()) break;
// std::cout << mS << ", " << mG << ", " << mN << ", " << acc << ", " << xsec << ", " << xsecPDFError << ", "
// << xsecRSErrorNeg << ", " << xsecRSErrorPos << ", " << obsLimit << ", " << expLimit << ", "
// << exp_m1s << ", " << exp_m2s << ", " << exp_p1s << ", " << exp_p2s << std::endl;
double oneSigma_L = std::sqrt(xsecRSErrorNeg * xsecRSErrorNeg + xsecPDFError * xsecPDFError);
double oneSigma_H = std::sqrt(xsecRSErrorPos * xsecRSErrorPos + xsecPDFError * xsecPDFError);
if(bino.Contains("mNScan")) {
if(mS != 2500) continue;
h_xs[5]->Fill(mN,mG,acc);
h_xs[0]->Fill(mN,mG,xsec);
h_xs[1]->Fill(mN,mG,xsec - xsec*oneSigma_L);
h_xs[2]->Fill(mN,mG,xsec + xsec*oneSigma_H);
h_xs[3]->Fill(mN,mG,xsec - xsec*2*oneSigma_L);
h_xs[4]->Fill(mN,mG,xsec + xsec*2*oneSigma_H);
h_limit[0]->Fill(mN,mG,obsLimit*xsec);
h_limit[1]->Fill(mN,mG,expLimit*xsec);
h_limit[2]->Fill(mN,mG,exp_m1s*xsec);
h_limit[3]->Fill(mN,mG,exp_p1s*xsec);
h_limit[4]->Fill(mN,mG,exp_m2s*xsec);
h_limit[5]->Fill(mN,mG,exp_p2s*xsec);
}
else {
if(mN != 375) continue;
h_xs[5]->Fill(mS,mG,acc);
h_xs[0]->Fill(mS,mG,xsec);
h_xs[1]->Fill(mS,mG,xsec - xsec*oneSigma_L);
h_xs[2]->Fill(mS,mG,xsec + xsec*oneSigma_H);
h_xs[3]->Fill(mS,mG,xsec - xsec*2*oneSigma_L);
h_xs[4]->Fill(mS,mG,xsec + xsec*2*oneSigma_H);
h_limit[0]->Fill(mS,mG,obsLimit*xsec);
h_limit[1]->Fill(mS,mG,expLimit*xsec);
h_limit[2]->Fill(mS,mG,exp_m1s*xsec);
h_limit[3]->Fill(mS,mG,exp_p1s*xsec);
h_limit[4]->Fill(mS,mG,exp_m2s*xsec);
h_limit[5]->Fill(mS,mG,exp_p2s*xsec);
}// if - else
}// while
fin.close();
for(int i=0; i<nxs; i++) fillPotHoles(h_xs[i]);
for(int i=0; i<nlimit; i++) fillPotHoles(h_limit[i]);
TGraph* noRegion2 = new TGraph(3);
noRegion2->SetPoint(0,200,200);
noRegion2->SetPoint(1,1100,200);
noRegion2->SetPoint(2,1100,1100);
noRegion2->SetFillColor(16);
TLatex* lat44 = new TLatex(0.7,0.25,"#tilde{g} NLSP");
lat44->SetNDC(true);
lat44->SetTextSize(0.04);
TString title;
TCanvas* can_acc = new TCanvas("can_acc_"+label,"can_acc_"+label,1000,800);
can_acc->SetRightMargin(0.19);
h_xs[5]->GetXaxis()->SetNdivisions(505);
h_xs[5]->GetYaxis()->SetNdivisions(505);
h_xs[5]->GetYaxis()->SetTitleOffset(1.2);
h_xs[5]->GetZaxis()->SetTitleOffset(1.2);
title = ";m_{#tilde{q}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2});Acceptance";
if(bino.Contains("mNScan")) title = ";m_{#chi^{0}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2});Acceptance";
h_xs[5]->SetTitle(title);
h_xs[5]->Draw(option2D);
if(bino.Contains("mNScan")){
noRegion2->Draw("same f");
lat44->Draw("same");
}
if(print) {
can_acc->Print("",".gif");
can_acc->Print("",".pdf");
}
TCanvas* can_xs = new TCanvas("can_xsec_"+label,"can_xsec_"+label,1000,800);
can_xs->SetRightMargin(0.17);
can_xs->SetLogz();
h_xs[0]->GetXaxis()->SetNdivisions(505);
h_xs[0]->GetYaxis()->SetNdivisions(505);
h_xs[0]->GetYaxis()->SetTitleOffset(1.2);
h_xs[0]->GetZaxis()->SetTitleOffset(1.0);
title = ";m_{#tilde{q}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2});Cross Section (pb)";
if(bino.Contains("mNScan")) title = ";m_{#chi^{0}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2});Cross Section (pb)";
h_xs[0]->SetTitle(title);
h_xs[0]->Draw(option2D);
if(bino.Contains("mNScan")){
noRegion2->Draw("same f");
lat44->Draw("same");
}
if(print) {
can_xs->Print("",".gif");
can_xs->Print("",".pdf");
}
TCanvas* can_limit = new TCanvas("can_limit_"+label,"can_limit_"+label,1000,800);
can_limit->SetRightMargin(0.2);
h_limit[0]->GetXaxis()->SetNdivisions(505);
h_limit[0]->GetYaxis()->SetNdivisions(505);
h_limit[0]->GetYaxis()->SetTitleOffset(1.2);
h_limit[0]->GetZaxis()->SetTitleOffset(1.3);
if(bino.Contains("wino")){
can_limit->SetRightMargin(0.17);
h_limit[0]->GetZaxis()->SetTitleOffset(1.0);
}
title = ";m_{#tilde{q}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2});95% CL Upper Limit (pb)";
if(bino.Contains("mNScan")) title = ";m_{#chi^{0}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2});95% CL Upper Limit (pb)";
h_limit[0]->SetTitle(title);
h_limit[0]->Draw(option2D);
if(bino.Contains("mNScan")){
noRegion2->Draw("same f");
lat44->Draw("same");
}
if(print) {
can_limit->Print("",".gif");
can_limit->Print("",".pdf");
}
// now find exclusion curves
TCanvas* can_diff = new TCanvas("can_diff_"+label,"can_diff_"+label,1200,800);
// can_diff->Divide(nlimit,nxs);
TH2D* h_excl[nlimit][nxs-1];
for(int i=0; i<nlimit; i++) {
for(int j=0; j<nxs-1; j++) {
h_excl[i][j] = (TH2D*) h_limit[i]->Clone("exclusion_"+limitname[i]+"_"+xsname[j]);
int nbinsx = h_excl[i][j]->GetXaxis()->GetNbins();
int nbinsy = h_excl[i][j]->GetYaxis()->GetNbins();
for( int ibx=1; ibx<=nbinsx; ++ibx){
for( int iby=1; iby<=nbinsy; ++iby){
double x1 = h_limit[i]->GetBinContent(ibx,iby);
double x2 = h_xs[j]->GetBinContent(ibx,iby);
h_excl[i][j]->SetBinContent(ibx,iby,x2-x1);
x1 = h_limit[i]->GetBinError(ibx,iby);
x2 = h_xs[j]->GetBinError(ibx,iby);
h_excl[i][j]->SetBinError(ibx,iby,std::sqrt(x1*x1+x2*x2));
}// for iby
}// for ibx
fixBadCells(h_excl[i][j]);
if(i==0 && j==0) h_excl[i][j]->Draw("TEXT");
}// for j
}// for i
float xmin = 400;
float ymin = 400;
float xmax = 2000;
float ymax = 2000;
if(bino.Contains("mNScan")){
xmin = 200;
xmax = 1500;
ymin = 300;
ymax = 2000;
}
TGraph* curv[nlimit][nxs-1];
TGraphSmooth* gsmooth = new TGraphSmooth("normal");
TH2D* h_back;
if(bino.Contains("mNScan")) h_back = new TH2D("h_back",";m_{#tilde{#chi^{0}}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2})",100,xmin,xmax,100,ymin,ymax);
else h_back = new TH2D("h_back",";m_{#tilde{q}} (GeV/c^{2});m_{#tilde{g}} (GeV/c^{2})",100,xmin,xmax,100,ymin,ymax);
h_back->GetXaxis()->SetNdivisions(505);
h_back->GetYaxis()->SetNdivisions(505);
h_back->GetYaxis()->SetTitleOffset(1.2);
double contours[2]={ 0.0, 1.0 };
TCanvas *can_excl01 = new TCanvas("can_excl01_"+label, "can_excl01_"+label,1200,800);
can_excl01->Divide(nlimit,nxs-1);
for(int i=0; i<nlimit; i++) {
for(int j=0; j<nxs-1; j++) {
can_excl01->cd(j*nlimit + i + 1);
h_back->Draw();
if(useCustomGetContour) {
curv[i][j] = getContour(h_excl[i][j],"excl_curv_"+limitname[i]+"_"+xsname[j]);
curv[i][j]->Draw("SAME L");
}
else {
h_excl[i][j]->SetContour(2,contours);
h_excl[i][j]->Draw("SAME CONT LIST");
gPad->Update();
TObjArray *contsM = (TObjArray*) gROOT->GetListOfSpecials()->FindObject("contours");
TList* contLevel = (TList*)contsM->At(0);
curv[i][j] = (TGraph*)contLevel->First()->Clone("excl_curv_"+limitname[i]+"_"+xsname[j]);
}
// PrintPoints(curv[i][j]);
// RemovePoints(curv[i][j]);
}// for j
}// for i
if(bino.Contains("mNScan")) {
for(int i=0; i<nlimit; i++) {
for(int j=0; j<nxs-1; j++) {
RemovePoints(curv[i][j]);
}
}
for(int i=0; i<nlimit; i++) {
for(int j=0; j<nxs-1; j++) {
double x,y;
int whichone = curv[i][j]->GetN()-1;
curv[i][j]->GetPoint(whichone-1,x,y);
curv[i][j]->SetPoint(whichone,y,y);
}
}
}
TGraphSmooth* gs[nlimit][nxs-1];
TGraph* curvS[nlimit][nxs-1];
for(int i=0; i<nlimit; i++) {
for(int j=0; j<nxs-1; j++) {
// gs[i][j] = new TGraphSmooth("normal");
// curvS[i][j] = gs[i][j]->SmoothSuper(curv[i][j]);
curvS[i][j] = (TGraph*) curv[i][j]->Clone();
curvS[i][j]->SetName("excl_curvS_"+limitname[i]+"_"+xsname[j]);
}
}
std::cout << "curv[3][0]----------------- N : " << curv[3][0]->GetN() << std::endl;
PrintPoints(curv[3][0]);
std::cout << "curvS[3][0]----------------- N : " << curvS[3][0]->GetN() << std::endl;
PrintPoints(curvS[3][0]);
std::cout << "---------------------------------" << std::endl;
// make excluded region
TGraph* excludedRegion = new TGraph(curvS[0][0]->GetN()+3);
int nbins = curvS[0][0]->GetN();
for(int i=0; i<nbins; i++){
double x,y;
curvS[0][0]->GetPoint(i,x,y);
excludedRegion->SetPoint(i,x,y);
}
excludedRegion->SetPoint(nbins,xmax,ymin);
excludedRegion->SetPoint(nbins+1,xmin,ymin);
excludedRegion->SetPoint(nbins+2,xmin,ymax);
// make band graph
TGraph* exp1sigma_aroundExp = makeBandGraph(curvS[2][0],curvS[3][0]);
TCanvas* can_excl02 = new TCanvas("can_excl02_"+label, "can_excl02_"+label,1000,800);
h_back->Draw();
// can_excl02->SetGrid(1,1);
// ecluded region
excludedRegion->SetFillColor(kBlue-10);
excludedRegion->SetFillStyle(1001);
excludedRegion->Draw("SAME F");
// experimental 1 sigma band around expected limit
exp1sigma_aroundExp->SetFillColor(kOrange-3);
exp1sigma_aroundExp->SetFillStyle(1001);
exp1sigma_aroundExp->Draw("SAME F");
// expected limit
curvS[1][0]->SetLineStyle(9);
curvS[1][0]->SetLineWidth(2);
curvS[1][0]->SetLineColor(kOrange+9);
curvS[1][0]->Draw("SAME L");
// theory 1 sigma around expected limit
curvS[1][1]->SetLineStyle(3);
curvS[1][1]->SetLineWidth(1);
curvS[1][1]->SetLineColor(kOrange+9);
curvS[1][1]->Draw("SAME L");
curvS[1][2]->SetLineStyle(3);
curvS[1][2]->SetLineWidth(1);
curvS[1][2]->SetLineColor(kOrange+9);
curvS[1][2]->Draw("SAME L");
// observed limit
curvS[0][0]->SetLineWidth(3);
curvS[0][0]->SetLineColor(4);
curvS[0][0]->Draw("SAME L");
// theory 1 sigma around observed limit
curvS[0][1]->SetLineStyle(3);
curvS[0][1]->SetLineWidth(2);
curvS[0][1]->SetLineColor(kBlue);
curvS[0][1]->Draw("SAME L");
curvS[0][2]->SetLineStyle(3);
curvS[0][2]->SetLineWidth(2);
curvS[0][2]->SetLineColor(kBlue);
curvS[0][2]->Draw("SAME L");
PrintPoints(curvS[0][0]);
float leg_xmin = 0.65;
float leg_xmax = 0.9;
float leg_ymin = 0.5;
float leg_ymax = 0.8;
if(bino.Contains("mNScan")){
leg_xmin -= 0.45;
leg_xmax -= 0.45;
}
TLegend* leg;
if(bino.Contains("mNScan")) leg = new TLegend(leg_xmin,leg_ymin,leg_xmax,leg_ymax,"","brNDC");
else leg = new TLegend(leg_xmin,leg_ymin,leg_xmax,leg_ymax,"GGM "+bino+"-like #tilde{#chi}^{0}","brNDC");
leg->SetFillColor(0);
leg->SetLineColor(0);
leg->SetBorderSize(0);
leg->SetTextFont(62);
leg->SetTextSize(0.03);
if(bino.Contains("mNScan")) leg->AddEntry("NULL","m_{#tilde{q}} = 2500 (GeV/c^{2})","h");
else leg->AddEntry("NULL","m_{#tilde{#chi}^{0}} = 375 (GeV/c^{2})","h");
TString jetRequirement = "Without jet requirement";
if(jet.Contains("1jet")) jetRequirement = "At least 1 jet requirement";
leg->AddEntry("NULL",jetRequirement,"h");
leg->AddEntry("NULL","NLO Limits","h");
leg->AddEntry(curvS[0][0],"Observed","L");
leg->AddEntry(curvS[0][1],"#pm1#sigma (theory)","L");
leg->AddEntry(curvS[1][0],"Expected","L");
leg->AddEntry(curvS[1][1],"#pm1#sigma (theory)","L");
leg->AddEntry(exp1sigma_aroundExp,"#pm1#sigma (experimental)","F");
leg->Draw("same");
TLatex* lat = new TLatex(leg_xmin+0.02,0.87,"CMS Preliminary");
lat->SetNDC(true);
lat->SetTextFont(43);
lat->SetTextSize(30);
lat->Draw("same");
TLatex* lat2 = new TLatex(leg_xmin,0.83,"#int #font[12]{L}dt = 4.7fb^{-1}, #sqrt{s} = 7 TeV");
lat2->SetNDC(true);
lat2->SetTextFont(43);
lat2->SetTextSize(24);
lat2->Draw("same");
float xv = 0.25;
float yv = 0.25;
if(bino.Contains("wino")){
xv = 0.23;
yv = 0.23;
}
if(bino.Contains("mNScan")){
xv = 0.2;
yv = 0.3;
}
TLatex* lat3 = new TLatex(xv,yv,"Excluded");
lat3->SetNDC(true);
lat3->SetTextFont(52);
lat3->SetTextSize(0.06);
lat3->Draw("same");
TGraph* noRegion = new TGraph(3);
noRegion->SetPoint(0,TMath::Min(xmin,ymin),TMath::Min(xmin,ymin));
noRegion->SetPoint(1,xmax,ymin);
noRegion->SetPoint(2,TMath::Min(xmax,ymax),TMath::Min(xmax,ymax));
noRegion->SetFillColor(16);
TLatex* lat4 = new TLatex(0.7,0.25,"#tilde{g} NLSP");
lat4->SetNDC(true);
lat4->SetTextSize(0.04);
if(bino.Contains("mNScan")){
noRegion->Draw("same f");
lat4->Draw("same");
}
can_excl02->RedrawAxis();
if(print) {
can_excl02->Print("",".gif");
can_excl02->Print("",".pdf");
}
fout->cd();
fout->Write();
can_acc->Write();
can_xs->Write();
can_limit->Write();
can_excl01->Write();
can_excl02->Write();
for(int i=0; i<nlimit; i++){
for(int j=0; j<nxs-1; j++){
curv[i][j]->Write();
curvS[i][j]->Write();
}
}
}
