int main(int argc, char *argv[])
{
cout << endl
<< " iHBT_fit " << endl
<< endl
<< " Ver 1.2 ----- Chun Shen, 10/2014 " << endl;
cout << endl << "**********************************************************" << endl;
display_logo(2); // Hail to the king~
cout << endl << "**********************************************************" << endl << endl;
// Read-in parameters
ParameterReader *paraRdr = new ParameterReader;
paraRdr->readFromFile("parameters.dat");
paraRdr->echo();
string filename=argv[1];
Stopwatch sw_total;
sw_total.tic();
fit_correlation test(filename, paraRdr);
test.fit();
sw_total.toc();
cout << "Program totally finished in " << sw_total.takeTime() << " sec." << endl;
return 0;
}
int main(int argc, char** argv) {
Stopwatch sw;
sw.tic();
ParameterReader* paraRdr = new ParameterReader();
paraRdr->readFromFile("parameters.dat");
paraRdr->readFromArguments(argc, argv);
// create integration grid along eta direction for boost-invariant medium
int neta = paraRdr->getVal("neta");
double eta_i = paraRdr->getVal("eta_i");
double eta_f = paraRdr->getVal("eta_f");
double* eta_ptr = new double[neta];
double* etaweight_ptr = new double[neta];
gauss_quadrature(neta, 1, 0.0, 0.0, eta_i, eta_f, eta_ptr, etaweight_ptr);
PhotonEmission thermalPhotons(paraRdr);
// initialize hydro medium
int hydro_flag = paraRdr->getVal("hydro_flag");
if (hydro_flag == 0) {
int bufferSize = paraRdr->getVal("HydroinfoBuffersize");
int hydroInfoVisflag = paraRdr->getVal("HydroinfoVisflag");
// hydro data file pointer
HydroinfoH5* hydroinfo_ptr = new HydroinfoH5(
"results/JetData.h5", bufferSize, hydroInfoVisflag);
// calculate thermal photons from the hydro medium
thermalPhotons.calPhotonemission(hydroinfo_ptr, eta_ptr,
etaweight_ptr);
delete hydroinfo_ptr;
} else if (hydro_flag == 1) {
Hydroinfo_MUSIC* hydroinfo_ptr = new Hydroinfo_MUSIC();
int hydro_mode = 8;
int nskip_tau = paraRdr->getVal("hydro_nskip_tau");
hydroinfo_ptr->readHydroData(hydro_mode, nskip_tau);
// calculate thermal photons from the hydro medium
thermalPhotons.calPhotonemission(hydroinfo_ptr, eta_ptr,
etaweight_ptr);
delete hydroinfo_ptr;
} else if (hydro_flag == 3) {
Hydroinfo_MUSIC* hydroinfo_ptr = new Hydroinfo_MUSIC();
int hydro_mode = 9;
int nskip_tau = paraRdr->getVal("hydro_nskip_tau");
hydroinfo_ptr->readHydroData(hydro_mode, nskip_tau);
// calculate thermal photons from the hydro medium
thermalPhotons.calPhotonemission(hydroinfo_ptr, eta_ptr,
etaweight_ptr);
delete hydroinfo_ptr;
} else if (hydro_flag == 2) {
Hydroinfo_MUSIC* hydroinfo_ptr = new Hydroinfo_MUSIC();
int hydro_mode = 10;
int nskip_tau = 1;
hydroinfo_ptr->readHydroData(hydro_mode, nskip_tau);
// calculate thermal photons from the hydro medium
thermalPhotons.calPhotonemission_3d(hydroinfo_ptr);
delete hydroinfo_ptr;
} else {
cout << "main: unrecognized hydro_flag = " << hydro_flag << endl;
exit(1);
}
// sum up all channels and compute thermal photon spectra and vn
thermalPhotons.calPhoton_SpvnpT_individualchannel();
thermalPhotons.calPhoton_total_SpMatrix();
thermalPhotons.calPhoton_total_Spvn();
// output results
thermalPhotons.outputPhotonSpvn();
sw.toc();
cout << "totally takes : " << sw.takeTime() << " seconds." << endl;
// clean up
delete [] eta_ptr;
delete [] etaweight_ptr;
return(0);
}
