void KVINDRAUpDater_e475s::SetPedestals(KVDBRun* kvrun)
{
KVRList *param_list = kvrun->GetLinks("Pedestals");
if (!param_list)
return;
if (!param_list->GetSize())
return;
KVDetector *det;
KVDBParameterSet *kvps;
TIter next_ps(param_list);
KVString str;
Double_t pied_value;
// Setting all pedestal values available
while ((kvps = (KVDBParameterSet *) next_ps())) { // boucle sur les parametres
str = kvps->GetName();
if ( (det = gIndra->GetDetector(str.Data())) ){
pied_value = kvps->GetParameter(1);
det->SetPedestal(kvps->GetTitle(),pied_value);
} //detector found
} //boucle sur les parameters
}
//___________________________________________________________________________________________
void KVIntegerList::Update()
{
//protected method, Mise a jour du nom de la partition (via SetName()), de sa longueur (fLength)
//Le bit kHastobeComputed es mis à 0 pour indiquer que la mise à jour a été faite
//
KVString snom = "", stamp = "";
for (Int_t ii = fLimiteRegle; ii >= 0; ii -= 1) {
Int_t contenu = fRegle->At(ii);
if (contenu > 0) {
//Formattage du nom de la partition
stamp.Form("%d", ii);
snom += stamp;
if (contenu > 1) {
stamp.Form("(%d)", contenu);
snom += stamp;
}
snom += " ";
}
}
if (snom != "") snom.Remove(snom.Length() - 1);
SetName(snom.Data());
fLength = snom.Length();
SetBit(kHastobeComputed, kFALSE);
}
Bool_t KVSimReader_SMF_asym::ReadHeader(){
KVString snom;
Int_t res = ReadLineAndCheck(1," ");
switch (res){
case 0:
return kFALSE;
case 1:
snom.Form("%s",GetReadPar(0).Data());
snom.ReplaceAll("evt_","");
//Info("ReadHeader","lecture %d",snom.Atoi());
nv->SetValue("event_number",snom.Atoi());
break;
default:
return kFALSE;
}
res = ReadLineAndCheck(1," ");
switch (res){
case 0:
return kFALSE;
case 1:
nv->SetValue("ndes",GetIntReadPar(0));
ndes = 0;
return kTRUE;
default:
return kFALSE;
}
}
const Char_t* KV_CCIN2P3_GE::GetJobName() const
{
//Returns name of batch job, either during submission of batch jobs or when an analysis
//task is running in batch mode (access through gBatchSystem global pointer).
//
//In multi-job mode, the job name is generated from the base name set by SetJobName()
//plus the extension "_Rxxxx-yyyy" with "xxxx" and "yyyy" the number of the first and last run
//which will be analysed by the current job.
//
// Depending on the batch system, some sanitization of the jobname may be required
// e.g. to remove "illegal" characters from the jobname. This is done by SanitizeJobName()
// before the jobname is returned.
if (!fAnalyser) {
//stand-alone batch submission ?
fCurrJobName = fJobName;
}
else {
//replace any special symbols with their current values
fCurrJobName = fAnalyser->ExpandAutoBatchName(fJobName.Data());
if (MultiJobsMode() && !fAnalyser->BatchMode()) {
KVString tmp;
if (fCurrJobRunList.GetNValues() > 1)
tmp.Form("_R%d-%d", fCurrJobRunList.First(), fCurrJobRunList.Last());
else
tmp.Form("_R%d", fCurrJobRunList.First());
fCurrJobName += tmp;
}
}
SanitizeJobName();
return fCurrJobName.Data();
}
//________________________________________________________________
Double_t KVCaloBase::GetIngValue(KVString name)
{
//return the value of a name given ingredient
//if it is not defined return 0
if (!nvl_ing->HasParameter(name.Data())) return 0;
return nvl_ing->GetDoubleValue(name.Data());
}
void KV_CCIN2P3_GE::ChangeDefJobOpt(KVDataAnalyser* da)
{
// PRIVATE method called by SubmitTask() at moment of job submission.
// Depending on the current environment, the default job submission options
// may be changed by this method.
//
// This method overrides and augments KVBatchSystem::ChangeDefJobOpt (which
// changes the options as a function of the type of analysis task).
// Here we add the CCIN2P3-specific case where the job is launched from a directory
// on the /sps/ semi-permanent storage facility, or if the data being analysed is
// stored in a repository on /sps/. In this case we need to add
// the option '-l u_sps_indra' to the 'qsub' command (if not already in the
// default job options)
//
KVBatchSystem::ChangeDefJobOpt(da);
KVString taskname = da->GetAnalysisTask()->GetName();
KVString rootdir = da->GetRootDirectoryOfDataToAnalyse();
Bool_t repIsSPS = rootdir.BeginsWith("/sps/");
KVString wrkdir(gSystem->WorkingDirectory());
KVString oldoptions(GetDefaultJobOptions());
if (!oldoptions.Contains("sps")) {
Bool_t NeedToAddSPS = wrkdir.Contains("/sps/");
if ((NeedToAddSPS || repIsSPS)) {
oldoptions += " -l sps=1";
SetDefaultJobOptions(oldoptions.Data());
Info("ChangeDefJobOpt",
"Your job is being launched from /sps/... zone.\nTherefore the ressource 'sps' has been declared and the number of jobs which can be treated concurrently will be limited.");
}
}
}
void KVSimDir::AnalyseDirectory()
{
// Read contents of directory given to ctor.
// Each ROOT file will be analysed by AnalyseFile().
Info("AnalyseDirectory", "Analysing %s...", GetDirectory());
fSimData.Clear();
fFiltData.Clear();
//loop over files in current directory
TSystemDirectory thisDir(".", GetDirectory());
TList* fileList = thisDir.GetListOfFiles();
TIter nextFile(fileList);
TSystemFile* aFile = 0;
while ((aFile = (TSystemFile*)nextFile())) {
if (aFile->IsDirectory()) continue;
KVString fileName = aFile->GetName();
if (!fileName.EndsWith(".root")) continue; /* skip non-ROOT files */
AnalyseFile(fileName);
}
delete fileList;
}
//___________________________________________________________________________________________
void KVValues::DefineAdditionalValue(KVString name, KVString expr)
{
if (HasParameter(name.Data())) {
Warning("DefineAdditionalValue", "le nom de variable %s est deja utilise", name.Data());
return;
}
KVString expr2 = expr;
KVNumberList* nl = TransformExpression(expr2);
if (nl) {
if (nl->IsEmpty()) {
Warning("DefineAdditionalValue", "la KVNumberList est vide #%s#", nl->GetList());
}
else {
if (AddFormula(name, expr2)) {
LinkParameters(nl);
ComputeAdditionalValues(kval_add - 1, kval_add);
}
}
}
else {
Error("DefineAdditionalValue", "La traduction de l'expression %s a echouee", expr.Data());
}
}
KVRangeYanez::KVRangeYanez()
: KVIonRangeTable("RANGE",
"Interface to Range dE/dx and range library (Ricardo Yanez)")
{
// Default constructor
// Predefined materials are created based on the contents of the file(s) whose
// names are given as values of the variable KVRangeYanez.PredefMaterials.
// A default file is specified in the main .kvrootrc file.
// If you want to add your own definitions, just put in your .kvrootrc:
//+RANGE.PredefMaterials: myfile1.dat
//+RANGE.PredefMaterials: myfile2.dat
// If you want to override the default definitions:
//RANGE.PredefMaterials: myfile1.dat
//+RANGE.PredefMaterials: myfile2.dat
KVString DataFilePaths = gEnv->GetValue("RANGE.PredefMaterials", "");
DataFilePaths.Begin(" ");
KVString nextPath;
KVString lastPath;
while (!DataFilePaths.End()) {
nextPath = DataFilePaths.Next();
if (nextPath == lastPath) break; //check for double occurrence of last file : TEnv bug?
lastPath = nextPath;
ReadPredefinedMaterials(nextPath);
}
}
void KV_CCIN2P3_GE::ChooseJobDisk()
{
KVString tmp = "";
cout << "Enter max scratch disk per job (xKB/xMB/xGB) ["
<< fDefJobDisk.Data() << "] : ";
cout.flush();
tmp.ReadToDelim(cin);
SetJobDisk(tmp.Data());
}
void KV_CCIN2P3_GE::ChooseJobMemory()
{
KVString tmp = "";
cout << "Enter max memory per job (xKB/xMB/xGB) ["
<< fDefJobMem.Data() << "] : ";
cout.flush();
tmp.ReadToDelim(cin);
SetJobMemory(tmp.Data());
}
//___________________________________________________________________________________________
void KVValues::init_val_base()
{
//protected method
//Mise en correspondance du noms des differentes valeurs a calculees
//et de leur position dans le tableau values
// Ex:
// nom_valeurs -> id_valeurs -> values[id_valeurs]
KVString lname = "MIN MAX";
lname.Begin(" ");
kval_base = 0; //variables de base disponibles
kval_tot = 0; //nombre de variables totales disponibles
while (!lname.End()) {
KVString tamp = lname.Next();
SetValue(tamp.Data(), kval_tot++);
}
kdeb = kval_tot; //ici pos_deb=2 (par defaut)
KVString smoment;
for (Int_t mm = 0; mm <= kordre_mom_max; mm += 1) { //Ex: moment_max = 3
smoment.Form("SUM%d", mm);
SetValue(smoment.Data(), kval_tot++);
}
kval_base = kval_tot; //ici nbase=6 (par defaut)
values = new Double_t[knbre_val_max];
init_val();
}
void KVTGIDGrid::ReadFromAsciiFile(ifstream& gridfile)
{
// Read grid and parameters of LTG fit used to generate grid in gridfile.
KVIDGraph::ReadFromAsciiFile(gridfile);
KVString line;
if (fPar->GetIntValue("HasTGID")) {
line.ReadLine(gridfile);
if (line.BeginsWith("++KVTGID")) fTGID = KVTGID::ReadFromAsciiFile(GetName(), gridfile);
}
FindAxisLimits();
}
//___________________________________________________________________________________________
Bool_t KVValues::AddFormula(KVString name, KVString expr)
{
TFormula* fm = new TFormula(name.Data(), expr.Data());
if (fm->GetExpFormula().IsNull()) {
Warning("AddFormula", "%s considere comme nulle", expr.Data());
return kFALSE;
delete fm;
}
kform_add->Add(fm);
SetValue(name.Data(), kval_tot++);
kval_add += 1;
return kTRUE;
}
void KV_CCIN2P3_GE::ChooseJobTime()
{
KVString tmp = "";
cout << "Enter max CPU time per job (ss/mn:ss/hh:mn:ss) ["
<< fDefJobTime << "] : ";
cout.flush();
tmp.ReadToDelim(cin);
if (!tmp.Length()) {
SetJobTime();
return;
}
else
SetJobTime(tmp);
}
void KVINDRA::SetPinLasersForCsI()
{
// Sets the KVCsI::fPinLaser member of each CsI detector with the number of the
// pin laser associated for the stability control of these detectors.
//
// We look for a file with the following format:
//
// CSI_0101 1
// CSI_0102 1
// CSI_0103 1
// CSI_0104 1
// etc.
//
// i.e. 'name of CsI detector' 'number of pin laser (1-8)'
// Comment lines must begin with '#'
//
// The default name of this file is defined in .kvrootrc by
//
// INDRADB.CsIPinCorr: CsI_PILA.dat
//
// Dataset-specific version can be specified:
//
// INDRA_e999.INDRADB.CsIPinCorr: CorrCsIPin_2054.dat
//
// This file should be in the directory corresponding to the current dataset,
// i.e. in $KVROOT/KVFiles/name_of_dataset
ifstream pila_file;
if (gDataSet->OpenDataSetFile(gDataSet->GetDataSetEnv("INDRADB.CsIPinCorr", ""), pila_file)) {
Info("SetPinLasersForCsI", "Setting correspondance CsI-PinLaser using file %s.",
gDataSet->GetDataSetEnv("INDRADB.CsIPinCorr", ""));
// read file, set correspondance
KVString line;
line.ReadLine(pila_file);
while (pila_file.good()) {
if (!line.BeginsWith("#")) {
line.Begin(" ");
KVString detname = line.Next(kTRUE);
KVCsI* det = (KVCsI*)GetDetector(detname.Data());
Int_t pila = line.Next(kTRUE).Atoi();
if (det) {
det->SetPinLaser(pila);
}
}
line.ReadLine(pila_file);
}
pila_file.close();
}
else {
Info("SetPinLasersForCsI", "File %s not found. Correspondance Csi-PinLaser is unknown.",
gDataSet->GetDataSetEnv("CsIPinCorr", ""));
}
}
const Char_t* KVINDRAReconDataAnalyser::ExpandAutoBatchName(const Char_t* format)
{
//Replace any 'special' symbols in "format" with their current values
//
// $Date : current date and time
// $System : name of system to be analysed
// $User : name of user
// $UserClass or $Selector : name of user's analysis class (KVSelector)
// $DataSelector : name of user's data selector (KVDataSelector)
static KVString tmp;
tmp = KVDataAnalyser::ExpandAutoBatchName(format);
tmp.ReplaceAll("$Selector", GetUserClass());
tmp.ReplaceAll("$DataSelector", GetKVDataSelector());
return tmp.Data();
}
void KVFAZIA::SetNameOfDetectors(KVEnv& env)
{
for (Int_t bb = fStartingBlockNumber; bb < fNblocks; bb += 1) {
for (Int_t qq = 1; qq <= 4; qq += 1) {
for (Int_t tt = 1; tt <= 4; tt += 1) {
fDetectorLabels.Begin(",");
while (!fDetectorLabels.End()) {
KVString sdet = fDetectorLabels.Next();
env.SetValue(
Form("BLOCK_%d_QUARTET_%d_%s-T%d", bb, qq, sdet.Data(), tt),
Form("%s-T%d-Q%d-B%03d", sdet.Data(), tt, qq, bb)
);
}
}
}
}
}
void KVDP2toCsIGridConvertor::ReadGammaFile(const Char_t* gammafile)
{
ifstream gamfile;
gamfile.open(gammafile);
if (!gamfile.good()) {
Error(KV__ERROR(ReadGammaFile),
"Problem reading file %s", gammafile);
return;
}
KVString s;
s.ReadLine(gamfile);
while (gamfile.good()) {
if (s == "") {
s.ReadLine(gamfile);
continue;
}
if (!s.BeginsWith('#')) { //'#' sign signals comments
int ring, modu, frun, lrun;
if (sscanf(s.Data(), "%d %d %d %d", &ring, &modu, &frun, &lrun) !=
4) {
Error(KV__ERROR(ReadGammaFile), "Problem reading file %s\nLast line read: %s",
gammafile, s.Data());
return;
};
//get grid for this ring,mod
TString name;
name.
Form
("CsI R-L Grid First run=%d Last run=%d Ring min=%d Ring max=%d Mod min=%d Mod max=%d",
frun, lrun, ring, ring, modu, modu);
KVIDGrid* grid = (KVIDGrid*)fGrids->FindObject(name.Data());
if (!grid) {
Error(KV__ERROR(ReadGammaFile), "Can't find grid %s", name.Data());
}
int npoints;
gamfile >> npoints;
//found gamma line
KVIDLine* line = 0;
if (grid) {
line = grid->NewLine("ok");
line->SetName("gamma_line");
line->Set(npoints);
grid->Add("ok", line);
}
//read in points
for (int i = 0; i < npoints; i++) {
Double_t x, y;
gamfile >> x >> y;
if (grid)
line->SetPoint(i, x, y);
}
}
s.ReadLine(gamfile);
}
void KVFAZIARawDataReconstructor::ExtraProcessing()
{
KVString label = "";
KVFAZIADetector* det = 0;
KVSignal* sig = 0;
KVReconstructedNucleus* recnuc = 0;
while ((recnuc = recev->GetNextParticle())) {
TIter next_d(recnuc->GetDetectorList());
while ((det = (KVFAZIADetector*)next_d())) {
TIter next_s(det->GetListOfSignals());
while ((sig = (KVSignal*)next_s())) {
if (sig->HasFPGA()) {
for (Int_t ii = 0; ii < sig->GetNFPGAValues(); ii += 1) {
//SI2-T3-Q1-B003.Q2.RawAmplitude=14
if (ii == 0) label = "FPGAEnergy";
if (ii == 1) label = "FPGAFastEnergy"; //only for CsI Q3
TString ene = GetEvent()->GetFPGAEnergy(
det->GetBlockNumber(),
det->GetQuartetNumber(),
det->GetTelescopeNumber(),
sig->GetType(),
ii
);
recnuc->GetParameters()->SetValue(
Form("%s.%s.%s", det->GetName(), sig->GetName(), label.Data()),
ene.Data()
);
}
}
if (!sig->PSAHasBeenComputed()) {
sig->TreateSignal();
}
KVNameValueList* psa = sig->GetPSAResult();
if (psa) {
*(recnuc->GetParameters()) += *psa;
delete psa;
}
}
}
}
}
//___________________________________________________________________________________________
void KVIntegerList::SetPartition(const Char_t* par)
{
//protected method, utilisée par le Streamer qui utilise le champ fName de la classe TNamed
//voir également KVIntegerList::DeducePartitionFromTNamed
KVString st(par);
st.Begin(" ");
TObjArray* toks = 0;
while (!st.End()) {
KVString tamp = st.Next();
Int_t val;
Int_t freq;
if (tamp.Contains("(")) {
if (!tamp.Contains(")")) {
Warning("SetPartition", "%s ->pb de coherence dans les parentheses", tamp.Data());
return;
} else {
toks = tamp.Tokenize("(");
val = ((TObjString*)toks->At(0))->GetString().Atoi();
freq = ((TObjString*)toks->At(1))->GetString().Atoi();
delete toks;
}
} else {
val = tamp.Atoi();
freq = 1;
}
Add(val, freq);
}
}
void KVBatchSystemManager::Init()
{
//Set up list of available batch systems
gBatchSystem = 0;
KVString list = gEnv->GetValue("BatchSystem", "");
fBatchSystems.Clear();
TObjArray* systems = list.Tokenize(" ");
TIter next(systems);
TObjString* batch_sys;
while ((batch_sys = (TObjString*)next())) {
KVBatchSystem* bs = KVBatchSystem::GetBatchSystem(batch_sys->GetString().Data());
fBatchSystems.Add(bs);
}
delete systems;
//set default
fDefault = (KVBatchSystem*)fBatchSystems.FindObjectByName(gEnv->GetValue("Default.BatchSystem", ""));
}
KVNumberList KVINDRAReconDataAnalyser::PrintAvailableRuns(KVString & datatype)
{
//Prints list of available runs, sorted according to multiplicity
//trigger, for selected dataset, data type/analysis task, and system
//Returns list containing all run numbers
KVNumberList all_runs=
fDataSet->GetRunList(datatype.Data(), fSystem);
KVINDRADBRun *dbrun;
//first read list and find what triggers are available
int triggers[10], n_trigs = 0;
all_runs.Begin();
while ( !all_runs.End() ) {
dbrun = (KVINDRADBRun *)fDataSet->GetDataBase()->GetTable("Runs")->GetRecord(all_runs.Next());
if (!KVBase::
ArrContainsValue(n_trigs, triggers, dbrun->GetTrigger())) {
triggers[n_trigs++] = dbrun->GetTrigger();
}
}
//sort triggers in ascending order
int ord_trig[10];
TMath::Sort(n_trigs, triggers, ord_trig, kFALSE);
int trig = 0;
while (trig < n_trigs) {
cout << " ---> Trigger M>" << triggers[ord_trig[trig]] << endl;
all_runs.Begin();
while ( !all_runs.End() ) {
dbrun = (KVINDRADBRun *)fDataSet->GetDataBase()->GetTable("Runs")->GetRecord(all_runs.Next());
if (dbrun->GetTrigger() == triggers[ord_trig[trig]]) {
cout << " " << Form("%4d", dbrun->GetNumber());
cout << Form("\t(%7d events)", dbrun->GetEvents());
cout << "\t[File written: " << dbrun->GetDatime().
AsString() << "]";
if (dbrun->GetComments())
cout << "\t" << dbrun->GetComments();
cout << endl;
}
}
trig++;
cout << endl;
}
return all_runs;
}
void KVINDRAPulserDataTree::ReadFile(ifstream& fin)
{
// Read data in one file
KVString line;
line.ReadLine(fin);
while( fin.good() ){
if( !line.BeginsWith("#") ){
line.Begin(" ");
KVString br_name = line.Next(kTRUE);
Int_t index = GetIndex(br_name.Data());
fVal[index] = line.Next(kTRUE).Atof();
}
line.ReadLine(fin);
}
fin.close();
}
KVNumberList KVINDRARawDataAnalyser::PrintAvailableRuns(KVString& datatype)
{
//Prints list of available runs, sorted according to multiplicity
//trigger, for selected dataset, data type/analysis task, and system
//Returns list containing all run numbers
KVNumberList all_runs =
GetDataSet()->GetRunList(datatype.Data(), GetSystem());
KVINDRADBRun* dbrun;
//first read list and find what triggers are available
vector<int> triggers;
all_runs.Begin();
while (!all_runs.End()) {
dbrun = (KVINDRADBRun*)GetDataSet()->GetDataBase()->GetDBRun(all_runs.Next());
if (triggers.size() == 0
|| std::find(triggers.begin(), triggers.end(), dbrun->GetTrigger()) != triggers.end()) {
triggers.push_back(dbrun->GetTrigger());
}
}
//sort triggers in ascending order
std::sort(triggers.begin(), triggers.end());
for (std::vector<int>::iterator it = triggers.begin(); it != triggers.end(); ++it) {
cout << " ---> Trigger M>" << *it << endl;
all_runs.Begin();
while (!all_runs.End()) {
dbrun = (KVINDRADBRun*)GetDataSet()->GetDataBase()->GetDBRun(all_runs.Next());
if (dbrun->GetTrigger() == *it) {
cout << " " << Form("%4d", dbrun->GetNumber());
cout << Form("\t(%7d events)", dbrun->GetEvents());
cout << "\t[File written: " << dbrun->GetDatime().
AsString() << "]";
if (dbrun->GetComments())
cout << "\t" << dbrun->GetComments();
cout << endl;
}
}
cout << endl;
}
return all_runs;
}
//________________________________________________________________________________________
TGraph* KVINDRA::GetPedestals(const Char_t* det_signal, const Char_t* det_type, Int_t ring_number, Int_t
run_number)
{
//Renvoie sous forme de TGraph (en fonction du numero de module)
//les piedestaux du signal (det_signal) asssocies aux detecteurs de type (det_type)
//qui sont presents dans la couronne ring_number pour un numero de run donne (si run_number==-1)
//on suppose que gIndra->SetParameters(xxx) a ete fait en amont
//L'utilisateur doit effacer ce TGraph tout seul comme un grand apres usage
//Une recherche sur l existence ou non du graph permet d eviter des boucles inutiles
//Si l appel est reitere
if (run_number != -1 || run_number != Int_t(GetCurrentRunNumber()))
SetParameters(run_number);
KVSeqCollection* sltype = 0;
KVSeqCollection* slring = 0;
TGraph* gr_ped = 0;
KVString sgraph;
sgraph.Form("KVPed_%s_%s_%d_%d", det_signal, det_type, ring_number, GetCurrentRunNumber());
if ((gr_ped = (TGraph*)gROOT->FindObject(sgraph.Data()))) return gr_ped;
if ((sltype = GetDetectors()->GetSubListWithMethod(det_type, "GetType"))) {
KVString sring;
sring.Form("%d", ring_number);
if ((slring = sltype->GetSubListWithMethod(sring, "GetRingNumber"))) {
gr_ped = new TGraph();
gr_ped->SetName(sgraph.Data());
for (Int_t mm = 0; mm < slring->GetEntries(); mm += 1) {
gr_ped->SetPoint(gr_ped->GetN(),
((KVINDRADetector*)slring->At(mm))->GetModuleNumber(),
((KVDetector*)slring->At(mm))->GetPedestal(det_signal));
}
delete slring;
return gr_ped;
}
delete sltype;
}
return 0;
}
//________________________________________________________________
Double_t KVCaloBase::GetParValue(KVString name)
{
//return the value of a name given parameter
return nvl_par->GetDoubleValue(name.Data());
}
//________________________________________________________________
Bool_t KVCaloBase::HasParameter(KVString name)
{
// protected method,
//Check if a given parameter is defined
return nvl_par->HasParameter(name.Data());
}
//________________________________________________________________
void KVCaloBase::SetIngValue(KVString name,Double_t value)
{
// protected method,
//set the value a name given ingredient
nvl_ing->SetValue(name.Data(),value);
}
void KVGeoNavigator::FormatStructureName(const Char_t* type, Int_t number, KVString& name)
{
// If a format for naming structures of given type has been defined by a call
// to SetStructureNameFormat(const Char_t *, const Char_t *), we use it to
// format the name in the TString.
// If no format was given, we use by default "[type]_[number]"
// If SetNameCorrespondanceList(const Char_t *) was used, we use it to translate
// any names resulting from this formatting to their final value.
name = "";
if (fStrucNameFmt.HasParameter(type)) {
KVString fmt = fStrucNameFmt.GetStringValue(type);
fmt.Begin("$");
while (!fmt.End()) {
KVString bit = fmt.Next();
if (bit.BeginsWith("type")) {
Ssiz_t ind = bit.Index("%");
if (ind > -1) {
bit.Remove(0, ind);
name += Form(bit.Data(), type);
} else
name += type;
} else if (bit.BeginsWith("number")) {
Ssiz_t ind = bit.Index("%");
if (ind > -1) {
bit.Remove(0, ind);
name += Form(bit.Data(), number);
} else
name += number;
} else
name += bit;
}
} else
name.Form("%s_%d", type, number);
TString tmp;
GetNameCorrespondance(name.Data(), tmp);
name = tmp;
}