Inelastic_Event_Generator::~Inelastic_Event_Generator()
{
msg_Info()<<"In "<<METHOD<<"(out = "<<m_output<<")\n";
if (m_output) {
if (m_analyse) {
msg_Info()
<<"Mean number of number of ladders: "
<<"naive = "<<m_histograms[string("N_ladder_naive")]->Average()<<", "
<<"start = "<<m_histograms[string("N_ladder_start")]->Average()<<", "
<<"prim = "<<m_histograms[string("N_ladder_prim")]->Average()<<", "
<<"true = "<<m_histograms[string("N_ladder_true")]->Average()<<".\n";
}
msg_Info()<<"Errors: \n"
<<" Not able to connect blobs "<<m_connectblobs<<";\n"
<<" Wrong colours from ladder "<<m_laddercols<<";\n"
<<" Not able to update colours in event "<<m_updatecols<<".\n";
}
if (m_histograms.empty() || !m_analyse) return;
Histogram * histo;
string name;
for (map<string,Histogram *>::iterator hit=m_histograms.begin();
hit!=m_histograms.end();hit++) {
histo = hit->second;
name = string("Ladder_Analysis/")+hit->first+string(".dat");
histo->Finalize();
histo->Output(name);
delete histo;
}
m_histograms.clear();
}
int main(){
SetOutput("tunel.out");
RandomSeed(time(NULL));
Init(0, 120*60);
(new Generator)->Activate();
Run();
generator_h.Output();
return EXIT_SUCCESS;
}
Cluster_Decay_Analysis::~Cluster_Decay_Analysis()
{
return;
Histogram * histo;
string name;
for (map<string,Histogram *>::iterator hit=m_histograms.begin();
hit!=m_histograms.end();hit++) {
histo = hit->second;
name = string("Fragmentation_Analysis/")+hit->first+string(".dat");
histo->Output(name);
delete histo;
}
m_histograms.clear();
}
Soft_Cluster_Handler::~Soft_Cluster_Handler()
{
msg_Tracking()<<"@@@ "<<METHOD<<": "
<<m_transitions<<" transitions, "
<<m_dtransitions<<" double transitions, "
<<m_decays<<" decays,\n"
<<m_update<<" calls to UpdateTransitions, and "
<<m_forceddecays<<" forced decays.\n"
<<"@@@ "<<METHOD<<": "
<<m_lists<<" transitions from original dipole list.\n";
if (m_ana) {
Histogram * histo;
string name;
for (map<string,Histogram *>::iterator hit=m_histograms.begin();
hit!=m_histograms.end();hit++) {
histo = hit->second;
name = string("Fragmentation_Analysis/")+hit->first+string(".dat");
histo->Output(name);
delete histo;
}
m_histograms.clear();
}
}
Histogram * ResonanceFlavour::CreateGHistogram( ResonanceFlavour res1, ResonanceFlavour res2, double beta, kf_code out )
{
// create file name
char fn[512];
sprintf(fn, "GQ2_Mres=%.3f_Gres=%.3f_MresP=%.3f_GresP=%.3f_beta=%.3f_Mout=%.3f.dat",
res1.Mass(), res1.Width(), res2.Mass(), res2.Width(), beta, Flavour(out).HadMass() );
// look if file already exists
My_In_File f("",m_path+"PhaseSpaceFunctions/"+fn);
if( !f.Open() ) { // if file does not exist
// create histogram (i.e. table of values)
msg_Out()<<"Create necessary phase space function for chosen parameters.\n"
<<"This may take some time. Please wait..."<<endl;
msg_Tracking()<<"HADRONS::Tau_Three_Pseudo::KS::CreateGHistogram : \n"
<<" Create G(q2) in "<<fn<<"."<<endl;
double low (0.), up (3.2);
int nbins (50);
double step = (up-low)/nbins;
Histogram* myHist = new Histogram( 0, low, up+step, nbins+1 );
double q2 (low), phi (0.);
while( q2<=up+step ) {
phi = IntegralG(q2,res1,res2,beta,out); // get G value
myHist->Insert( q2, phi ); // insert into histogram
q2 += step;
}
myHist->Output(m_path+"PhaseSpaceFunctions/"+fn); // write into file
return myHist;
}
else {
// read table and create histogram
msg_Tracking()<<"HADRONS::Tau_Three_Pseudo::KS::CreateGHistogram : \n"
<<" Read G(q2) from "<<fn<<"."<<endl;
std::string found_file_name = f.Path()+f.File();
f.Close();
return new Histogram( found_file_name );
}
}
