KVIonRangeTableMaterial* KVRangeYanez::MakeNaturallyOccuringElementMixture(Int_t z)
{
// create a material containing the naturally occuring isotopes of the given element,
// weighted according to their abundance.
if (!gNDTManager) {
Error("MakeNaturallyOccuringElementMixture",
"Nuclear data tables have not been initialised");
return NULL;
}
KVElementDensity* ed = (KVElementDensity*)gNDTManager->GetData(z, z, "ElementDensity");
if (!ed) {
Error("AddElementalMaterial",
"No element found in ElementDensity NDT-table with Z=%d", z);
return 0x0;
}
TString state = "solid";
if (ed->IsGas()) state = "gas";
KVRangeYanezMaterial* mat =
new KVRangeYanezMaterial(this,
ed->GetElementName(),
ed->GetElementSymbol(),
state, ed->GetValue());
KVNucleus nuc(z);
KVNumberList isotopes = nuc.GetKnownARange();
isotopes.Begin();
while (!isotopes.End()) {
nuc.SetA(isotopes.Next());
Double_t abundance = nuc.GetAbundance() / 100.;
if (abundance > 0.) mat->AddMixtureElement(z, nuc.GetA(), 1, abundance);
}
mat->Initialize();
return (KVIonRangeTableMaterial*)mat;
}
//_____________________________________________________________________________________________________//
KVIDGrid* KVIDTelescope::CalculateDeltaE_EGrid(TH2* haa_zz, Bool_t Zonly, Int_t npoints)
{
//Genere une grille dE-E (perte d'energie - energie residuelle)
//Le calcul est fait pour chaque couple comptant de charge (Z) et masse (A)
//au moins un coup dans l'histogramme haa_zz definit :
// Axe X -> Z
// Axe Y -> A
//
//- Si Zonly=kTRUE (kFALSE par defaut), pour un Z donne, le A choisi est la valeur entiere la
//plus proche de la valeur moyenne <A>
//- Si Zonly=kFALSE et que pour un Z donne il n'y a qu'un seul A associe, les lignes correspondants
//a A-1 et A+1 sont ajoutes
//- Si a un Z donne, il n'y a aucun A, pas de ligne tracee
//un noyau de A et Z donne n'est considere que s'il retourne KVNucleus::IsKnown() = kTRUE
//
// Warning : the grid is not added to the list of the telescope and MUST BE DELETED by the user !
if (GetSize() <= 1) return 0;
TClass* cl = new TClass(GetDefaultIDGridClass());
KVIDGrid* idgrid = (KVIDGrid*)cl->New();
delete cl;
idgrid->AddIDTelescope(this);
idgrid->SetOnlyZId(Zonly);
KVDetector* det_de = GetDetector(1);
if (!det_de) return 0;
KVDetector* det_eres = GetDetector(2);
if (!det_eres) return 0;
KVNucleus part;
Info("CalculateDeltaE_EGrid",
"Calculating dE-E grid: dE detector = %s, E detector = %s",
det_de->GetName(), det_eres->GetName());
KVIDCutLine* B_line = (KVIDCutLine*)idgrid->Add("OK", "KVIDCutLine");
Int_t npoi_bragg = 0;
B_line->SetName("Bragg_line");
B_line->SetAcceptedDirection("right");
Double_t SeuilE = 0.1;
for (Int_t nx = 1; nx <= haa_zz->GetNbinsX(); nx += 1) {
Int_t zz = TMath::Nint(haa_zz->GetXaxis()->GetBinCenter(nx));
KVNumberList nlA;
Double_t sumA = 0, sum = 0;
for (Int_t ny = 1; ny <= haa_zz->GetNbinsY(); ny += 1) {
Double_t stat = haa_zz->GetBinContent(nx, ny);
if (stat > 0) {
Double_t val = haa_zz->GetYaxis()->GetBinCenter(ny);
nlA.Add(TMath::Nint(val));
sumA += val * stat;
sum += stat;
}
}
sumA /= sum;
Int_t nA = nlA.GetNValues();
if (nA == 0) {
Warning("CalculateDeltaE_EGrid", "no count for Z=%d", zz);
} else {
if (Zonly) {
nlA.Clear();
nlA.Add(TMath::Nint(sumA));
} else {
if (nA == 1) {
Int_t aref = nlA.Last();
nlA.Add(aref - 1);
nlA.Add(aref + 1);
}
}
part.SetZ(zz);
// printf("zz=%d\n",zz);
nlA.Begin();
while (!nlA.End()) {
Int_t aa = nlA.Next();
part.SetA(aa);
// printf("+ aa=%d known=%d\n",aa,part.IsKnown());
if (part.IsKnown()) {
//loop over energy
//first find :
// ****E1 = energy at which particle passes 1st detector and starts to enter in the 2nd one****
// E2 = energy at which particle passes the 2nd detector
//then perform npoints calculations between these two energies and use these
//to construct a KVIDZALine
Double_t E1, E2;
//find E1
//go from SeuilE MeV to det_de->GetEIncOfMaxDeltaE(part.GetZ(),part.GetA()))
Double_t E1min = SeuilE, E1max = det_de->GetEIncOfMaxDeltaE(zz, aa);
E1 = (E1min + E1max) / 2.;
while ((E1max - E1min) > SeuilE) {
part.SetEnergy(E1);
det_de->Clear();
det_eres->Clear();
det_de->DetectParticle(&part);
det_eres->DetectParticle(&part);
if (det_eres->GetEnergy() > SeuilE) {
//particle got through - decrease energy
E1max = E1;
E1 = (E1max + E1min) / 2.;
} else {
//particle stopped - increase energy
E1min = E1;
E1 = (E1max + E1min) / 2.;
}
}
//add point to Bragg line
Double_t dE_B = det_de->GetMaxDeltaE(zz, aa);
Double_t E_B = det_de->GetEIncOfMaxDeltaE(zz, aa);
Double_t Eres_B = det_de->GetERes(zz, aa, E_B);
B_line->SetPoint(npoi_bragg++, Eres_B, dE_B);
//find E2
//go from E1 MeV to maximum value where the energy loss formula is valid
Double_t E2min = E1, E2max = det_eres->GetEmaxValid(part.GetZ(), part.GetA());
E2 = (E2min + E2max) / 2.;
while ((E2max - E2min > SeuilE)) {
part.SetEnergy(E2);
det_de->Clear();
det_eres->Clear();
det_de->DetectParticle(&part);
det_eres->DetectParticle(&part);
if (part.GetEnergy() > SeuilE) {
//particle got through - decrease energy
E2max = E2;
E2 = (E2max + E2min) / 2.;
} else {
//particle stopped - increase energy
E2min = E2;
E2 = (E2max + E2min) / 2.;
}
}
// printf("z=%d a=%d E1=%lf E2=%lf\n",zz,aa,E1,E2);
KVIDZALine* line = (KVIDZALine*)idgrid->Add("ID", "KVIDZALine");
if (TMath::Even(zz)) line->SetLineColor(4);
line->SetAandZ(aa, zz);
Double_t logE1 = TMath::Log(E1);
Double_t logE2 = TMath::Log(E2);
Double_t dLog = (logE2 - logE1) / (npoints - 1.);
for (Int_t i = 0; i < npoints; i++) {
Double_t E = TMath::Exp(logE1 + i * dLog);
Double_t Eres = 0.;
Int_t niter = 0;
while (Eres < SeuilE && niter <= 20) {
det_de->Clear();
det_eres->Clear();
part.SetEnergy(E);
det_de->DetectParticle(&part);
det_eres->DetectParticle(&part);
Eres = det_eres->GetEnergy();
E += SeuilE;
niter += 1;
}
if (!(niter > 20)) {
Double_t dE = det_de->GetEnergy();
Double_t gEres, gdE;
line->GetPoint(i - 1, gEres, gdE);
line->SetPoint(i, Eres, dE);
}
}
}
}
}
}
return idgrid;
}
void KV_CCIN2P3_GE::Run()
{
//Processes the job requests for the batch system.
//In normal mode, this submits one job for the data analyser fAnalyser
//In multijobs mode, this submits one job for each run in the runlist associated to fAnalyser
if (!CheckJobParameters()) return;
if (MultiJobsMode()) {
if (fAnalyser->InheritsFrom("KVDataSetAnalyser")) {
//submit jobs for every GetRunsPerJob() runs in runlist
KVDataSetAnalyser* ana = dynamic_cast<KVDataSetAnalyser*>(fAnalyser);
KVNumberList runs = ana->GetRunList();
runs.Begin();
Int_t remaining_runs = runs.GetNValues();
fCurrJobRunList.Clear();
while (remaining_runs && !runs.End()) {
Int_t run = runs.Next();
remaining_runs--;
fCurrJobRunList.Add(run);
if ((fCurrJobRunList.GetNValues() == GetRunsPerJob()) || runs.End()) {
// submit job for GetRunsPerJob() runs (or less if we have reached end of runlist 'runs')
ana->SetRuns(fCurrJobRunList, kFALSE);
ana->SetFullRunList(runs);
SubmitJob();
fCurrJobRunList.Clear();
}
}
ana->SetRuns(runs, kFALSE);
}
else if (fAnalyser->InheritsFrom("KVSimDirAnalyser")) {
// here we understand "run" to mean "file"
KVSimDirAnalyser* ana = dynamic_cast<KVSimDirAnalyser*>(fAnalyser);
TList* file_list = ana->GetFileList();
Int_t remaining_runs = ana->GetNumberOfFilesToAnalyse();
fCurrJobRunList.Clear();
TList cur_file_list;
TObject* of;
TIter it(file_list);
Int_t file_no = 1;
while ((of = it())) {
cur_file_list.Add(of);
fCurrJobRunList.Add(file_no);
remaining_runs--;
file_no++;
if ((fCurrJobRunList.GetNValues() == GetRunsPerJob()) || (remaining_runs == 0)) {
// submit job for GetRunsPerJob() files (or less if we have reached end of list)
ana->SetFileList(&cur_file_list);
SubmitJob();
fCurrJobRunList.Clear();
cur_file_list.Clear();
}
}
ana->SetFileList(file_list);
}
}
else {
SubmitJob();
}
}
void CsICalib::InitTelescopeChioSi(Int_t ci_num, Int_t si_num)
{
Char_t si_name [128] = "null";
Char_t ci_name [128] = "null";
sprintf(si_name, "SIE_%02i", si_num+1);
sprintf(ci_name, "CI_%02i", ci_num);
Char_t tel_name [128] = "null";
//sprintf(tel_name, "CI_%02i_SIE_%02i", ci_num, si_num+1);
sprintf(tel_name, "CI_01_SIE_18"); //Similar grids (using energies) for all Chio-Si combinaisons
//cout<<"tel_name 1: "<<tel_name<<endl;
list_chiosi = 0;
// KVList *grid_list = 0;
kvid_chiosi = 0;
KVNumberList runList = 0;
list_chiosi = (KVList*) gIDGridManager->GetGrids();
if(list_chiosi != 0){
//cout<<"list_chiosi!=0"<<endl;
Int_t entries = (Int_t) list_chiosi->GetEntries();
// Int_t kHasGrids = 0;
KVIDGrid *tmpGrid = 0;
// Int_t nGridsForRun = 0;
for(Int_t i=0; i<entries; i++){
tmpGrid = (KVIDGrid*) list_chiosi->At(i);
if(tmpGrid != 0){
//cout<<"tmpGrid!=0"<<endl;
runList = (KVNumberList) tmpGrid->GetRuns();
runList.Begin();
while( !runList.End() ){
UInt_t next_val = (UInt_t) runList.Next();
if(next_val == gIndra->GetCurrentRunNumber()){
//cout<<"next_val : "<<next_val<<endl;
//L->Log<<"name : "<<tmpGrid->GetName()<<endl;
if(strcmp(tmpGrid->GetName(),tel_name)==0){
//L->Log<<"tel_name 2 : "<<tmpGrid->GetName()<<endl;
//cout<<"tel_name 2: "<<tel_name<<endl;
kvid_chiosi = tmpGrid;
}
}
}
}
}
if(kvid_chiosi != 0){
}else{
printf("Error: 'kvid_chiosi' assignment failed\n");
cout<<"ci_num : "<<ci_num<<" si_num : "<<si_num+1<<endl;
cout<<"name : "<<tel_name<<endl;
}
}else{
//printf("Error: 'list' assignment failed\n");
}
return;
}