From 418e0222a69f2dcc6e4cb677df0834f64990bfa2 Mon Sep 17 00:00:00 2001 From: Carlo Battilana <carlo.battilana@gmail.com> Date: Mon, 24 Jun 2024 17:48:55 +0200 Subject: [PATCH] Update table convention naming to deal with NANOEDMAODoutput --- .../python/muNtupleProducerBkg_cff.py | 5 +- .../MuonTools/python/muNtupleProducer_cff.py | 18 +-- .../MuonTools/python/nano_mu_digi_cff.py | 130 ++++++++------- .../MuonTools/python/nano_mu_global_cff.py | 5 +- .../MuonTools/python/nano_mu_l1t_cff.py | 22 +-- .../python/nano_mu_local_reco_cff.py | 153 ++++++++---------- .../MuonTools/python/nano_mu_reco_cff.py | 23 +-- 7 files changed, 178 insertions(+), 178 deletions(-) diff --git a/DPGAnalysis/MuonTools/python/muNtupleProducerBkg_cff.py b/DPGAnalysis/MuonTools/python/muNtupleProducerBkg_cff.py index adda19de5a864..3ce187cdeda36 100644 --- a/DPGAnalysis/MuonTools/python/muNtupleProducerBkg_cff.py +++ b/DPGAnalysis/MuonTools/python/muNtupleProducerBkg_cff.py @@ -5,9 +5,8 @@ from DPGAnalysis.MuonTools.nano_mu_global_cff import * from DPGAnalysis.MuonTools.nano_mu_digi_cff import * -muDPGNanoProducerBkg = cms.Sequence(lhcInfoTableProducer - + lumiTableProducer - + muDigiProducersBkg) +muDPGNanoProducerBkg = cms.Sequence(globalTables + + muDigiTablesBkg) def muDPGNanoBkgCustomize(process) : diff --git a/DPGAnalysis/MuonTools/python/muNtupleProducer_cff.py b/DPGAnalysis/MuonTools/python/muNtupleProducer_cff.py index 18db110d9de6c..1ada588d082be 100644 --- a/DPGAnalysis/MuonTools/python/muNtupleProducer_cff.py +++ b/DPGAnalysis/MuonTools/python/muNtupleProducer_cff.py @@ -7,20 +7,18 @@ from DPGAnalysis.MuonTools.nano_mu_local_reco_cff import * from DPGAnalysis.MuonTools.nano_mu_reco_cff import * from DPGAnalysis.MuonTools.nano_mu_l1t_cff import * -from DPGAnalysis.MuonTools.nano_mu_l1t_cff import * -muDPGNanoProducer = cms.Sequence(lhcInfoTableProducer - + lumiTableProducer - + muDigiProducers - + muLocalRecoProducers - + muRecoProducers - + muL1TriggerProducers +muDPGNanoProducer = cms.Sequence(globalTables + + muDigiTables + + muLocalRecoTables + + muRecoTables + + muL1TriggerTables ) def muDPGNanoCustomize(process) : - if hasattr(process, "dtrpcPointFlatTableProducer") and \ - hasattr(process, "cscrpcPointFlatTableProducer") and \ + if hasattr(process, "dtrpcPointFlatTable") and \ + hasattr(process, "cscrpcPointFlatTable") and \ hasattr(process, "RawToDigiTask"): process.load("RecoLocalMuon.RPCRecHit.rpcPointProducer_cff") process.rpcPointProducer.dt4DSegments = 'dt4DSegments' @@ -28,7 +26,7 @@ def muDPGNanoCustomize(process) : process.rpcPointProducer.ExtrapolatedRegion = 0.6 process.RawToDigiTask.add(process.rpcPointProducer) - if hasattr(process, "muGEMMuonExtTableProducer") or hasattr(process, "muCSCTnPFlatTableProducer"): + if hasattr(process, "muGEMMuonExtTable") or hasattr(process, "muCSCTnPFlatTable"): process.load("TrackingTools/TransientTrack/TransientTrackBuilder_cfi") process.load("TrackPropagation.SteppingHelixPropagator.SteppingHelixPropagatorAny_cfi") process.load("TrackPropagation.SteppingHelixPropagator.SteppingHelixPropagatorAlong_cfi") diff --git a/DPGAnalysis/MuonTools/python/nano_mu_digi_cff.py b/DPGAnalysis/MuonTools/python/nano_mu_digi_cff.py index 5c8c16139805f..41d46eaafcda2 100644 --- a/DPGAnalysis/MuonTools/python/nano_mu_digi_cff.py +++ b/DPGAnalysis/MuonTools/python/nano_mu_digi_cff.py @@ -5,17 +5,18 @@ from DPGAnalysis.MuonTools.dtDigiFlatTableProducer_cfi import dtDigiFlatTableProducer -dtDigiFlatTableProducer.name = "dtDigi" -dtDigiFlatTableProducer.src = "muonDTDigis" -dtDigiFlatTableProducer.doc = "DT digi information" +dtDigiFlatTable = dtDigiFlatTableProducer.clone( + name = "dtDigi", + src = "muonDTDigis", + doc = "DT digi information", -dtDigiFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( time = Var("time()", float, doc = "digi time"), wire = Var("wire()", "int16", doc="wire - [1:X] range" "<br />(X varies for different chambers SLs and layers)") -) + ), -dtDigiFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( wheel = DetIdVar("wheel()", "int16", doc = "wheel - [-2:2] range"), sector = DetIdVar("sector()", "int16", doc = "sector - [1:14] range" "<br />sector 13 used for the second MB4 of sector 4" @@ -25,21 +26,22 @@ "<br />SL 1 and 3 are phi SLs" "<br />SL 2 is theta SL"), layer = DetIdVar("layer()", "int16", doc = "layer - [1:4] range") + ) ) - from DPGAnalysis.MuonTools.rpcDigiFlatTableProducer_cfi import rpcDigiFlatTableProducer -rpcDigiFlatTableProducer.name = "rpcDigi" -rpcDigiFlatTableProducer.src = "muonRPCDigis" -rpcDigiFlatTableProducer.doc = "RPC digi information" +rpcDigiFlatTable = rpcDigiFlatTableProducer.clone( + name = "rpcDigi", + src = "muonRPCDigis", + doc = "RPC digi information", -rpcDigiFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( strip = Var("strip()", "uint8", doc = "index of the readout strip associated to the digi"), bx = Var("bx()", int, doc="bunch crossing associated to the digi") -) + ), -rpcDigiFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( region = DetIdVar("region()", "int16", doc = "0: barrel, +/-1: endcap"), ring = DetIdVar("ring()", "int16", doc = "ring id:" "<br />wheel number in barrel - [-2:+2] range" @@ -54,20 +56,22 @@ roll = DetIdVar("roll()", "int16", doc = "roll id (also known as eta partition):" "<br />each chamber is divided along the strip direction"), rawId = DetIdVar("rawId()", "uint", doc = "unique detector unit ID") + ) ) from DPGAnalysis.MuonTools.gemDigiFlatTableProducer_cfi import gemDigiFlatTableProducer -gemDigiFlatTableProducer.name = "gemDigi" -gemDigiFlatTableProducer.src = "muonGEMDigis" -gemDigiFlatTableProducer.doc = "GEM digi information" +gemDigiFlatTable = gemDigiFlatTableProducer.clone( + name = "gemDigi", + src = "muonGEMDigis", + doc = "GEM digi information", -gemDigiFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( strip = Var("strip()", "int16", doc = "index of the readout strip associated to the digi"), bx = Var("bx()", "int16", doc="bunch crossing associated to the digi") -) + ), -gemDigiFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( station = DetIdVar("station()", "int16", doc = "GEM station <br />(always 1 for GE1/1)"), region = DetIdVar("region()", "int16", doc = "GE11 region where the digi is detected" "<br />(int, positive endcap: +1, negative endcap: -1)"), @@ -77,84 +81,88 @@ "<br />(chambers numbered from 0 to 35)"), layer = DetIdVar("layer()", "int16", doc = "GE11 layer where the hit is reconstructed" "<br />(layer1: 1, layer2: 2)") + ) ) - - from DPGAnalysis.MuonTools.gemohStatusFlatTableProducer_cfi import gemohStatusFlatTableProducer -gemohStatusFlatTableProducer.name = "gemOHStatus" -gemohStatusFlatTableProducer.src = "muonGEMDigis:OHStatus:" -gemohStatusFlatTableProducer.doc = "GEM OH status information" - - -gemohStatusFlatTableProducer.variables = cms.PSet( -chamberType = Var("chamberType()", "int", doc = "two digits number that specifies the module within a chamber<br /> 11,12 for GE1/1 chambers layer 1,2<br /> 21,22,23,24 for GE2/1 chambers module 1,2,3,4"), -vfatMask = Var("vfatMask()", "uint", doc = "24 bit word that specifies the VFAT Mask<br /> nth bit == 0 means that the VFAT_n was masked from the DAQ in the event"), -zsMask = Var("zsMask()", "uint", doc = "24 bit word that specifies the Zero Suppression<br /> nth bit == 1 means that the VFAT_n was zero suppressed"), -missingVFATs = Var("missingVFATs()", "uint", doc = "24 bit word that specifies the missing VFAT mask<br /> nth bit == 1 means that the VFAT_n was expected in the payload but not found"), -errors = Var("errors()", "uint16", doc = "code for GEM OH errors<br /> non-zero values indicate errors"), -warnings = Var("warnings()", "uint16", doc = "code for GEM OH warnings<br /> non-zero values indicate warnings") -) - -gemohStatusFlatTableProducer.detIdVariables = cms.PSet( +gemohStatusFlatTable = gemohStatusFlatTableProducer.clone( + name = "gemOHStatus", + src = "muonGEMDigis:OHStatus:", + doc = "GEM OH status information", + + variables = cms.PSet( + chamberType = Var("chamberType()", "int", doc = "two digits number that specifies the module within a chamber<br /> 11,12 for GE1/1 chambers layer 1,2<br /> 21,22,23,24 for GE2/1 chambers module 1,2,3,4"), + vfatMask = Var("vfatMask()", "uint", doc = "24 bit word that specifies the VFAT Mask<br /> nth bit == 0 means that the VFAT_n was masked from the DAQ in the event"), + zsMask = Var("zsMask()", "uint", doc = "24 bit word that specifies the Zero Suppression<br /> nth bit == 1 means that the VFAT_n was zero suppressed"), + missingVFATs = Var("missingVFATs()", "uint", doc = "24 bit word that specifies the missing VFAT mask<br /> nth bit == 1 means that the VFAT_n was expected in the payload but not found"), + errors = Var("errors()", "uint16", doc = "code for GEM OH errors<br /> non-zero values indicate errors"), + warnings = Var("warnings()", "uint16", doc = "code for GEM OH warnings<br /> non-zero values indicate warnings") + ), + + detIdVariables = cms.PSet( station = DetIdVar("station()", "int16", doc = "GEM station <br />always 1 for GE1/1)"), region = DetIdVar("region()", "int16", doc = "region with which the GEMOHStatus is associated" "<br />int, positive endcap: +1, negative endcap: -1"), chamber = DetIdVar("chamber()", "int16", doc = "chamber with which the GEMOHStatus is associated"), layer = DetIdVar("layer()", "int16", doc = "layer with which the GEMOHStatus is associated<br /> either 1 or 2 for GE1/1 and GE2/1") + ) ) from DPGAnalysis.MuonTools.cscWireDigiFlatTableProducer_cfi import cscWireDigiFlatTableProducer -cscWireDigiFlatTableProducer.name = "cscWireDigi" -cscWireDigiFlatTableProducer.src = "muonCSCDigis:MuonCSCWireDigi" -cscWireDigiFlatTableProducer.doc = "CSC wire digi information" +cscWireDigiFlatTable = cscWireDigiFlatTableProducer.clone( + name = "cscWireDigi", + src = "muonCSCDigis:MuonCSCWireDigi", + doc = "CSC wire digi information", -cscWireDigiFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( timeBin = Var("getTimeBin()", "int16", doc = ""), wireGroup = Var("getWireGroup()", "int16", doc=""), wireGroupBX = Var("getWireGroupBX()", "int16", doc="") -) + ), -cscWireDigiFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( endcap = DetIdVar("endcap()", "int16", doc = ""), station = DetIdVar("station()", "int16", doc = ""), ring = DetIdVar("ring()", "int16", doc = ""), chamber = DetIdVar("chamber()", "int16", doc = ""), layer = DetIdVar("layer()", "int16", doc = "") + ) ) from DPGAnalysis.MuonTools.cscAlctDigiFlatTableProducer_cfi import cscAlctDigiFlatTableProducer -cscAlctDigiFlatTableProducer.name = "cscALCTDigi" -cscAlctDigiFlatTableProducer.src = "muonCSCDigis:MuonCSCALCTDigi:" -cscAlctDigiFlatTableProducer.doc = "CSC ALCT digi information" +cscAlctDigiFlatTable = cscAlctDigiFlatTableProducer.clone( + name = "cscALCTDigi", + src = "muonCSCDigis:MuonCSCALCTDigi:", + doc = "CSC ALCT digi information", -cscAlctDigiFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( keyWireGroup = Var("getKeyWG()", "int16", doc = ""), bx = Var("getBX()", "int16", doc="") -) + ), -cscAlctDigiFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( endcap = DetIdVar("endcap()", "int16", doc = ""), station = DetIdVar("station()", "int16", doc = ""), ring = DetIdVar("ring()", "int16", doc = ""), chamber = DetIdVar("chamber()", "int16", doc = ""), layer = DetIdVar("layer()", "int16", doc = "") + ) ) -muDigiProducers = cms.Sequence(dtDigiFlatTableProducer - + rpcDigiFlatTableProducer - + gemDigiFlatTableProducer - + gemohStatusFlatTableProducer - ) - -muDigiProducersBkg = cms.Sequence(dtDigiFlatTableProducer - + rpcDigiFlatTableProducer - + cscAlctDigiFlatTableProducer - + cscWireDigiFlatTableProducer - + gemDigiFlatTableProducer - + gemohStatusFlatTableProducer - ) +muDigiTables = cms.Sequence(dtDigiFlatTable + + rpcDigiFlatTable + + gemDigiFlatTable + + gemohStatusFlatTable + ) + +muDigiTablesBkg = cms.Sequence(dtDigiFlatTable + + rpcDigiFlatTable + + cscAlctDigiFlatTable + + cscWireDigiFlatTable + + gemDigiFlatTable + + gemohStatusFlatTable + ) diff --git a/DPGAnalysis/MuonTools/python/nano_mu_global_cff.py b/DPGAnalysis/MuonTools/python/nano_mu_global_cff.py index 18cace397e6ee..372ed1441fede 100644 --- a/DPGAnalysis/MuonTools/python/nano_mu_global_cff.py +++ b/DPGAnalysis/MuonTools/python/nano_mu_global_cff.py @@ -1,8 +1,9 @@ import FWCore.ParameterSet.Config as cms from PhysicsTools.NanoAOD.common_cff import * +from PhysicsTools.NanoAOD.nano_cff import lhcInfoTable -lumiTableProducer = cms.EDProducer("SimpleOnlineLuminosityFlatTableProducer", +lumiTable = cms.EDProducer("SimpleOnlineLuminosityFlatTableProducer", src = cms.InputTag("onlineMetaDataDigis"), name = cms.string("lumi"), doc = cms.string("Online luminosity information"), @@ -12,4 +13,4 @@ ) ) -lhcInfoTableProducer = cms.EDProducer("LHCInfoProducer") +globalTables = cms.Sequence(lumiTable + lhcInfoTable) \ No newline at end of file diff --git a/DPGAnalysis/MuonTools/python/nano_mu_l1t_cff.py b/DPGAnalysis/MuonTools/python/nano_mu_l1t_cff.py index b36d88a283583..085d61d091d1d 100644 --- a/DPGAnalysis/MuonTools/python/nano_mu_l1t_cff.py +++ b/DPGAnalysis/MuonTools/python/nano_mu_l1t_cff.py @@ -2,18 +2,18 @@ from DPGAnalysis.MuonTools.muDTTPGPhiFlatTableProducer_cfi import muDTTPGPhiFlatTableProducer -muBmtfInFlatTableProducer = muDTTPGPhiFlatTableProducer.clone() -muTwinMuxInFlatTableProducer = muDTTPGPhiFlatTableProducer.clone(tag = 'TM_IN', name = 'ltTwinMuxIn', src = cms.InputTag('twinMuxStage2Digis','PhIn')) -muTwinMuxOutFlatTableProducer = muDTTPGPhiFlatTableProducer.clone(tag = 'TM_OUT', name = 'ltTwinMuxOut', src = cms.InputTag('twinMuxStage2Digis','PhOut')) +muBmtfInFlatTable = muDTTPGPhiFlatTableProducer.clone() +muTwinMuxInFlatTable = muDTTPGPhiFlatTableProducer.clone(tag = 'TM_IN', name = 'ltTwinMuxIn', src = cms.InputTag('twinMuxStage2Digis','PhIn')) +muTwinMuxOutFlatTable = muDTTPGPhiFlatTableProducer.clone(tag = 'TM_OUT', name = 'ltTwinMuxOut', src = cms.InputTag('twinMuxStage2Digis','PhOut')) from DPGAnalysis.MuonTools.muDTTPGThetaFlatTableProducer_cfi import muDTTPGThetaFlatTableProducer -muBmtfInThFlatTableProducer = muDTTPGThetaFlatTableProducer.clone() -muTwinMuxInThFlatTableProducer = muDTTPGThetaFlatTableProducer.clone(tag = 'TM_IN', name = 'ltTwinMuxInTh', src = cms.InputTag('twinMuxStage2Digis','ThIn')) +muBmtfInThFlatTable = muDTTPGThetaFlatTableProducer.clone() +muTwinMuxInThFlatTable = muDTTPGThetaFlatTableProducer.clone(tag = 'TM_IN', name = 'ltTwinMuxInTh', src = cms.InputTag('twinMuxStage2Digis','ThIn')) -muL1TriggerProducers = cms.Sequence(muTwinMuxInFlatTableProducer - + muTwinMuxOutFlatTableProducer - + muBmtfInFlatTableProducer - + muTwinMuxInThFlatTableProducer - + muBmtfInThFlatTableProducer - ) +muL1TriggerTables = cms.Sequence(muTwinMuxInFlatTable + + muTwinMuxOutFlatTable + + muBmtfInFlatTable + + muTwinMuxInThFlatTable + + muBmtfInThFlatTable + ) diff --git a/DPGAnalysis/MuonTools/python/nano_mu_local_reco_cff.py b/DPGAnalysis/MuonTools/python/nano_mu_local_reco_cff.py index 5046674c7c9a7..b9e25b646e6bf 100644 --- a/DPGAnalysis/MuonTools/python/nano_mu_local_reco_cff.py +++ b/DPGAnalysis/MuonTools/python/nano_mu_local_reco_cff.py @@ -1,15 +1,16 @@ import FWCore.ParameterSet.Config as cms -from DPGAnalysis.MuonTools.dtSegmentFlatTableProducer_cfi import dtSegmentFlatTableProducer - from PhysicsTools.NanoAOD.common_cff import * from DPGAnalysis.MuonTools.common_cff import * -dtSegmentFlatTableProducer.name = "dtSegment" -dtSegmentFlatTableProducer.src = "dt4DSegments" -dtSegmentFlatTableProducer.doc = "DT segment information" +from DPGAnalysis.MuonTools.dtSegmentFlatTableProducer_cfi import dtSegmentFlatTableProducer -dtSegmentFlatTableProducer.variables = cms.PSet( +dtSegmentFlatTable = dtSegmentFlatTableProducer.clone( + name = "dtSegment", + src = "dt4DSegments", + doc = "DT segment information", + + variables = cms.PSet( seg4D_hasPhi = Var("hasPhi()", bool, doc = "has segment phi view - bool"), seg4D_hasZed = Var("hasZed()", bool, doc = "has segment zed view - bool"), seg4D_posLoc_x = Var("localPosition().x()", float, doc = "position x in local coordinates - cm"), @@ -27,35 +28,39 @@ seg2D_z_t0 = Var(f"? hasZed() ? zSegment().t0() : {defaults.FLOAT}", float, doc = "t0 from segments with z view - ns"), seg2D_z_nHits = Var(f"? hasZed() ? zSegment().specificRecHits().size() : 0", "int16", doc = "# hits in z view - [0:4] range"), seg2D_z_normChi2 = Var(f"? hasZed() ? (zSegment().chi2() / zSegment().degreesOfFreedom()) : {defaults.FLOAT_POS}", float, doc = "chi2/n.d.o.f. from segments with z view"), -) + ), -dtSegmentFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( wheel = DetIdVar("wheel()", "int16", doc = "wheel - [-2:2] range"), sector = DetIdVar("sector()", "int16", doc = "sector - [1:14] range" "<br />sector 13 used for the second MB4 of sector 4" "<br />sector 14 used for the second MB4 of sector 10"), station = DetIdVar("station()", "int16", doc = "station - [1:4] range") -) + ), -dtSegmentFlatTableProducer.globalPosVariables = cms.PSet( + globalPosVariables = cms.PSet( seg4D_posGlb_phi = GlobGeomVar("phi().value()", doc = "position phi in global coordinates - radians [-pi:pi]"), seg4D_posGlb_eta = GlobGeomVar("eta()", doc = "position eta in global coordinates"), -) + ), -dtSegmentFlatTableProducer.globalDirVariables = cms.PSet( + globalDirVariables = cms.PSet( seg4D_dirGlb_phi = GlobGeomVar("phi().value()", doc = "direction phi in global coordinates - radians [-pi:pi]"), seg4D_dirGlb_eta = GlobGeomVar("eta()", doc = "direction eta in global coordinates"), + ) ) from DPGAnalysis.MuonTools.muDTSegmentExtTableProducer_cfi import muDTSegmentExtTableProducer +muDTSegmentExtTable = muDTSegmentExtTableProducer.clone() + from DPGAnalysis.MuonTools.rpcRecHitFlatTableProducer_cfi import rpcRecHitFlatTableProducer -rpcRecHitFlatTableProducer.name = "rpcRecHit" -rpcRecHitFlatTableProducer.src = "rpcRecHits" -rpcRecHitFlatTableProducer.doc = "RPC rec-hit information" +rpcRecHitFlatTable = rpcRecHitFlatTableProducer.clone( + name = "rpcRecHit", + src = "rpcRecHits", + doc = "RPC rec-hit information", -rpcRecHitFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( bx = Var("BunchX()", int, doc="bunch crossing number"), time = Var("time()", float, doc = "time information in ns"), firstClusterStrip = Var("firstClusterStrip()", "int16", doc = "lowest-numbered strip in the cluster"), @@ -63,9 +68,9 @@ coordX = Var("localPosition().x()", float, doc = "position x in local coordinates - cm"), coordY = Var("localPosition().y()", float, doc = "position y in local coordinates - cm"), coordZ = Var("localPosition().z()", float, doc = "position z in local coordinates - cm"), -) + ), -rpcRecHitFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( region = DetIdVar("region()", "int16", doc = "0: barrel, +-1: endcap"), ring = DetIdVar("ring()", "int16", doc = "ring id:" "<br />wheel number in barrel (from -2 to +2)" @@ -80,17 +85,21 @@ roll = DetIdVar("roll()", "int16", doc = "roll id (also known as eta partition):" "<br />each chamber is divided along the strip direction"), rawId = DetIdVar("rawId()", "uint", doc = "unique detector unit ID") + ) ) -dtrpcPointFlatTableProducer = rpcRecHitFlatTableProducer.clone(name = 'dtrpcPointProducer', src = cms.InputTag('rpcPointProducer','RPCDTExtrapolatedPoints'), doc = "DT extrapolated point on RPC") +dtrpcPointFlatTable = rpcRecHitFlatTableProducer.clone( + name = 'dtToRpc', + src = cms.InputTag('rpcPointProducer','RPCDTExtrapolatedPoints'), + doc = "DT extrapolated point on RPC", -dtrpcPointFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( coordX = Var("localPosition().x()", float, doc = "position x in local coordinates - cm"), coordY = Var("localPosition().y()", float, doc = "position y in local coordinates - cm"), coordZ = Var("localPosition().z()", float, doc = "position z in local coordinates - cm"), -) + ), -dtrpcPointFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( region = DetIdVar("region()", "int16", doc = "0: barrel, +-1: endcap"), ring = DetIdVar("ring()", "int16", doc = "ring id:" "<br />wheel number in barrel (from -2 to +2)" @@ -105,45 +114,21 @@ roll = DetIdVar("roll()", "int16", doc = "roll id (also known as eta partition):" "<br />each chamber is divided along the strip direction"), rawId = DetIdVar("rawId()", "uint", doc = "unique detector unit ID") + ) ) -cscrpcPointFlatTableProducer = rpcRecHitFlatTableProducer.clone(name = 'cscToRpc', - src = cms.InputTag('rpcPointProducer','RPCCSCExtrapolatedPoints'), - doc = "CSC segment extrapolated on RPC") -cscrpcPointFlatTableProducer.variables = cms.PSet( - coordX = Var("localPosition().x()", float, doc = "position x in local coordinates - cm"), - coordY = Var("localPosition().y()", float, doc = "position y in local coordinates - cm"), - coordZ = Var("localPosition().z()", float, doc = "position z in local coordinates - cm"), -) +cscrpcPointFlatTable = rpcRecHitFlatTableProducer.clone( + name = 'cscToRpc', + src = cms.InputTag('rpcPointProducer','RPCCSCExtrapolatedPoints'), + doc = "CSC segment extrapolated on RPC", -cscrpcPointFlatTableProducer.detIdVariables = cms.PSet( - region = DetIdVar("region()", "int16", doc = "0: barrel, +-1: endcap"), - ring = DetIdVar("ring()", "int16", doc = "ring id:" - "<br />wheel number in barrel (from -2 to +2)" - "<br />ring number in endcap (from 1 to 3)"), - station = DetIdVar("station()", "int16", doc = "chambers at same R in barrel, chambers at same Z ion endcap"), - layer = DetIdVar("layer()", "int16", doc = "layer id:" - "<br />in station 1 and 2 for barrel, we have two layers of chambers:" - "<br />layer 1 is the inner chamber and layer 2 is the outer chamber"), - sector = DetIdVar("sector()", "int16", doc = "group of chambers at same phi"), - subsector = DetIdVar("subsector()", "int16", doc = "Some sectors are divided along the phi direction in subsectors " - "(from 1 to 4 in Barrel, from 1 to 6 in Endcap)"), - roll = DetIdVar("roll()", "int16", doc = "roll id (also known as eta partition):" - "<br />each chamber is divided along the strip direction"), - rawId = DetIdVar("rawId()", "uint", doc = "unique detector unit ID") -) - -dtrpcPointFlatTableProducer = rpcRecHitFlatTableProducer.clone(name = 'dtToRpc', - src = cms.InputTag('rpcPointProducer','RPCDTExtrapolatedPoints'), - doc = "DT segment extrapolated on RPC") - -dtrpcPointFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( coordX = Var("localPosition().x()", float, doc = "position x in local coordinates - cm"), coordY = Var("localPosition().y()", float, doc = "position y in local coordinates - cm"), coordZ = Var("localPosition().z()", float, doc = "position z in local coordinates - cm"), -) + ), -dtrpcPointFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( region = DetIdVar("region()", "int16", doc = "0: barrel, +-1: endcap"), ring = DetIdVar("ring()", "int16", doc = "ring id:" "<br />wheel number in barrel (from -2 to +2)" @@ -158,25 +143,26 @@ roll = DetIdVar("roll()", "int16", doc = "roll id (also known as eta partition):" "<br />each chamber is divided along the strip direction"), rawId = DetIdVar("rawId()", "uint", doc = "unique detector unit ID") + ) ) - from DPGAnalysis.MuonTools.gemRecHitFlatTableProducer_cfi import gemRecHitFlatTableProducer -gemRecHitFlatTableProducer.name = "gemRecHit" -gemRecHitFlatTableProducer.src = "gemRecHits" -gemRecHitFlatTableProducer.doc = "GEM rec-hit information" +gemRecHitFlatTable = gemRecHitFlatTableProducer.clone( + name = "gemRecHit", + src = "gemRecHits", + doc = "GEM rec-hit information", -gemRecHitFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( bx = Var("BunchX()", int, doc="bunch crossing number"), clusterSize = Var("clusterSize()", "int16", doc = "number of strips in the cluster"), loc_x = Var("localPosition().x()", float, doc = "hit position x in local coordinates - cm"), firstClusterStrip = Var("firstClusterStrip()", "int16", doc = "lowest-numbered strip in the cluster"), loc_phi = Var("localPosition().phi().value()", float, doc = "hit position phi in local coordinates - rad"), loc_y = Var("localPosition().y()", float, doc = "hit position y in local coordinates - cm"), loc_z = Var("localPosition().z()", float, doc = "hit position z in local coordinates - cm"), -) + ), -gemRecHitFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( roll = DetIdVar("roll()", "int16", doc = "roll id, also known as eta partition:" "<br />(partitions numbered from 1 to 8)"), region = DetIdVar("region()", "int16", doc = "GE11 region where the hit is reconstructed" @@ -185,23 +171,25 @@ "<br />(chambers numbered from 0 to 35)"), layer = DetIdVar("layer()", "int16", doc = "GE11 layer where the hit is reconstructed" "<br />(layer1: 1, layer2: 2)") -) + ), -gemRecHitFlatTableProducer.globalPosVariables = cms.PSet( + globalPosVariables = cms.PSet( g_r = GlobGeomVar("perp()", doc = "hit position r in global coordinates - cm"), g_phi = GlobGeomVar("phi().value()", doc = "hit position phi in global coordinates - radians [-pi:pi]"), g_x = GlobGeomVar("x()", doc = "hit position x in global coordinates - cm"), g_y = GlobGeomVar("y()", doc = "hit position y in global coordinates - cm"), g_z = GlobGeomVar("z()", doc = "hit position z in global coordinates - cm") + ) ) from DPGAnalysis.MuonTools.gemSegmentFlatTableProducer_cfi import gemSegmentFlatTableProducer -gemSegmentFlatTableProducer.name = "gemSegment" -gemSegmentFlatTableProducer.src = "gemSegments" -gemSegmentFlatTableProducer.doc = "GEM segment information" +gemSegmentFlatTable = gemSegmentFlatTableProducer.clone( + name = "gemSegment", + src = "gemSegments", + doc = "GEM segment information", -gemSegmentFlatTableProducer.variables = cms.PSet( + variables = cms.PSet( chi2 = Var("chi2()", int, doc = "chi2 from segment fit"), bx = Var("bunchX()", int, doc="bunch crossing number"), posLoc_x = Var("localPosition().x()", float, doc = "position x in local coordinates - cm"), @@ -210,35 +198,36 @@ dirLoc_x = Var("localDirection().x()", float, doc = "direction x in local coordinates"), dirLoc_y = Var("localDirection().y()", float, doc = "direction y in local coordinates"), dirLoc_z = Var("localDirection().z()", float, doc = "direction z in local coordinates"), -) + ), -gemSegmentFlatTableProducer.detIdVariables = cms.PSet( + detIdVariables = cms.PSet( region = DetIdVar("region()", "int16", doc = "GE11 region where the hit is reconstructed" "<br />(int, positive endcap: +1, negative endcap: -1)"), ring = DetIdVar("ring()", "int16", doc = ""), station = DetIdVar("station()", "int16", doc = "GEM station <br />(always 1 for GE1/1)"), chamber = DetIdVar("chamber()", "int16", doc = "GE11 superchamber where the hit is reconstructed" "<br />(chambers numbered from 0 to 35)") -) - -gemSegmentFlatTableProducer.globalPosVariables = cms.PSet( + ), + + globalPosVariables = cms.PSet( posGlb_x = GlobGeomVar("x()", doc = "position x in global coordinates - cm"), posGlb_y = GlobGeomVar("y()", doc = "position y in global coordinates - cm"), posGlb_z = GlobGeomVar("z()", doc = "position z in global coordinates - cm"), posGlb_phi = GlobGeomVar("phi().value()", doc = "position phi in global coordinates - radians [-pi:pi]"), posGlb_eta = GlobGeomVar("eta()", doc = "position eta in global coordinates"), -) + ), -gemSegmentFlatTableProducer.globalDirVariables = cms.PSet( + globalDirVariables = cms.PSet( dirGlb_phi = GlobGeomVar("phi().value()", doc = "direction phi in global coordinates - radians [-pi:pi]"), dirGlb_eta = GlobGeomVar("eta()", doc = "direction eta in global coordinates"), + ) ) -muLocalRecoProducers = cms.Sequence(rpcRecHitFlatTableProducer - + dtrpcPointFlatTableProducer - + cscrpcPointFlatTableProducer - + gemRecHitFlatTableProducer - + dtSegmentFlatTableProducer - + muDTSegmentExtTableProducer - + gemSegmentFlatTableProducer - ) +muLocalRecoTables = cms.Sequence(rpcRecHitFlatTable + + dtrpcPointFlatTable + + cscrpcPointFlatTable + + gemRecHitFlatTable + + dtSegmentFlatTable + + muDTSegmentExtTable + + gemSegmentFlatTable + ) diff --git a/DPGAnalysis/MuonTools/python/nano_mu_reco_cff.py b/DPGAnalysis/MuonTools/python/nano_mu_reco_cff.py index ecae5844bd050..3e876d9687fb9 100644 --- a/DPGAnalysis/MuonTools/python/nano_mu_reco_cff.py +++ b/DPGAnalysis/MuonTools/python/nano_mu_reco_cff.py @@ -7,7 +7,7 @@ from PhysicsTools.PatAlgos.producersLayer1.muonProducer_cfi import * -muonFlatTableProducer = simplePATMuonFlatTableProducer.clone( +muonFlatTable = simplePATMuonFlatTableProducer.clone( src = cms.InputTag("patMuons"), name = cms.string("muon"), doc = cms.string("RECO muon information"), @@ -50,17 +50,22 @@ from DPGAnalysis.MuonTools.muDTMuonExtTableProducer_cfi import muDTMuonExtTableProducer +muDTMuonExtTable = muDTMuonExtTableProducer.clone() + from RecoMuon.TrackingTools.MuonServiceProxy_cff import MuonServiceProxy from DPGAnalysis.MuonTools.muGEMMuonExtTableProducer_cfi import muGEMMuonExtTableProducer -muGEMMuonExtTableProducer.ServiceParameters = MuonServiceProxy.ServiceParameters + +muGEMMuonExtTable = muGEMMuonExtTableProducer.clone() +muGEMMuonExtTable.ServiceParameters = MuonServiceProxy.ServiceParameters from DPGAnalysis.MuonTools.muCSCTnPFlatTableProducer_cfi import muCSCTnPFlatTableProducer -muCSCTnPFlatTableProducer.ServiceParameters = MuonServiceProxy.ServiceParameters +muCSCTnPFlatTable = muCSCTnPFlatTableProducer.clone() +muCSCTnPFlatTable.ServiceParameters = MuonServiceProxy.ServiceParameters -muRecoProducers = cms.Sequence(patMuons - + muonFlatTableProducer - + muDTMuonExtTableProducer - + muGEMMuonExtTableProducer - + muCSCTnPFlatTableProducer - ) +muRecoTables = cms.Sequence(patMuons + + muonFlatTable + + muDTMuonExtTable + + muGEMMuonExtTable + + muCSCTnPFlatTable + )