// root[1] AnalysisTrainNew(ana_mode, plugin_mode, "train_default_<date>/ConfigTrain.C")
//================== TRAIN NAME ============================================
-TString train_name = "TR010_LHC09a7ESD"; // *CHANGE ME* (no blancs or special characters)
-TString job_tag = "TR010: ESD+MC analysis -> AOD + delta AOD + histograms"; // *CHANGE ME*
+TString train_name = "test"; // *CHANGE ME* (no blancs or special characters)
+TString job_tag = "test"; // *CHANGE ME*
//==============================================================================
// ### Settings that make sense in PROOF only
TString root_version = "v5-25-04-3"; // *CHANGE ME IF MORE RECENT IN GRID*
TString aliroot_version = "v4-18-16-AN"; // *CHANGE ME IF MORE RECENT IN GRID*
// Change production base directory here
-TString alien_datadir = "/alice/sim/PDC_09/LHC09a7";
+TString alien_datadir = "/alice/sim/PDC_09/LHC09a4";
// AliEn output directory. If blank will become output_<train_name>
-TString alien_outdir = "/alice/sim/PDC_09/LHC09a7/AOD";
+TString alien_outdir = "/alice/sim/PDC_09/LHC09a4/AOD3";
// TString alien_outdir = "";
// Output folder to write delta AOD's. Considered if not null.
TString outputSingleFolder = "";
// Number of runs per master job
Int_t nRunsPerMaster = 10;
// Maximum number of files per job (gives size of AOD)
-Int_t nFilesPerJob = 50;
+Int_t nFilesPerJob = 100;
// Int_t nFilesPerJob = 1; (AOD->delta AOD production case)
// Set the run range
-Int_t run_range[2] = {80000, 80049}; // LHC09a7 *CHANGE ME*
+Int_t run_range[2] = {81007, 81656}; // LHC09a7 *CHANGE ME*
// ### Settings that make sense only for local analysis
//==============================================================================
// Change local xml dataset for local interactive analysis
// ### Analysis modules to be included. Some may not be yet fully implemented.
//==============================================================================
Int_t iAODanalysis = 0; // Analysis on input AOD's
-Int_t iAODhandler = 1; // Analysis produces an AOD or dAOD's
-Int_t iESDfilter = 1; // ESD to AOD filter (barrel + muon tracks)
-Int_t iMUONcopyAOD = 1; // Task that copies only muon events in a separate AOD (PWG3)
-Int_t iJETAN = 1; // Jet analysis (PWG4)
-Int_t iJETANdelta = 1; // Jet delta AODs
-Int_t iPWG4partcorr = 1; // Gamma-hadron correlations task (PWG4)
-Int_t iPWG4gammaconv = 1; // Gamma conversion analysis (PWG4)
-Int_t iPWG4omega3pi = 1; // Omega to 3 pi analysis (PWG4)
-Int_t iPWG3vertexing = 1; // Vertexing HF task (PWG3)
-Int_t iPWG3hfe = 1; // Electrons analysis (PWG3)
-Int_t iPWG3d2h = 1; // D0->2 hadrons (PWG3)
-Int_t iPWG3d0mass = 1; // D0 mass (PWG3D2H)
-Int_t iPWG3d0massLS = 1; // D0 mass LS (PWG3D2H)
-Int_t iPWG3dplus = 1; // D+ analysis (PWG3D2H)
-Int_t iPWG3LSd0 = 1; // LS D0 analysis (PWG3D2H)
-Int_t iPWG3LSjpsi = 1; // LS J/Psi analysis (PWG3D2H)
-Int_t iPWG3CFd0 = 1; // CF D0 analysis (PWG3D2H)
-Int_t iPWG3promptd0 = 1; // prompt D0 analysis (PWG3D2H)
-Int_t iPWG3MuonTrain = 1; // Muon analysis train
-Int_t iPWG2femto = 1; // Femtoscopy task (PWG2)
+Int_t iAODhandler = 0; // Analysis produces an AOD or dAOD's
+Int_t iESDfilter = 0; // ESD to AOD filter (barrel + muon tracks)
+Int_t iMUONcopyAOD = 0; // Task that copies only muon events in a separate AOD (PWG3)
+Int_t iJETAN = 0; // Jet analysis (PWG4)
+Int_t iJETANdelta = 0; // Jet delta AODs
+Int_t iPWG4partcorr = 0; // Gamma-hadron correlations task (PWG4)
+Int_t iPWG4gammaconv = 0; // Gamma conversion analysis (PWG4)
+Int_t iPWG4omega3pi = 0; // Omega to 3 pi analysis (PWG4)
+Int_t iPWG3vertexing = 0; // Vertexing HF task (PWG3)
+Int_t iPWG3hfe = 0; // Electrons analysis (PWG3)
+Int_t iPWG3d2h = 0; // D0->2 hadrons (PWG3)
+Int_t iPWG3d0mass = 0; // D0 mass (PWG3D2H)
+Int_t iPWG3d0massLS = 0; // D0 mass LS (PWG3D2H)
+Int_t iPWG3dplus = 0; // D+ analysis (PWG3D2H)
+Int_t iPWG3LSd0 = 0; // LS D0 analysis (PWG3D2H)
+Int_t iPWG3LSjpsi = 0; // LS J/Psi analysis (PWG3D2H)
+Int_t iPWG3CFd0 = 0; // CF D0 analysis (PWG3D2H)
+Int_t iPWG3promptd0 = 0; // prompt D0 analysis (PWG3D2H)
+Int_t iPWG3MuonTrain = 0; // Muon analysis train
+Int_t iPWG2femto = 0; // Femtoscopy task (PWG2)
Int_t iPWG2spectra = 1; // Spectra tasks (PWG2
-Int_t iPWG2protons = 1; // Proton-antiproton analysis
+Int_t iPWG2protons = 0; // Proton-antiproton analysis
Int_t iPWG2checkcascade = 1; // Check cascades task
-Int_t iPWG2perfcascade = 1; // Check performance cascade
-Int_t iPWG2checkv0 = 1; // Check V0 task
-Int_t iPWG2strange = 1; // Strangeness task
-Int_t iPWG2central = 1; // Anisothropy in central collisions
-Int_t iPWG2flow = 1; // Flow analysis tasks (PWG2)
+Int_t iPWG2perfcascade = 0; // Check performance cascade
+Int_t iPWG2checkv0 = 0; // Check V0 task
+Int_t iPWG2strange = 0; // Strangeness task
+Int_t iPWG2central = 0; // Anisothropy in central collisions
+Int_t iPWG2flow = 0; // Flow analysis tasks (PWG2)
Int_t iPWG2res = 0; // Resonances task (PWG2)
Int_t iPWG2rsneff = 0; // Resonances efficiency
-Int_t iPWG2kink = 1; // Kink analysis tasks (PWG2)
-Int_t iPWG2kinkESDMC = 1; // Kink ESD-MC comparison (PWG2)
-Int_t iPWG2kinkLSKstar = 1; // Kink like-sign K* (PWG2)
-Int_t iPWG2kinkLSL1520 = 1; // Kink like-sign L1520 (PWG2)
-Int_t iPWG2kinkLSPhi = 1; // Kink like-sign Phi (PWG2)
-Int_t iPWG2kinkKstarESD = 1; // Kink Kstar ESD (PWG2)
-Int_t iPWG2kinkKstarMC = 1; // Kink Kstar MC (PWG2)
-Int_t iPWG2kinkL1520ESD = 1; // Kink L1520 ESD (PWG2)
-Int_t iPWG2kinkL1520MC = 1; // Kink L1520 MC (PWG2)
-Int_t iPWG2kinkPhiESD = 1; // Kink resonances Phi ESD (PWG2)
-Int_t iPWG2kinkPhiMC = 1; // Kink resonances Phi MC (PWG2)
-Int_t iPWG2evchar = 1; // Event characteristics (PWG2)
-Int_t iPWG2unicor = 1; // Unicor analysis (PWG2)
+Int_t iPWG2kink = 0; // Kink analysis tasks (PWG2)
+Int_t iPWG2kinkESDMC = 0; // Kink ESD-MC comparison (PWG2)
+Int_t iPWG2kinkLSKstar = 0; // Kink like-sign K* (PWG2)
+Int_t iPWG2kinkLSL1520 = 0; // Kink like-sign L1520 (PWG2)
+Int_t iPWG2kinkLSPhi = 0; // Kink like-sign Phi (PWG2)
+Int_t iPWG2kinkKstarESD = 0; // Kink Kstar ESD (PWG2)
+Int_t iPWG2kinkKstarMC = 0; // Kink Kstar MC (PWG2)
+Int_t iPWG2kinkL1520ESD = 0; // Kink L1520 ESD (PWG2)
+Int_t iPWG2kinkL1520MC = 0; // Kink L1520 MC (PWG2)
+Int_t iPWG2kinkPhiESD = 0; // Kink resonances Phi ESD (PWG2)
+Int_t iPWG2kinkPhiMC = 0; // Kink resonances Phi MC (PWG2)
+Int_t iPWG2evchar = 0; // Event characteristics (PWG2)
+Int_t iPWG2unicor = 0; // Unicor analysis (PWG2)
Int_t iPWG2forward = 0; // FMD analysis (PWG2)
// ### Configuration macros used for each module
}
// PWG4 hadron correlations
if (iPWG4partcorr) {
+ Bool_t isSimulation = (runOnData)?kFALSE:kTRUE;
gROOT->LoadMacro("$ALICE_ROOT/PWG4/macros/AddTaskPartCorr.C");
- AliAnalysisTaskParticleCorrelation *taskpartcorrPHOS = AddTaskPartCorr("AOD", "PHOS", useMC);
+ AliAnalysisTaskParticleCorrelation *taskpartcorrPHOS = AddTaskPartCorr("AOD", "PHOS", useMC, kFALSE, isSimulation);
if (!taskpartcorrPHOS) ::Warning("AnalysisTrainNew", "AliAnalysisTaskParticleCorrelation PHOS cannot run for this train conditions - EXCLUDED");
- AliAnalysisTaskParticleCorrelation *taskpartcorrEMCAL = AddTaskPartCorr("AOD", "EMCAL", useMC);
+ AliAnalysisTaskParticleCorrelation *taskpartcorrEMCAL = AddTaskPartCorr("AOD", "EMCAL", useMC, kFALSE, isSimulation);
if (!taskpartcorrEMCAL) ::Warning("AnalysisTrainNew", "AliAnalysisTaskParticleCorrelation EMCAL cannot run for this train conditions - EXCLUDED");
mgr->RegisterExtraFile("deltaAODPartCorr.root");
}
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff