// ********************************************************************************************** // Macro for running fast simulation + Software Trigger + simple analysis (PndSimpleCombinerTask) // ********************************************************************************************** // The parameters are // ------------------- // quickfsimana.C( , , , , [nevt], [res], [parms] ) // : output file names prefix // : EvtGen decfile; DPM/FTF/BOX uses DPM/FTF generator (inelastic mode) or box generator instead // : pbar momentum; negative values are interpreted as -E_cm // [decay] : the decay pattern to be reconstructed, e.g. 'phi -> K+ K-; D_s+ -> phi pi+'; emtpy string: only fast sim will be run // [nevt] : number of events; default = 1000 // [res] : resonance/particle type for BOX generator (ignored when running DPM); default = 'pbarpSystem0' // [parms] : parameters for the analysis, e.g. 'mwin=0.4:mwin(phi)=0.1:emin=0.1:pmin=0.1:qamc' // [runST] : if 'true' runs Software Trigger (default: false) // [runnum] : integer run number (default: 0) // [mode] : arbitrary mode number (default: 0) // ------------------- int quickfsimana(TString Prefix="", TString Decfile="", Float_t Mom=0., TString anadecay="", Int_t nEvents = 1000, TString Resonance="pbarpSystem0", TString anaparms="", bool runST=false, int run=0 , int mode=0) { if (Prefix=="" || Decfile=="" || Mom==0. ) { cout << "USAGE:\n"; cout << "quickfsimana.C( , , , , [nevt], [res], [parms] )\n\n"; cout << " : output file names prefix\n"; cout << " : EvtGen decfile; DPM/FTF/BOX uses DPM/FTF generator (inelastic mode) or box generator instead\n"; cout << " : pbar momentum; negative values are interpreted as -E_cm\n"; cout << " [decay] : the decay pattern to be reconstructed, e.g. 'phi -> K+ K-; D_s+ -> phi pi+'; emtpy string: only fast sim will be run\n"; cout << " [nevt] : number of events; default = 1000\n"; cout << " [res] : resonance/particle type for BOX generator (ignored when running DPM); default = 'pbarpSystem0'\n"; cout << " [parms] : parameters for the analysis, e.g. 'mwin=0.4:mwin(phi)=0.1:emin=0.1:pmin=0.1:qamc'\n"; cout << " [runST] : if 'true' runs Software Trigger (default: false)\n"; cout << " [runnum] : integer run number (default: 0)\n"; cout << " [mode] : arbitrary mode number (default: 0)\n\n"; return; } // only run fast sim without analysis bool simonly = (anadecay==""); // for submission to queue all blanks in decay string were replaced by '§'; now we replace again the other way around anadecay.ReplaceAll("§"," "); // if Mom<0, interprete as -E_cm double mp = 0.938272; if (Mom<0) { double X = (Mom*Mom-2*mp*mp)/(2*mp); Mom = sqrt(X*X-mp*mp); } // Allow shortcut for resonance if (Resonance=="pbp") Resonance = "pbarpSystem"; if (Resonance=="pbp0") Resonance = "pbarpSystem0"; anadecay.ReplaceAll("pbp","pbarpSystem"); anadecay.ReplaceAll("pbp0","pbarpSystem0"); // Prevent generator from throwing a lot of warnings TLorentzVector fIni(0,0,Mom,mp+sqrt(Mom*Mom+mp*mp)); TDatabasePDG::Instance()->AddParticle("pbarpSystem","pbarpSystem",fIni.M(),kFALSE,0.1,0, "",88888,0); TDatabasePDG::Instance()->AddParticle("pbarpSystem0","pbarpSystem0",fIni.M(),kFALSE,0.1,0, "",88880,0); TDatabasePDG::Instance()->AddParticle("Z(3900)+","Z+",3.900,kFALSE,0.03,0, "",90000); TDatabasePDG::Instance()->AddParticle("Z(3900)-","Z-",3.900,kFALSE,0.03,0, "",-90000); //----- Switches for Fast Simulation Options ------------------------------ Bool_t enableSplitoff = true; // create e.-m. and hadronic split offs Bool_t mergeNeutrals = true; // merge neutrals (for merged pi0s) Bool_t electronBrems = true; // bremsstrahlung loss for electrons Bool_t useEventFilter = false; // enable Fast Sim event filter. *** Needs configuration (see below) *** Bool_t usePndEventFilter = false; // enable Panda event filter. *** Needs configuration (see below) *** //----- Presist simulation output ------------------------------ Bool_t persist = simonly; // if analysis is running, fsim output not needed //-----General settings----------------------------------------------- TString BaseDir = gSystem->Getenv("VMCWORKDIR"); TString splitpars = BaseDir+"/fsim/splitpars.dat"; gRandom->SetSeed(); //-----User Settings:------------------------------------------------- TString OutputFile = TString::Format("%s_%d_ana.root",Prefix.Data(), run); if (simonly) OutputFile = TString::Format("%s_%d_fsim.root",Prefix.Data(), run); gDebug = 0; // choose your event generator Bool_t UseEvtGenDirect = kTRUE; Bool_t UseFtf = kFALSE; Bool_t UseDpm = kFALSE; Bool_t UseBoxGenerator = kFALSE; // use DPM generator; default: inelastic @ pbarmom = mom if (Decfile.BeginsWith("DPM")) { UseEvtGenDirect = kFALSE; UseDpm = kTRUE; } // use FTF generator; if (Decfile.BeginsWith("FTF")) { UseEvtGenDirect = kFALSE; UseFtf = kTRUE; } // use BOX generator; default: single mu-, 0SetOutputFile(OutputFile.Data()); fRun->SetGenerateRunInfo(kFALSE); if (!simonly) fRun->SetUserConfig(BaseDir+"/tutorials/analysis/g3ConfigNoMC.C"); FairLogger::GetLogger()->SetLogToFile(kFALSE); // Create and Set Event Generator // ------------------------------- FairFilteredPrimaryGenerator* primGen = new FairFilteredPrimaryGenerator(); //FairPrimaryGenerator* primGen = new FairPrimaryGenerator(); fRun->SetGenerator(primGen); fRun->SetName("TGeant3"); if(UseBoxGenerator) { // Box Generator int Pdgcode = TDatabasePDG::Instance()->GetParticle(Resonance)->PdgCode(); FairBoxGenerator* boxGen = new FairBoxGenerator(Pdgcode, 1); // 211 = pion; 1 = multipl. boxGen->SetPRange(MomMin,MomMax); // GeV/c boxGen->SetPhiRange(0., 360.); // Azimuth angle range [degree] boxGen->SetThetaRange(0., 180.); // Polar angle in lab system range [degree] boxGen->SetXYZ(0., 0., 0.); //cm primGen->AddGenerator(boxGen); } if(UseDpm) { int mode = 0; if (Decfile=="DPM1") mode = 1; if (Decfile=="DPM2") mode = 2; PndDpmDirect *Dpm= new PndDpmDirect(Mom,mode); // 0 = inelastic, 1 = inelastic & elastic, 2 = elastic // since fastsim doesn't have a transport, let all long-living resonances decay by the generator Dpm->SetUnstable(111); // pi0 Dpm->SetUnstable(310); // K_S0 Dpm->SetUnstable(311); // K0 Dpm->SetUnstable(-311); // K0bar Dpm->SetUnstable(3122); // Lambda0 Dpm->SetUnstable(-3122); // anti-Lambda0 Dpm->SetUnstable(221); // eta*/ Dpm->SetUnstable(3222); // Sigma+ Dpm->SetUnstable(-3222); // anti-Sigma- Dpm->SetUnstable(3334); // Omega- primGen->AddGenerator(Dpm); } if(UseFtf) { bool noelastic = true; if (Decfile=="FTF1") noelastic=false; PndFtfDirect *Ftf = new PndFtfDirect("anti_proton", "G4_H", 1, "ftfp", Mom, 0, noelastic); primGen->AddGenerator(Ftf); } if(UseEvtGenDirect) { PndEvtGenDirect *EvtGen = new PndEvtGenDirect(Resonance, Decfile.Data(), Mom); EvtGen->SetStoreTree(kTRUE); primGen->AddGenerator(EvtGen); } // ------------- switch off the transport of particles primGen->DoTracking(kFALSE); //---------------------Create and Set the Field(s)---------- PndMultiField *fField= new PndMultiField("AUTO"); fRun->SetField(fField); // ********************************** // *** BEGIN Fast Simulation Task *** // ********************************** PndFastSim* fastSim = new PndFastSim(persist); // increasing verbosity increases the amount of console output (mainly for debugging) fastSim->SetVerbosity(0); // set PANDA event filters //----------------------------- if (usePndEventFilter) { // primGen->SetFilterMaxTries(100000); // for testing small number, for real produrction set usually to 9999999 or something very big // FairEvtFilterOnSingleParticleCounts* lambfilt= new FairEvtFilterOnSingleParticleCounts("PdgFilter"); // lambfilt->AndMaxPdgCodes(0, 3122, -3122); // filter out Lambda0 // lambfilt->AndMaxPdgCodes(0, 3222, -3222); // filter out Sigma+ // primGen->AndFilter(lambfilt); } // set event filters //----------------------------- if (useEventFilter) { // fastSim->SetMultFilter(type, min, max); requires min <= mult <= max // available types are: '+', '-', 'gam', 'pi0' (2 gam, 0.135 +- 0.03 GeV), 'eta' (2 gam, 0.547 +- 0.04 GeV), 'ks' (pi+ pi-, 0.497 +- 0.04 GeV) // fastSim->SetInvMassFilter(comb, m_min, m_max, mult); requires at least mult combined candidates with m_min < m < m_max // comb is a TString describing the combinatoric // - particle codes are: e+ e- mu+ mu- pi+ pi- k+ k- p+ p- gam pi0 ks eta, separated with blank // Examples: // - ("k+ k-", 0.98, 1.1, 2) : forms K+ K- candidate and requires >=2 in the given window // - ("ks k+ pi- cc", 2.8, 3.2,1 ) : forms ks k+ pi- / ks k- pi+ cands and req. at least one in window } // enable the merging of neutrals if they have similar direction fastSim->MergeNeutralClusters(mergeNeutrals); // enable bremsstahlung loss for electrons fastSim->EnableElectronBremsstrahlung(electronBrems); //enable the producting of parametrized neutral (hadronic) split offs // generate electro-magnetic / hadronic split offs in the EMC? switch off when running w/o EMC if (enableSplitoff) fastSim->EnableSplitoffs(splitpars.Data()); // simulates covariance matrix for fitting fastSim->SetUseFlatCov(true); // ----------------------------------------------------------------------------------- // Now add the detector components // ----------------------------------------------------------------------------------- // Full Panda Tracking: STT MVD GEM FTS (scanning over theta range from 0° to 160°) fastSim->AddDetector("ScFts", "thtMin=0. thtMax=5. ptmin=0.0 pmin=0.5 pRes=0.05 thtRes=0.002 phiRes=0.002 efficiency=0.80"); fastSim->AddDetector("ScMvdGem", "thtMin=5. thtMax=7.8 ptmin=0.1 pmin=0.0 pRes=0.03 thtRes=0.001 phiRes=0.001 efficiency=0.60"); fastSim->AddDetector("ScSttMvdGem", "thtMin=7.8 thtMax=20.9 ptmin=0.1 pmin=0.0 pRes=0.02 thtRes=0.001 phiRes=0.001 efficiency=0.85"); fastSim->AddDetector("ScSttMvd", "thtMin=20.9 thtMax=145. ptmin=0.1 pmin=0.0 pRes=0.02 thtRes=0.001 phiRes=0.001 efficiency=0.85"); fastSim->AddDetector("ScSttAlone", "thtMin=145. thtMax=159.5 ptmin=0.1 pmin=0.0 pRes=0.04 thtRes=0.006 phiRes=0.007 efficiency=0.25"); // Vertexing fastSim->AddDetector("ScVtxNoMvd", "thtMin=0. thtMax=5. ptmin=0.0 vtxRes=0.05 efficiency=1."); // efficiency=1: all tracks found in trackers will get a vertex information fastSim->AddDetector("ScVtxMvd", "thtMin=5. thtMax=145. ptmin=0.1 vtxRes=0.005 efficiency=1."); // efficiency=1: all tracks found in trackers will get a vertex information // EM Calorimeters w/ default parameters fastSim->AddDetector("EmcFS", "thtMin=0.05 thtMax=10.0 aPar=0.013 bPar=0.0283 Emin=0.01 dist=8.2"); fastSim->AddDetector("EmcFwCap", "thtMin=10.0 thtMax=22.0 Emin=0.01 dist=2.5"); fastSim->AddDetector("EmcBarrel", "thtMin=22.0 thtMax=142.0 Emin=0.01 barrelRadius=0.5"); fastSim->AddDetector("EmcBwCap", "thtMin=142.0 thtMax=160.0 Emin=0.01 dist=0.7"); // PID Target Spectrometer: STT, MVD, MDT, EMC, Barrel DIRC, Disc DIRC fastSim->AddDetector("MvdPid", "thtMin=5. thtMax=133.6 ptmin=0.1 dEdxResMulti=1. efficiency=1."); // Note: Bethe-Bloch-Landau-Gauss Prametrization from 2008 fastSim->AddDetector("SttPid", "thtMin=7.8 thtMax=159.5 ptmin=0.1 dEdxRes=0.15 efficiency=1."); // Note: dEdX parametrization from 2008 fastSim->AddDetector("ScMdtPidBarrel", "thtMin=10.0 thtMax=130.0 pmin=0.5 efficiency=0.95 misId=0.01"); fastSim->AddDetector("ScEmcPidFwCap", "thtMin=10.0 thtMax=22.0 ptmin=0.0 pmin=0.0 efficiency=1.0"); fastSim->AddDetector("ScEmcPidBarrel", "thtMin=22.0 thtMax=142.0 ptmin=0.2 pmin=0.0 efficiency=1.0"); fastSim->AddDetector("ScEmcPidBwCap", "thtMin=142.0 thtMax=160.0 ptmin=0.0 pmin=0.0 efficiency=1.0"); fastSim->AddDetector("DrcDisc", "thtMin=5.0 thtMax=22.0 dthtc=0.01 nPhotMin=5 effNPhotons=0.075"); fastSim->AddDetector("DrcBarrel", "thtMin=22.0 thtMax=140.0 dthtc=0.01 nPhotMin=5 effNPhotons=0.075"); // PID Fwd spectrometer PID: RICH, FwdMUO and EMC FS fastSim->AddDetector("ScEmcPidFS", "thtMin=0.5 thtMax=10.0 ptmin=0.0 pmin=0.5 efficiency=1.0"); fastSim->AddDetector("ScMdtPidForward", "thtMin=0.0 thtMax=10.0 pmin=0.5 efficiency=0.95 misId=0.01"); fastSim->AddDetector("Rich", "angleXMax=5.0 angleYMax=10.0 dthtc=0.01 nPhotMin=5 effNPhotons=0.075"); fRun->AddTask(fastSim); // ******************************** // *** END Fast Simulation Task *** // ******************************** // ***************************** // *** BEGIN SoftTriggerTask *** // ***************************** if (runST) { // this file contains the trigger line definitions TString triggercfg = TString(gSystem->Getenv("VMCWORKDIR"))+"/softrig/triggerlines_fsim.cfg"; PndSoftTriggerTask *stTask = new PndSoftTriggerTask(Mom, mode, run, triggercfg); stTask->SetFastSimDefaults(); fRun->AddTask(stTask); } // *************************** // *** END SoftTriggerTask *** // *************************** // *********************************** // *** BEGIN PndSimpleCombinerTask *** // *********************************** if (!simonly) { PndSimpleCombinerTask *scTask = new PndSimpleCombinerTask(anadecay, anaparms+":algo=PidChargedProbability",Mom, run, mode); scTask->SetPidAlgo("PidChargedProbability"); fRun->AddTask(scTask); } // ********************************* // *** END PndSimpleCombinerTask *** // ********************************* //------------------------- Initialize the RUN ----------------- fRun->Init(); //------------------------- Run the Simulation ----------------- fRun->Run(nEvents); //------------------------- Write Filter Info to File ----------- if (usePndEventFilter) primGen->WriteEvtFilterStatsToRootFile(); //------------------------Print some info and exit---------------- timer.Stop(); Double_t rtime = timer.RealTime(); Double_t ctime = timer.CpuTime(); printf("RealTime=%f seconds, CpuTime=%f seconds\n",rtime,ctime); return 0; }