bool RenameFile(const wxString& src, const wxString& dst)
{
wxFileName fname1(Manager::Get()->GetMacrosManager()->ReplaceMacros(src));
wxFileName fname2(Manager::Get()->GetMacrosManager()->ReplaceMacros(dst));
NormalizePath(fname1, wxEmptyString);
NormalizePath(fname2, wxEmptyString);
if (!SecurityAllows(_T("RenameFile"), wxString::Format(_T("%s -> %s"),
fname1.GetFullPath().c_str(), fname2.GetFullPath().c_str())))
return false;
if (!wxFileExists(fname1.GetFullPath())) return false;
return wxRenameFile(fname1.GetFullPath(),
fname2.GetFullPath());
}
/* --------------------------------
Main
---------------------------------- */
int main() {
std::string fname1("screenwriter:fontone.dat");
std::string fname2("screenwriter:fonttwo.dat");
std::string fname3("imageloader:imageone.dat");
std::string fname4("imageloader:imagetwo.dat");
std::string fname5("imageloader:imagethree.dat");
MenuResourceManager mrm;
std::shared_ptr<MenuResourceBase> p1 = mrm.requestResource(fname1);
std::shared_ptr<MenuResourceBase> p2 = mrm.requestResource(fname1);
std::shared_ptr<MenuResourceBase> p3 = mrm.requestResource(fname2);
std::shared_ptr<MenuResourceBase> p4 = mrm.requestResource(fname3);
std::shared_ptr<MenuResourceBase> p5 = mrm.requestResource(fname4);
std::shared_ptr<MenuResourceBase> p6 = mrm.requestResource(fname5);
unsigned int n( std::thread::hardware_concurrency() );
std::cout << n << " concurrent threads are supported.\n";
unsigned N(0);
while (true) { // Simulate a graphix engine loop
mrm.manageResources();
std::cout << "Hi, I'm the main thread, waiting for my children threads to finish!\n";
std::cout << "COUNT: " << N << "\n";
std::this_thread::sleep_for( std::chrono::milliseconds(100) );
mrm.printLoad();
if ( p1 && p1.get()->is_loaded() )
p1.reset();
if ( p2 && p2.get()->is_loaded() )
p2.reset();
++N;
}
std::cout << "Hi, I'm Main after the threads finished loading!\n";
}
void MakeSkimQAPlots(TString dataset = "")
{
gStyle->SetMarkerStyle(20);
gStyle->SetLineWidth(3);
gStyle->SetPadColor(10);
gStyle->SetCanvasColor(10);
gStyle->SetTitleFont(42, "XYZ");
gStyle->SetTitleSize(0.06, "XYZ");
gStyle->SetTitleXOffset(0.7);
gStyle->SetTitleYOffset(1.05);
TString fname1("mumu.recolevel." + dataset + ".root");
TString fname2("ee.recolevel." + dataset + ".root");
// TFile *f1 = new TFile(fname1);
// TFile *f2 = new TFile(fname2);
// TTree *t1 = f1->Get("ntp1");
// TTree *t2 = f2->Get("ntp1");
TChain *t1 = new TChain("ntp1");
t1->Add("crab_0_071121_090253/res/mumu.recolevel_*.root");
TChain *t2 = new TChain("ntp1");
t2->Add("crab_0_071121_102409/res/ee.recolevel_*.root");
TH1F *hpsim = new TH1F("hpsim","hpsim",50,2.5,4.5);
TH1F *hpsie = new TH1F("hpsie","hpsie",50,2.5,4.5);
TH1F *hupsm = new TH1F("hupsm","hupsm",50,8,12);
TH1F *hupse = new TH1F("hupse","hupse",50,8,12);
TH1F *hzm = new TH1F("hzm","hzm",50,60,120);
TH1F *hze = new TH1F("hze","hze",50,60,120);
TCanvas *c1 = new TCanvas("c1","#mu^{+}#mu^{-}",1400,800);
c1->Divide(3,3);
c1->cd(1);
hpsim->SetXTitle("#psi mass");
t1->Draw("MuMu_mass >> hpsim");
c1->cd(2);
hupsm->SetXTitle("#Upsilon mass");
t1->Draw("MuMu_mass >> hupsm");
c1->cd(3);
hzm->SetXTitle("Z mass");
t1->Draw("MuMu_mass >> hzm");
c1->cd(4);
t1->Draw("MuonCand_pt");
htemp->SetXTitle("p_{T} (#mu)");
htemp->Draw();
c1->cd(5);
t1->Draw("MuonCand_pt[0]-MuonCand_pt[1]");
htemp->SetXTitle("#Delta p_{T}");
htemp->Draw();
c1->cd(6);
t1->Draw("MuMu_dphi");
htemp->SetXTitle("#Delta #phi");
htemp->Draw();
c1->cd(7);
t1->Draw("CaloTower_eta");
htemp->SetXTitle("#eta (towers)");
htemp->Draw();
c1->cd(8);
c1->SetLogy();
t1->Draw("CaloTower_e");
htemp->SetXTitle("E (towers)");
htemp->Draw();
c1->SetLogy(0);
c1->cd(9);
t1->Draw("nExtraCaloTowersE5");
htemp->SetXTitle("Extra towers (E > 5 GeV)");
htemp->Draw();
TString muname = "dimuons.skimqa." + dataset + ".png";
c1->SaveAs(muname);
TCanvas *c2 = new TCanvas("c2","e^{+}e^{-}",1400,800);
c2->Divide(3,3);
c2->cd(1);
hpsie->SetXTitle("#psi mass");
t2->Draw("ElEl_mass >> hpsie");
c2->cd(2);
hupse->SetXTitle("#Upsilon mass");
t2->Draw("ElEl_mass >> hupse");
c2->cd(3);
hze->SetXTitle("Z mass");
t2->Draw("ElEl_mass >> hze");
c2->cd(4);
t2->Draw("EleCand_et");
htemp->SetXTitle("E_{T} (e)");
htemp->Draw();
c2->cd(5);
t2->Draw("EleCand_et[0]-EleCand_et[1]");
htemp->SetXTitle("#Delta E_{T}");
htemp->Draw();
c2->cd(6);
t2->Draw("ElEl_dphi");
htemp->SetXTitle("#Delta #phi");
htemp->Draw();
c2->cd(7);
t2->Draw("CaloTower_eta");
htemp->SetXTitle("#eta (towers)");
htemp->Draw();
c2->cd(8);
c2->SetLogy();
t2->Draw("CaloTower_e");
htemp->SetXTitle("E (towers)");
htemp->Draw();
c2->SetLogy(0);
c2->cd(9);
t2->Draw("nExtraCaloTowersE5");
htemp->SetXTitle("Extra towers (E > 5 GeV)");
htemp->Draw();
TString elname = "dielectrons.skimqa." + dataset + ".png";
c2->SaveAs(elname);
}
/******************************
* Cross-correlation analysis *
******************************/
void CalcCrossCorrelation (char * filename1 = "test.flu",char * filename2 = "test2.flu") {
FILE * fp_params = fopen ("params.txt","rt");
if (fp_params == NULL) {LOG("!Could not find parameters file!"); return;}
std::string fname1 (filename1);
std::string fname2 (filename2);
std::string out_name ("Xcorr");
if (fname1 != "test.flu" || fname2 != "test2.flu") //in case of custom filename, change the output name too
out_name += fname1.substr(8,100) += fname2.substr(8,100);
out_name += ".dat";
LOG ("*Output correlation to %s",out_name.c_str());
int num_steps = -1;
double dT = -1.0, TAU_MAX = -1.0;
int STEPS_PER_BIN = -1;
if (fscanf (fp_params,"NUM_FRAMES %d\ndT %lf\nTAU_MAX %lf\nBIN_SIZE %d\n",&num_steps, &dT, &TAU_MAX, &STEPS_PER_BIN) != 4)
{ LOG ("!Error reading parameters file (params.txt)."); exit (2); }
LOG ("*Calculating correlation for %s & %s.\nNUM_FRAMES %d, dT %f, TAU_MAX %f, BIN_SIZE %d\n",filename1,filename2,num_steps, dT, TAU_MAX, STEPS_PER_BIN);
FILE * fp;
fp = fopen (out_name.c_str(),"wt");
LOG ("Calculating cross correlation (Logarithmic).");
fprintf (fp, "@title \"G(tau), dT = %f\"\n",dT);
int counter = 0; //counter=1;
if (STEPS_PER_BIN <= 0) { //STEPS_PER_BIN undefined = varying bin size
STEPS_PER_BIN = 1; //start form bin size = frame size, then increase
double time = STEPS_PER_BIN*dT;
Correlator * corr1;
while (time <= TAU_MAX) {
corr1 = new CrossCorrelator (filename1, filename2, dT, num_steps, STEPS_PER_BIN);
printf ("STEPS_PER_BIN=%d.\n",STEPS_PER_BIN);
double result = corr1->Calculate_correlation (time);
fprintf (fp,"%5.9le %5.9le\n",time/1e12, result);
printf ("g(%5.9le)=%5.9le\n", time/1e12, result);
delete corr1;
counter++;
if (counter >= 4) {counter=0; STEPS_PER_BIN*=2;} //every 4 iterations, the bin size (and time change) is doubled
time += STEPS_PER_BIN*dT;
}
}
else { //STEPS_PER_BIN constant, as defined in params.txt
LOG ("Calculating CROSS-correlation for BIN_SIZE = %d.",STEPS_PER_BIN);
double time = STEPS_PER_BIN*dT;
double TIME_STEP = STEPS_PER_BIN;
Correlator * corr1 = new CrossCorrelator (filename1, filename2, dT, num_steps, STEPS_PER_BIN);
printf ("STEPS_PER_BIN=%d.\n",STEPS_PER_BIN);
while (time <= TAU_MAX) {
double result = corr1->Calculate_correlation (time);
fprintf (fp,"%5.9le %5.9le\n",time/1e12, result);
printf ("g(%5.9le)=%5.9le\n", time/1e12, result);
counter++;
if (counter >= 4) {counter=0; TIME_STEP*=2;} //every 4 iterations, the correlation time increase is doubled
time += TIME_STEP*dT;
}
delete corr1;
}
fclose (fp);
LOG ("Finished calculating cross-correlation.");
}