C++ KVACQParam::GetName方法代码示例

void KVINDRAPulserDataTree::CreateTree()
{
   // Create new TTree with
   //   1 branch 'Run' with run number
   //   1 branch for each acquisition parameter of every detector (except time markers)
   //   2 branches for each 'PILA_...' or 'SI_PIN...' parameter, suffixed with '_laser' and '_gene'
   //
   // NB if multidetector has not been built, it will be built by this method

   fArb = new TTree("PulserData", "Created by KVINDRAPulserDataTree");
   fArb->SetDirectory(0);

   fArb->Branch("Run", &fRun, "Run/I");

   if (!gIndra) KVMultiDetArray::MakeMultiDetector(gDataSet->GetName());

   KVSeqCollection* acq_pars = gIndra->GetACQParams();

   fTab_siz = acq_pars->GetEntries() + 20;
   fVal = new Float_t[fTab_siz];
   fIndex = new THashTable(20, 5);
   fIndex->SetOwner(kTRUE);

   TIter nxtACQ(acq_pars);
   KVACQParam* ap = 0;
   Int_t ap_num = 0;
   KVBase* iob;
   while ((ap = (KVACQParam*)nxtACQ())) {

      TString ap_name(ap->GetName());
      TString ap_type(ap->GetType());
      if (ap_name.BeginsWith("PILA") || ap_name.BeginsWith("SI_PIN")) {
         ap_name += "_laser";
         iob = new KVBase(ap_name.Data());
         iob->SetNumber(ap_num);
         fIndex->Add(iob);
         fArb->Branch(ap_name.Data(), &fVal[ap_num++] , Form("%s/F", ap_name.Data()));
         ap_name.Form("%s%s", ap->GetName(), "_gene");
         iob = new KVBase(ap_name.Data());
         iob->SetNumber(ap_num);
         fIndex->Add(iob);
         fArb->Branch(ap_name.Data(), &fVal[ap_num++] , Form("%s/F", ap_name.Data()));
      } else if (ap_type != "T") {
         iob = new KVBase(ap_name.Data());
         iob->SetNumber(ap_num);
         fIndex->Add(iob);
         fArb->Branch(ap_name.Data(), &fVal[ap_num++] , Form("%s/F", ap_name.Data()));
      }
      if (ap_num > fTab_siz - 2) {
         Error("CreateTree",
               "Number of branches to create is greater than estimated (%d). Not all parameters can be treated.",
               fTab_siz);
         return;
      }

   }
   //keep number of used 'slots' in array
   fTab_siz = ap_num;
}

void KVGANILDataReader::ConnectRawDataParameters()
{
        //Private utility method called by KVGANILDataReader ctor.
	//fParameters is filled with a KVACQParam for every acquisition parameter in the file.
	//If there exists a gMultiDetArray corresponding to this data, we use the KVACQParams
	//already defined for the detectors of the array whenever possible.
	//For any parameters for which no KVACQParam already exists (a fortiori if no
	//gMultiDetArray exists) we create new KVACQParam objects which will be deleted
	//with this KVGANILDataReader (these objects can be accessed from the list
	//returned by GetUnknownParameters()).
	//To access the full list of data parameters in the file after this method has been
	//called (i.e. after the file is opened), use GetRawDataParameters().

   TIter next( fGanilData->GetListOfDataParameters() );
   KVACQParam *par;
   GTDataPar* daq_par;
   while ((daq_par = (GTDataPar*) next())) {//loop over all parameters
      par=CheckACQParam( daq_par->GetName() );
      fGanilData->Connect(par->GetName(), par->ConnectData());
      par->SetNumber(daq_par->Index());
      par->SetNbBits(daq_par->Bits());
      fParameters->Add(par);
   }
}

Int_t KVSpectroDetector::GetMult(Option_t *opt){
	// Returns the multiplicity of fired (value above the pedestal) 
	// acquisition parameters if opt = "" (default).
	// If opt = "root" returns the multiplicity of only fired acq. 
	// parameters with GetName() containing "root". For example if
	// you want the multiplicity of fired segments B of a child class
	// KVHarpeeIC call GetMult("ECHI_B").

	Int_t mult   = 0;

	TString str( opt );
	Bool_t withroot = !str.IsNull();

	TIter next( GetACQParamList() );
	KVACQParam *par = NULL;
	while( (par = (KVACQParam *)next()) ){
		if( withroot ){
			str = par->GetName();
			if( !str.Contains( opt ) ) continue;
		}
		if( par->Fired("P") ) mult++;
	}
	return mult;
}

void KVGANILDataReader::SetUserTree(TTree* T, Option_t* opt)
{
   // To fill a TTree with the data in the current file, create a TTree:
   //    TFile* file = new TFile("run1.root","recreate");
   //    TTree* T = new TTree("Run1", "Raw data for Run1");
   // and then call this method: SetUserTree(T)
   // If you read all events of the file, the TTree will be automatically filled
   // with data :
   //    while( runfile->GetNextEvent() ) ;
   //
   // Two different TTree structures are available, depending on the option string:
   //
   //    opt = "arrays": [default]
   //
   // The TTree will have the following structure:
   //
   //    *Br    0 :NbParFired : NbParFired/I    = number of fired parameters in event
   //    *............................................................................*
   //    *Br    1 :ParNum    : ParNum[NbParFired]/i   = array of indices of fired parameters
   //    *............................................................................*
   //    *Br    2 :ParVal    : ParVal[NbParFired]/s   = array of values of fired parameters
   //
   // This structure is the fastest to fill and produces the smallest file sizes.
   // In order to be able to directly access the parameters as if option "leaves" were used
   // (i.e. one branch/leaf for each parameter), we add two aliases for each parameter to
   // the tree:
   //        PARNAME           = value of parameter if present in event
   //        PARNAME_M      = number of times parameter appears in event
   // Assuming that each parameter only appears at most once in each event, i.e. PARNAME_M=0 or 1,
   // then
   //    root[0] T->Draw("PARNAME", "PARNAME_M")
   // will histogram the value of PARNAME for each event in which it is present.
   // (if the selection condition "PARNAME_M" is not used, the histogram will also be filled with a 0
   // for each event in which PARNAME does not appear).
   //          N.B. the PARNAME alias is in fact the sum of the values of PARNAME in each event.
   //          If PARNAME_M>1 in some events, it is not the individual values but their sum which will
   //          be histogrammed in this case.
   //
   // Thus, if the data file has parameters called "PAR_1" and "PAR_2",
   // the following command will work
   //
   //    root[0]  T->Draw("PAR_1:PAR_2", "PAR_1_M&&PAR_2_M", "col")
   //
   // even though no branches "PAR_1" or "PAR_2" exist.
   //
   //
   //
   //    opt = "leaves":
   //
   // The TTree will have a branch/leaf for each parameter. This option is slower and produces
   // larger files.
   //
   // If the option string contains both "arrays" and "leaves", then both structures will be used
   // (in this case there is a high redundancy, as each parameter is stored twice).
   //
   // The full list of parameters is stored in a TObjArray in the list returned by TTree::GetUserInfo().
   // Each parameter is represented by a TNamed object.
   // In order to retrieve the name of the parameter with index 674 (e.g. taken from branch ParNum),
   // do:
   //     TObjArray* parlist = (TObjArray*) T->GetUserInfo()->FindObject("ParameterList");
   //     cout << "Par 674 name = " << (*parlist)[674]->GetName() << endl;
   //
   //
   //  Automatic creation & filling of Scalers TTree
   //
   // give an option string containing "scalers", i.e. "leaves,scalers", or "ARRAYS+SCALERS", etc.
   // a TTree with name 'Scalers' will be created, all scaler buffers will be written in it.


   TString option = opt;
   option.ToUpper();
   make_arrays = option.Contains("ARRAYS");
   make_leaves = option.Contains("LEAVES");
   Bool_t make_scalers = option.Contains("SCALERS");
   if(make_scalers){
   	fGanilData->SetScalerBuffersManagement(GTGanilData::kAutoWriteScaler);
   }

   fUserTree = T;
   if( make_arrays ){
      Int_t maxParFired = GetRawDataParameters()->GetEntries();
      ParVal = new UShort_t[maxParFired];
      ParNum = new UInt_t[maxParFired];
      fUserTree->Branch("NbParFired", &NbParFired, "NbParFired/I");
      fUserTree->Branch("ParNum", ParNum, "ParNum[NbParFired]/i");
      fUserTree->Branch("ParVal", ParVal, "ParVal[NbParFired]/s");
   }
   if( make_leaves ){
      TIter next_rawpar( GetRawDataParameters() );
      KVACQParam* acqpar;
      while( (acqpar = (KVACQParam*)next_rawpar()) ){
         TString leaf;
         leaf.Form("%s/S", acqpar->GetName());
         // for parameters with <=8 bits only use 1 byte for storage
         if(acqpar->GetNbBits()<=8) leaf += "1";
         fUserTree->Branch( acqpar->GetName(), *(acqpar->ConnectData()), leaf.Data() );
      }
   }

#if ROOT_VERSION_CODE > ROOT_VERSION(5,25,4)
//.........这里部分代码省略.........

void KVVAMOSDetector::SetCalibrators()
{
   // Setup the calibrators for this detector. Call once name
   // has been set.
   // The calibrators are KVFunctionCal.
   // By default the all the calibration functions are first-degree
   // polynomial function and the range [Xmin,Xmax]=[0,4096].
   // Here the calibrator are not ready (KVFunctionCal::GetStatus()).
   // You have to give the parameters and change the status
   // (see KVFunctionCal::SetParameter(...) and KVFunctionCal::SetStatus(...))


   TIter nextpar(GetACQParamList());

   KVACQParam* par   = NULL;
   Double_t    maxch = 16384.;       // 14 bits

   TString  calibtype("ERROR");

   while ((par = (KVACQParam*)nextpar())) {
      Bool_t isTparam = kFALSE;

      if (par->IsType("E")) {
         calibtype = "channel->MeV";
      } else if (par->IsType("Q")) {
         calibtype = "channel->Volt";
         maxch     = 4096.;           // 12 bits
      } else if (par->GetType()[0] == 'T') {
         isTparam = kTRUE;
         calibtype = "channel->ns";
      } else continue;

      calibtype.Append(" ");
      calibtype.Append(par->GetName());

      TF1* func        = new TF1(calibtype.Data(), "pol1", 0., maxch);
      KVFunctionCal* c = new KVFunctionCal(this, func);
      c->SetType(calibtype.Data());
      c->SetLabel(par->GetLabel());
      c->SetNumber(par->GetNumber());
      c->SetUniqueID(par->GetUniqueID());
      c->SetACQParam(par);
      c->SetStatus(kFALSE);
      if (!AddCalibrator(c)) delete c;
      else if (isTparam) {
         if (!fTlist) fTlist = new TList;
         fTlist->Add(par);
         if (!fT0list) fT0list = new TList;
         fT0list->Add(new KVNamedParameter(par->GetName(), 0.));
      }
   }

   // Define and set to zero the T0 values for time of flight measurment
   // from this detector. The time of flight acq parameters are associated
   // to gVamos
   if (gVamos) {
      TIter next_vacq(gVamos->GetVACQParams());
      while ((par = (KVACQParam*)next_vacq())) {
         if ((par->GetType()[0] == 'T') && IsStartForT(par->GetName() + 1)) {
            if (!fTlist) fTlist = new TList;
            fTlist->Add(par);
            if (!fT0list) fT0list = new TList;
            fT0list->Add(new KVNamedParameter(par->GetName(), 0.));
         }
      }
   }

}

//_______________________________________________________________//
void KVINDRAUpDater::CheckStatusOfDetectors(KVDBRun* kvrun)
{

   KVRList* absdet = kvrun->GetLinks("Absent Detectors");
   KVRList* oooacq = kvrun->GetLinks("OoO ACQPars");
   KVRList* ooodet = kvrun->GetLinks("OoO Detectors");

   TIter next(fArray->GetDetectors());
   KVDetector* det;
   KVACQParam* acq;

   Int_t ndet_absent = 0;
   Int_t ndet_ooo = 0;
   Int_t nacq_ooo = 0;

   while ((det = (KVDetector*)next())) {
      //Test de la presence ou non du detecteur
      if (!absdet) {
         det->SetPresent();
      }
      else {
         if (absdet->FindObject(det->GetName(), "Absent Detector")) {
            det->SetPresent(kFALSE);
            ndet_absent += 1;
         }
         else {
            det->SetPresent();
         }
      }
      if (det->IsPresent()) {
         //Test du bon fonctionnement ou non du detecteur
         if (!ooodet) {
            det->SetDetecting();
         }
         else {
            if (ooodet->FindObject(det->GetName(), "OoO Detector")) {
               det->SetDetecting(kFALSE);
               ndet_ooo += 1;
            }
            else {
               det->SetDetecting();
            }
         }
         //Test du bon fonctionnement ou non des parametres d acquisition
         if (det->IsDetecting()) {
            TIter next_acq(det->GetACQParamList());
            if (!oooacq) {
               while ((acq = (KVACQParam*)next_acq())) {
                  acq->SetWorking();
               }
            }
            else {
               Int_t noff = 0;
               while ((acq = (KVACQParam*)next_acq())) {
                  if (oooacq->FindObject(acq->GetName(), "OoO ACQPar")) {
                     acq->SetWorking(kFALSE);
                     noff += 1;
                     nacq_ooo += 1;
                  }
                  else {
                     acq->SetWorking();
                  }
               }
               if (noff == 3) {
                  det->SetDetecting(kFALSE);
                  ndet_ooo += 1;
                  nacq_ooo -= 3;
               }
            }
         }
      }
   }

   Info("KVINDRAUpDater", "%d detecteurs absents", ndet_absent);
   Info("KVINDRAUpDater", "%d detecteurs ne fonctionnent pas", ndet_ooo);
   Info("KVINDRAUpDater", "%d parametres d acquisition ne fonctionnent pas", nacq_ooo);



}

void KVINDRARawDataReconstructor::InitRun()
{
   // Creates new ROOT file with TTree for reconstructed/calibrated events.
   // By default this file will be written in the same data repository as the raw data file we are reading.
   // This can be changed by setting the environment variable(s):
   //
   //     Reconstruction.DataAnalysisTask.OutputRepository:     [name of repository]
   //     [name of dataset].Reconstruction.DataAnalysisTask.OutputRepository:         [name of repository]
   //
   // If no value is set for the current dataset (second variable), the value of the
   // first variable will be used. If neither is defined, the new file will be written in the same repository as
   // the raw file (if possible, i.e. if repository is not remote).

   // Create new KVINDRAReconEvent used to reconstruct & store events
   // The condition used to seed new reconstructed particles (see KVReconstructedEvent::AnalyseTelescopes)
   // is set by reading the value of the environment variables:
   //     Reconstruction.DataAnalysisTask.ParticleSeedCond:        [all/any]
   //     [name of dataset].Reconstruction.DataAnalysisTask.ParticleSeedCond:     [all/any]
   // If no value is set for the current dataset (second variable), the value of the
   // first variable will be used.

   if (!recev) recev = new KVINDRAReconEvent;
   recev->SetPartSeedCond(gDataSet->GetDataSetEnv("Reconstruction.DataAnalysisTask.ParticleSeedCond"));

   // get dataset to which we must associate new run
   KVDataSet* OutputDataset =
      gDataRepositoryManager->GetDataSet(gDataSet->GetOutputRepository(taskname), gDataSet->GetName());

   file = OutputDataset->NewRunfile(datatype.Data(), fRunNumber);

   cout << "Writing \"" << datatype.Data() << "\" events in ROOT file " << file->GetName() << endl;

   //tree for raw data
   rawtree = new TTree("RawData", Form("%s : %s : raw data",
                                       gIndraDB->GetRun(fRunNumber)->GetName(), gIndraDB->GetRun(fRunNumber)->GetTitle()));
   rawtree->Branch("RunNumber", &fRunNumber, "RunNumber/I");
   rawtree->Branch("EventNumber", &fEventNumber, "EventNumber/I");

   // the format of the raw data tree must be "arrays" : we depend on it in KVINDRAReconDataAnalyser
   // in order to read the raw data and set the detector acquisition parameters
   TString raw_opt = "arrays";
   GetRawDataReader()->SetUserTree(rawtree, raw_opt.Data());
   Info("InitRun", "Created raw data tree (%s : %s). Format: %s",
        rawtree->GetName(), rawtree->GetTitle(), raw_opt.Data());

#if ROOT_VERSION_CODE > ROOT_VERSION(5,25,4)
#if ROOT_VERSION_CODE < ROOT_VERSION(5,26,1)
   // The TTree::OptimizeBaskets mechanism is disabled, as for ROOT versions < 5.26/00b
   // this lead to a memory leak
   rawtree->SetAutoFlush(0);
#endif
#endif


   //tree for reconstructed events
   tree = new TTree("ReconstructedEvents", Form("%s : %s : %s events created from raw data",
                    gIndraDB->GetRun(fRunNumber)->GetName(),
                    gIndraDB->GetRun(fRunNumber)->GetTitle(),
                    datatype.Data())
                   );
#if ROOT_VERSION_CODE > ROOT_VERSION(5,25,4)
#if ROOT_VERSION_CODE < ROOT_VERSION(5,26,1)
   // The TTree::OptimizeBaskets mechanism is disabled, as for ROOT versions < 5.26/00b
   // this lead to a memory leak
   tree->SetAutoFlush(0);
#endif
#endif


   //leaves for reconstructed events
   KVEvent::MakeEventBranch(tree, "INDRAReconEvent", "KVINDRAReconEvent", &recev);

   Info("InitRun", "Created reconstructed data tree %s : %s", tree->GetName(), tree->GetTitle());

   //tree for gene data
   genetree = new TTree("GeneData", Form("%s : %s : gene data",
                                         gIndraDB->GetRun(fRunNumber)->GetName(), gIndraDB->GetRun(fRunNumber)->GetTitle()));

   //we add to the 'gene tree' a branch for every acquisition parameter of the detector
   genetree->Branch("RunNumber", &fRunNumber, "RunNumber/I");
   genetree->Branch("EventNumber", &fEventNumber, "EventNumber/I");
   KVACQParam* acqpar;
   TIter next_acqpar(gIndra->GetACQParams());
   while ((acqpar = (KVACQParam*)next_acqpar())) {
      genetree->Branch(acqpar->GetName(), *(acqpar->ConnectData()), Form("%s/S", acqpar->GetName()));
   }
#if ROOT_VERSION_CODE > ROOT_VERSION(5,25,4)
#if ROOT_VERSION_CODE < ROOT_VERSION(5,26,1)
   // The TTree::OptimizeBaskets mechanism is disabled, as for ROOT versions < 5.26/00b
   // this lead to a memory leak
   genetree->SetAutoFlush(0);
#endif
#endif


   Info("InitRun", "Created pulser/laser data tree (%s : %s) for %d parameters",
        genetree->GetName(), genetree->GetTitle(), genetree->GetNbranches());
   //initialise number of reconstructed events
   nb_recon = 0;

//.........这里部分代码省略.........