3 import FWCore.ParameterSet.Config
as cms
4 from DQMServices.Core.DQMEDHarvester
import DQMEDHarvester
9 subDirs = cms.untracked.vstring(
"Muons/RecoMuonV/MuonTrack/*"),
10 efficiency = cms.vstring(
11 "effic_vs_eta 'Efficiency vs #eta' num_assoSimToReco_eta num_simul_eta",
12 "effic_vs_pt 'Efficiency vs p_{T}' num_assoSimToReco_pT num_simul_pT",
13 "effic_vs_hit 'Efficiency vs number of Hits' num_assoSimToReco_hit num_simul_hit",
14 "effic_vs_phi 'Efficiency vs #phi' num_assoSimToReco_phi num_simul_phi",
15 "effic_vs_dxy 'Efficiency vs dxy' num_assoSimToReco_dxy num_simul_dxy",
16 "effic_vs_dz 'Efficiency vs dz' num_assoSimToReco_dz num_simul_dz",
17 "effic_vs_pu 'Efficiency vs number of pile-up interactions' num_assoSimToReco_pu num_simul_pu",
18 "effic_vs_Rpos 'Efficiency vs production Radius' num_assoSimToReco_Rpos num_simul_Rpos",
19 "effic_vs_Zpos 'Efficiency vs production Z position' num_assoSimToReco_Zpos num_simul_Zpos",
21 "fakerate_vs_eta 'Fake rate vs #eta' num_assoRecoToSim_eta num_reco_eta fake",
22 "fakerate_vs_pt 'Fake rate vs p_{T}' num_assoRecoToSim_pT num_reco_pT fake",
23 "fakerate_vs_hit 'Fake rate vs number of Hits' num_assoRecoToSim_hit num_reco_hit fake",
24 "fakerate_vs_phi 'Fake rate vs #phi' num_assoRecoToSim_phi num_reco_phi fake",
25 "fakerate_vs_dxy 'Fake rate vs dxy' num_assoRecoToSim_dxy num_reco_dxy fake",
26 "fakerate_vs_dz 'Fake rate vs dz' num_assoRecoToSim_dz num_reco_dz fake",
27 "fakerate_vs_pu 'Fake rate vs number of pile-up interactions' num_assoRecoToSim_pu num_reco_pu fake",
29 "chargeMisId_vs_eta 'Charge MisID rate vs #eta' num_chargemisid_eta num_assoSimToReco_eta",
30 "chargeMisId_vs_pt 'Charge MisID rate vs p_{T}' num_chargemisid_pT num_assoSimToReco_pT",
31 "chargeMisId_vs_phi 'Charge MisID rate vs #phi' num_chargemisid_phi num_assoSimToReco_phi",
32 "chargeMisId_vs_dxy 'Charge MisID rate vs dxy' num_chargemisid_dxy num_assoSimToReco_dxy",
33 "chargeMisId_vs_dz 'Charge MisID rate vs dz' num_chargemisid_dz num_assoSimToReco_dz",
34 "chargeMisId_vs_pu 'Charge MisID rate vs number of pile-up interactions' num_chargemisid_pu num_assoSimToReco_pu",
36 "chargeMisId_vs_hit 'Charge MisID rate vs number of RecHits' num_chargemisid_hit num_assoRecoToSim_hit" 38 profile = cms.untracked.vstring(
39 "chi2_vs_eta_prof 'mean #chi^{2} vs #eta' chi2_vs_eta",
40 "chi2_vs_phi_prof 'mean #chi^{2} vs #phi' chi2_vs_phi",
41 "chi2_vs_nhits_prof 'mean #chi^{2} vs number of Hits' chi2_vs_nhits",
42 "nhits_vs_eta_prof 'mean number of Hits vs #eta' nhits_vs_eta",
43 "nhits_vs_phi_prof 'mean number of Hits vs #phi' nhits_vs_phi",
44 "nDThits_vs_eta_prof 'mean number of DT hits vs #eta' nDThits_vs_eta",
45 "nCSChits_vs_eta_prof 'mean number of CSC hits vs #eta' nCSChits_vs_eta",
46 "nRPChits_vs_eta_prof 'mean number of RPC hits vs #eta' nRPChits_vs_eta",
47 "nTRK_LayersWithMeas_vs_eta_prof 'mean # TRK Layers With Meas vs #eta' nTRK_LayersWithMeas_vs_eta",
48 "nPixel_LayersWithMeas_vs_eta_prof 'mean # Pixel layers With Meas vs #eta' nPixel_LayersWithMeas_vs_eta",
49 "nlosthits_vs_eta_prof 'mean number of lost hits vs #eta' nlosthits_vs_eta",
50 "nhits_vs_phi_prof 'mean #hits vs #phi' nhits_vs_phi" 52 resolutionLimitedFit = cms.untracked.bool(
False),
53 resolution = cms.vstring(
54 "dxypull_vs_eta 'dxy Pull vs #eta' dxypull_vs_eta",
55 "dxyres_vs_eta 'dxy Residual vs #eta' dxyres_vs_eta",
56 "dxyres_vs_pt 'dxy Residual vs p_{T}' dxyres_vs_pt",
57 "dzpull_vs_eta 'dz Pull vs #eta' dzpull_vs_eta",
58 "dzres_vs_eta 'dz Residual vs #eta' dzres_vs_eta",
59 "dzres_vs_pt 'dz Residual vs p_{T}' dzres_vs_pt",
60 "phipull_vs_eta '#phi Pull vs #eta' phipull_vs_eta",
61 "phipull_vs_phi '#phi Pull vs #phi' phipull_vs_phi",
62 "phires_vs_eta '#phi Residual vs #eta' phires_vs_eta",
63 "phires_vs_phi '#phi Residual vs #phi' phires_vs_phi",
64 "phires_vs_pt '#phi Residual vs p_{T}' phires_vs_pt",
65 "thetapull_vs_eta '#theta Pull vs #eta' thetapull_vs_eta",
66 "thetapull_vs_phi '#theta Pull vs #phi' thetapull_vs_phi",
67 "thetaCotres_vs_eta 'cot(#theta) Residual vs #eta' thetaCotres_vs_eta",
68 "thetaCotres_vs_pt 'cot(#theta)) Residual vs p_{T}' thetaCotres_vs_pt",
69 "ptpull_vs_eta 'p_{T} Pull vs #eta' ptpull_vs_eta",
70 "ptpull_vs_phi 'p_{T} Pull vs #phi' ptpull_vs_phi",
71 "ptres_vs_eta 'p_{T} Relative Residual vs #eta' ptres_vs_eta",
72 "ptres_vs_phi 'p_{T} Relative Residual vs #phi' ptres_vs_phi",
73 "ptres_vs_pt 'p_{T} Relative Residual vs p_{T}' ptres_vs_pt",
74 "etares_vs_eta '#eta Residual vs #eta' etares_vs_eta" 76 outputFileName = cms.untracked.string(
"")
81 subDirs = cms.untracked.vstring(
"Muons/RecoMuonV/MuonTrack/"),
82 efficiency = cms.vstring(
83 "Eff_GlbTk_Eta_mabh 'Eff_{GLB,TK} vs #eta' globalMuons/effic_vs_eta probeTrks/effic_vs_eta",
84 "Eff_GlbTk_Pt_mabh 'Eff_{GLB,TK} vs p_{T}' globalMuons/effic_vs_pt probeTrks/effic_vs_pt",
85 "Eff_GlbTk_Hit_mabh 'Eff_{GLB,TK} vs n Hits' globalMuons/effic_vs_hit probeTrks/effic_vs_hit",
86 "Eff_GlbSta_Eta_mabh 'Eff_{GLB,STA} vs #eta' globalMuons/effic_vs_eta standAloneMuons_UpdAtVtx/effic_vs_eta",
87 "Eff_GlbSta_Pt_mabh 'Eff_{GLB,STA} vs p_{T}' globalMuons/effic_vs_pt standAloneMuons_UpdAtVtx/effic_vs_pt",
88 "Eff_GlbSta_Hit_mabh 'Eff_{GLB,STA} vs n Hits' globalMuons/effic_vs_hit standAloneMuons_UpdAtVtx/effic_vs_hit",
90 resolution = cms.vstring(
""),
91 outputFileName = cms.untracked.string(
"")
94 NEWrecoMuonPostProcessors = cms.Sequence( NEWpostProcessorMuonTrack
95 * NEWpostProcessorMuonTrackComp
96 * NEWpostProcessorsRecoMuonValidator_seq )