def SCT_LorentzAngleCfg(flags,
name="SCT_SiLorentzAngleCondAlg",
forceUseDB=False,
forceUseGeoModel=False,
**kwargs):
"""Return configured ComponentAccumulator and tool for SCT_LorentzAngle
SiLorentzAngleTool may be provided in kwargs
"""
if forceUseDB and forceUseGeoModel:
msg = Logging.logging.getLogger("SCT_LorentzAngleCfg")
msg.error(
"Setting is wrong: both forceUseDB and forceUseGeoModel cannot be True at the same time"
)
# construct with field services
acc = MagneticFieldSvcCfg(flags)
tool = kwargs.get("SiLorentzAngleTool", SCT_LorentzAngleToolCfg(flags))
if not forceUseGeoModel:
DCSkwargs = {}
# For HLT
if flags.Common.isOnline and not flags.Input.isMC:
dcs_folder = "/SCT/HLT/DCS"
DCSkwargs["dbInstance"] = "SCT"
DCSkwargs["hvFolder"] = dcs_folder + "/HV"
DCSkwargs["tempFolder"] = dcs_folder + "/MODTEMP"
DCSkwargs["stateFolder"] = dcs_folder + "/CHANSTAT"
DCSAcc = SCT_DCSConditionsCfg(flags, **DCSkwargs)
SCAcc = SCT_SiliconConditionsCfg(
flags, DCSConditionsTool=DCSAcc.popPrivateTools())
acc.merge(DCSAcc)
acc.merge(SCAcc)
# set up SCTSiLorentzAngleCondAlg
kwargs.setdefault("UseMagFieldCache", tool.UseMagFieldCache)
kwargs.setdefault("UseMagFieldDcs", not flags.Common.isOnline)
kwargs.setdefault("UseGeoModel", forceUseGeoModel)
kwargs.setdefault("useSctDefaults", False)
acc.addCondAlgo(SCTSiLorentzAngleCondAlg(name, **kwargs))
acc.setPrivateTools(tool)
return acc
def ActsExtrapolationToolCfg(configFlags, name="ActsExtrapolationTool"):
result = ComponentAccumulator()
acc = MagneticFieldSvcCfg(configFlags)
result.merge(acc)
acc, actsTrackingGeometryTool = ActsTrackingGeometryToolCfg(configFlags)
result.merge(acc)
Acts_ActsExtrapolationTool = CompFactory.ActsExtrapolationTool
actsExtrapolationTool = Acts_ActsExtrapolationTool(name)
result.addPublicTool(actsExtrapolationTool, primary=True)
return result
def testCfg (configFlags):
result = ComponentAccumulator()
from MuonConfig.MuonGeometryConfig import MuonGeoModelCfg
result.merge (MuonGeoModelCfg(configFlags))
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge (MagneticFieldSvcCfg(configFlags, UseDCS = False))
Muon__MdtRdoToPrepDataTool = CompFactory.Muon.MdtRdoToPrepDataTool
result.addPublicTool (Muon__MdtRdoToPrepDataTool ('Muon__MdtRdoToPrepDataTool', OutputLevel = 1))
result.addEventAlgo (TestAlg ('TestAlg'))
return result
def DQTDetSynchMonAlgConfig(flags):
from AthenaMonitoring import AthMonitorCfgHelper
from AthenaConfiguration.ComponentFactory import CompFactory
helper = AthMonitorCfgHelper(flags, 'DQTDetSynchMonAlgCfg')
_DQTDetSynchMonAlgConfigCore(helper, CompFactory.DQTDetSynchMonAlg,
flags.Common.isOnline, False)
acc = helper.result()
# RPC currently crashes, switch off
acc.getEventAlgo('DQTDetSynchMonAlg').doRPC = False
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
acc.merge(MagneticFieldSvcCfg(flags))
from TileConditions.TileCablingSvcConfig import TileCablingSvcCfg
acc.merge(TileCablingSvcCfg(flags))
return acc
def testCfg(configFlags):
result = ComponentAccumulator()
from MuonConfig.MuonGeometryConfig import MuonGeoModelCfg
result.merge(MuonGeoModelCfg(configFlags))
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge(MagneticFieldSvcCfg(configFlags, UseDCS=False))
MuonStationIntersectSvc = CompFactory.MuonStationIntersectSvc
result.addService(
MuonStationIntersectSvc('MuonStationIntersectSvc', OutputLevel=1))
result.addEventAlgo(TestAlg('TestAlg'))
return result
def testCfg(configFlags):
result = ComponentAccumulator()
from MuonConfig.MuonGeometryConfig import MuonGeoModelCfg
result.merge(MuonGeoModelCfg(configFlags))
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge(MagneticFieldSvcCfg(configFlags, UseDCS=False))
TrigL2MuonSA__MdtDataPreparator = CompFactory.TrigL2MuonSA.MdtDataPreparator
result.addPublicTool(
TrigL2MuonSA__MdtDataPreparator('TrigL2MuonSA::MdtDataPreparator',
OutputLevel=1)) # noqa: ATL900
result.addEventAlgo(TestAlg('TestAlg'))
return result
def MdtBytestreamDecodeCfg(flags, forTrigger=False):
acc = ComponentAccumulator()
# We need the MDT cabling to be setup
from MuonConfig.MuonCablingConfig import MDTCablingConfigCfg
acc.merge(MDTCablingConfigCfg(flags))
# need the MagFieldSvc since MdtRdoToMdtPrepData.MdtRdoToMdtPrepDataTool.MdtCalibrationTool wants to retrieve it
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
acc.merge(MagneticFieldSvcCfg(flags))
# Make sure muon geometry is configured
from MuonConfig.MuonGeometryConfig import MuonGeoModelCfg
acc.merge(MuonGeoModelCfg(flags))
# Setup the MDT ROD decoder
MdtROD_Decoder = CompFactory.MdtROD_Decoder
MDTRodDecoder = MdtROD_Decoder(name="MdtROD_Decoder")
# RAW data provider tool needs ROB data provider service (should be another Config function?)
ROBDataProviderSvc = CompFactory.ROBDataProviderSvc
robDPSvc = ROBDataProviderSvc()
acc.addService(robDPSvc)
# Setup the RAW data provider tool
keyName = flags.Overlay.BkgPrefix + "MDTCSM" if flags.Detector.OverlayMDT else "MDTCSM"
Muon__MDT_RawDataProviderToolMT = CompFactory.Muon.MDT_RawDataProviderToolMT
MuonMdtRawDataProviderTool = Muon__MDT_RawDataProviderToolMT(
name="MDT_RawDataProviderToolMT",
Decoder=MDTRodDecoder,
RdoLocation=keyName)
if forTrigger:
MuonMdtRawDataProviderTool.CsmContainerCacheKey = MuonCacheNames.MdtCsmCache
acc.addPublicTool(
MuonMdtRawDataProviderTool
) # This should be removed, but now defined as PublicTool at MuFastSteering
# Setup the RAW data provider algorithm
Muon__MdtRawDataProvider = CompFactory.Muon.MdtRawDataProvider
MdtRawDataProvider = Muon__MdtRawDataProvider(
name="MdtRawDataProvider", ProviderTool=MuonMdtRawDataProviderTool)
acc.addEventAlgo(MdtRawDataProvider, primary=True)
return acc
def TrackingGeoCfg(inputFlags):
result = ComponentAccumulator()
from AtlasGeoModel.InDetGMConfig import InDetGeometryCfg
result.merge(InDetGeometryCfg(inputFlags))
# Something builds muon stations -- extrapolator?
from MuonConfig.MuonGeometryConfig import MuonGeoModelCfg
result.merge(MuonGeoModelCfg(inputFlags))
from TrkConfig.AtlasTrackingGeometrySvcConfig import TrackingGeometrySvcCfg
result.merge(TrackingGeometrySvcCfg(inputFlags))
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge(MagneticFieldSvcCfg(inputFlags))
return result
def MuonSTEP_PropagatorCfg(flags, name='MuonSTEP_Propagator', **kwargs):
# Really there should be a central configuration for the STEP propagator. FIXME
# In the old ConfigDb this was named MuonStraightLinePropagator (!)
Trk__STEP_Propagator = CompFactory.Trk.STEP_Propagator
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result = ComponentAccumulator()
acc = MagneticFieldSvcCfg(flags)
result.merge(acc)
kwargs.setdefault("Tolerance", 0.00001)
kwargs.setdefault("MaterialEffects", True)
kwargs.setdefault("IncludeBgradients", True)
propagator = Trk__STEP_Propagator(name=name, **kwargs)
result.setPrivateTools(propagator)
return result
def MdtCalibrationToolCfg(flags, **kwargs):
result = MdtCalibrationDbToolCfg(flags, **kwargs)
mdt_calibibration_db_tool = result.getPrimary()
kwargs.setdefault("CalibrationDbTool", mdt_calibibration_db_tool)
kwargs.setdefault("DoSlewingCorrection",
flags.Muon.Calib.correctMdtRtForTimeSlewing)
kwargs.setdefault("DoTemperatureCorrection",
flags.Muon.Calib.applyRtScaling)
kwargs.setdefault("DoWireSagCorrection",
flags.Muon.Calib.correctMdtRtWireSag)
kwargs.setdefault(
"DoTofCorrection",
flags.Beam.Type == 'collisions') # No TOF correction if not collisions
acc = MagneticFieldSvcCfg(flags)
result.merge(acc)
MdtCalibrationTool = CompFactory.MdtCalibrationTool
mdt_calibration_tool = MdtCalibrationTool(**kwargs)
result.setPrivateTools(mdt_calibration_tool)
return result
def TRT_DigitizationBasicToolCfg(flags,
name="TRT_DigitizationBasicTool",
**kwargs):
"""Return ComponentAccumulator with common TRT digitization tool config"""
acc = TRT_GeometryCfg(flags)
acc.merge(MagneticFieldSvcCfg(flags))
PartPropSvc = CompFactory.PartPropSvc
acc.addService(PartPropSvc(InputFile="PDGTABLE.MeV"))
if flags.Detector.Overlay and not flags.Input.isMC:
acc.merge(
addFolders(flags,
"/TRT/Cond/DigVers",
"TRT_OFL",
tag="TRTCondDigVers-Collisions-01",
db="OFLP200"))
# default arguments
kwargs.setdefault("PAI_Tool_Ar", TRT_PAI_Process_ArToolCfg(flags))
kwargs.setdefault("PAI_Tool_Kr", TRT_PAI_Process_KrToolCfg(flags))
kwargs.setdefault("PAI_Tool_Xe", TRT_PAI_Process_XeToolCfg(flags))
kwargs.setdefault("Override_TrtRangeCutProperty",
flags.Digitization.TRTRangeCut)
kwargs.setdefault("RandomSeedOffset", flags.Digitization.RandomSeedOffset)
if not flags.Digitization.DoInnerDetectorNoise:
kwargs.setdefault("Override_noiseInSimhits", 0)
kwargs.setdefault("Override_noiseInUnhitStraws", 0)
if flags.Beam.Type == "cosmics":
kwargs.setdefault("PrintDigSettings", True)
kwargs.setdefault("Override_cosmicFlag", 0)
kwargs.setdefault("Override_doCosmicTimingPit", 1)
kwargs.setdefault("Override_jitterTimeOffset", 0.)
kwargs.setdefault("Override_timeCorrection", 0)
if flags.Digitization.DoXingByXingPileUp:
kwargs.setdefault("FirstXing", TRT_FirstXing())
kwargs.setdefault("LastXing", TRT_LastXing())
TRTDigitizationTool = CompFactory.TRTDigitizationTool
tool = TRTDigitizationTool(name, **kwargs)
acc.setPrivateTools(tool)
return acc
def PrepareStandAloneBTagCfg(inputFlags):
result = ComponentAccumulator()
from AthenaPoolCnvSvc.PoolReadConfig import PoolReadCfg
result.merge(PoolReadCfg(inputFlags))
from TrkConfig.AtlasTrackingGeometrySvcConfig import TrackingGeometrySvcCfg
acc = TrackingGeometrySvcCfg(inputFlags)
result.merge(acc)
from MuonConfig.MuonGeometryConfig import MuonGeoModelCfg
result.merge(MuonGeoModelCfg(inputFlags))
GeometryDBSvc = CompFactory.GeometryDBSvc
result.addService(GeometryDBSvc("InDetGeometryDBSvc"))
from PixelGeoModel.PixelGeoModelConfig import PixelGeometryCfg
result.merge(PixelGeometryCfg(inputFlags))
# get standard config for magnetic field - map and cache
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge(MagneticFieldSvcCfg(inputFlags))
from IOVDbSvc.IOVDbSvcConfig import addFolders, addFoldersSplitOnline
#load folders needed for Run2 ID alignment
result.merge(
addFoldersSplitOnline(inputFlags,
"INDET",
"/Indet/Onl/Align",
"/Indet/Align",
className="AlignableTransformContainer"))
result.merge(addFolders(inputFlags, ['/TRT/Align'], 'TRT_OFL'))
#load folders needed for IBL
result.merge(addFolders(inputFlags, ['/Indet/IBLDist'], 'INDET_OFL'))
return result
def PFCfg(inputFlags, **kwargs):
#This is monolithic for now.
#Once a first complete example runs, this will be split into small modular chunks.
#Some such items may be best placed elsewehere (e.g. put magnetic field setup in magnetic field git folder etc)
result = ComponentAccumulator()
StoreGateSvc = CompFactory.StoreGateSvc
result.addService(StoreGateSvc("DetectorStore"))
#Alias calibrated topoclusters, if they exist already, such that overwrite won't fial
from SGComps.AddressRemappingConfig import InputRenameCfg
result.merge(
InputRenameCfg("xAOD::CaloClusterContainer", "CaloCalTopoClusters",
""))
#Setup up general geometry
from AtlasGeoModel.InDetGMConfig import InDetGeometryCfg
result.merge(InDetGeometryCfg(inputFlags))
#Setup TRT conditions
TRTAlignCondAlg = CompFactory.TRTAlignCondAlg
result.addCondAlgo(
TRTAlignCondAlg(name="TRTAlignCondAlg",
UseDynamicFolders=inputFlags.GeoModel.Align.Dynamic))
#Setup Pixel conditions
PixelAlignCondAlg = CompFactory.PixelAlignCondAlg
result.addCondAlgo(
PixelAlignCondAlg(
name="PixelAlignCondAlg",
UseDynamicAlignFolders=inputFlags.GeoModel.Align.Dynamic))
PixelDetectorElementCondAlg = CompFactory.PixelDetectorElementCondAlg
result.addCondAlgo(
PixelDetectorElementCondAlg(name="PixelDetectorElementCondAlg"))
#Setup SCT conditions
SCT_AlignCondAlg = CompFactory.SCT_AlignCondAlg
result.addCondAlgo(
SCT_AlignCondAlg(
name="SCT_AlignCondAlg",
UseDynamicAlignFolders=inputFlags.GeoModel.Align.Dynamic))
SCT_DetectorElementCondAlg = CompFactory.SCT_DetectorElementCondAlg
result.addCondAlgo(
SCT_DetectorElementCondAlg(name="SCT_DetectorElementCondAlg"))
GeometryDBSvc = CompFactory.GeometryDBSvc
result.addService(GeometryDBSvc("InDetGeometryDBSvc"))
#from AthenaCommon import CfgGetter
#result.getService("GeoModelSvc").DetectorTools += [ CfgGetter.getPrivateTool("PixelDetectorTool", checkType=True) ]
#result.getService("GeoModelSvc").DetectorTools += [ CfgGetter.getPrivateTool("SCT_DetectorTool", checkType=True) ]
#Setup TRT geometry
TRT_DetectorTool = CompFactory.TRT_DetectorTool
trtDetectorTool = TRT_DetectorTool()
#These two lines fix ATLASRECTS-5053. I expect eventually we can remove them, once the underlying issue is fixed.
trtDetectorTool.DoXenonArgonMixture = False
trtDetectorTool.DoKryptonMixture = False
result.getService("GeoModelSvc").DetectorTools += [trtDetectorTool]
#Setup up material for inner detector
InDetServMatTool = CompFactory.InDetServMatTool
result.getService("GeoModelSvc").DetectorTools += [InDetServMatTool()]
#Setup up tracking geometry
from TrkConfig.AtlasTrackingGeometrySvcConfig import TrackingGeometrySvcCfg
acc = TrackingGeometrySvcCfg(inputFlags)
result.merge(acc)
#load folders needed for Run2 ID alignment
from IOVDbSvc.IOVDbSvcConfig import addFolders
result.merge(addFolders(inputFlags, ['/TRT/Align'], 'TRT_OFL'))
#Setup up muon geometry
from MuonConfig.MuonGeometryConfig import MuonGeoModelCfg
result.merge(MuonGeoModelCfg(inputFlags))
#setup magnetic field service
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge(MagneticFieldSvcCfg(inputFlags))
#hard-code MC conditions tag needed for my ESD file - must be a better way? how to auto-configure?
iovDbSvc = result.getService("IOVDbSvc")
iovDbSvc.GlobalTag = "OFLCOND-MC16-SDR-20"
#Configure topocluster algorithmsm, and associated conditions
from CaloRec.CaloTopoClusterConfig import CaloTopoClusterCfg
result.merge(CaloTopoClusterCfg(inputFlags, doLCCalib=True))
from CaloRec.CaloTopoClusterConfig import caloTopoCoolFolderCfg
result.merge(caloTopoCoolFolderCfg(inputFlags))
from CaloTools.CaloNoiseCondAlgConfig import CaloNoiseCondAlgCfg
result.merge(CaloNoiseCondAlgCfg(inputFlags, "totalNoise"))
result.merge(CaloNoiseCondAlgCfg(inputFlags, "electronicNoise"))
#Cache the track extrapolations
from TrackToCalo.CaloExtensionBuilderAlgCfg import getCaloExtenstionBuilderAlgorithm
result.addEventAlgo(getCaloExtenstionBuilderAlgorithm(inputFlags))
#Configure the pflow algorithms
PFLeptonSelector = CompFactory.PFLeptonSelector
result.addEventAlgo(PFLeptonSelector("PFLeptonSelector"))
from eflowRec.PFCfg import getPFTrackSelectorAlgorithm
result.addEventAlgo(
getPFTrackSelectorAlgorithm(inputFlags, "PFTrackSelector"))
result.addEventAlgo(getOfflinePFAlgorithm(inputFlags))
from eflowRec.PFCfg import getChargedPFOCreatorAlgorithm, getNeutralPFOCreatorAlgorithm
result.addEventAlgo(getChargedPFOCreatorAlgorithm(inputFlags, ""))
result.addEventAlgo(getNeutralPFOCreatorAlgorithm(inputFlags, ""))
return result
# Copyright (C) 2002-2020 CERN for the benefit of the ATLAS collaboration
from AthenaCommon import Logging
from AthenaConfiguration.ComponentAccumulator import ComponentAccumulator
from AthenaConfiguration.ComponentFactory import CompFactory
if __name__=="__main__":
# Setting needed for the ComponentAccumulator to do its thing
from AthenaCommon.Configurable import Configurable
Configurable.configurableRun3Behavior=True
# Set message levels
from AthenaCommon import Constants
msgLvl = "WARNING"
from AthenaCommon.Logging import log
log.setLevel(msgLvl)
# Config flags steer the job at various levels
from AthenaConfiguration.AllConfigFlags import ConfigFlags
ConfigFlags.Input.isMC = True
ConfigFlags.Input.Files = ["/cvmfs/atlas-nightlies.cern.ch/repo/data/data-art/ASG/mc16_13TeV.410501.PowhegPythia8EvtGen_A14_ttbar_hdamp258p75_nonallhad.merge.AOD.e5458_s3126_r9364_r9315/AOD.11182705._000001.pool.root.1"]
# Flags relating to multithreaded execution
nthreads=0
ConfigFlags.Concurrency.NumThreads =nthreads
if nthreads>0:
ConfigFlags.Concurrency.NumThreads = 1
ConfigFlags.Concurrency.NumConcurrentEvents = 1
ConfigFlags.MET.UseTracks = True
ConfigFlags.MET.DoPFlow = True
if ConfigFlags.Beam.Type == 'cosmics' or ConfigFlags.Beam.Type == 'singlebeam':# used to have " or not rec.doInDet()" on the end
def AtlasExtrapolatorCfg(flags, name='AtlasExtrapolator'):
result = ComponentAccumulator()
acc = MagneticFieldSvcCfg(flags)
result.merge(acc)
# get the correct TrackingGeometry setup
from TrkConfig.AtlasTrackingGeometrySvcConfig import TrackingGeometrySvcCfg
acc = TrackingGeometrySvcCfg(flags)
geom_svc = acc.getPrimary()
result.merge(acc)
# PROPAGATOR DEFAULTS --------------------------------------------------------------------------------------
AtlasPropagators = []
RkPropagator = CompFactory.Trk.RungeKuttaPropagator
AtlasRungeKuttaPropagator = RkPropagator(name='AtlasRungeKuttaPropagator')
result.addPublicTool(AtlasRungeKuttaPropagator) #TODO remove one day
AtlasPropagators += [AtlasRungeKuttaPropagator]
STEP_Propagator = CompFactory.Trk.STEP_Propagator
AtlasSTEP_Propagator = STEP_Propagator(name='AtlasSTEP_Propagator')
result.addPublicTool(AtlasSTEP_Propagator) #TODO remove one day
AtlasPropagators += [AtlasSTEP_Propagator]
# UPDATOR DEFAULTS -----------------------------------------------------------------------------------------
AtlasUpdators = []
MaterialEffectsUpdator = CompFactory.Trk.MaterialEffectsUpdator
AtlasMaterialEffectsUpdator = MaterialEffectsUpdator(
name='AtlasMaterialEffectsUpdator')
result.addPublicTool(AtlasMaterialEffectsUpdator) #TODO remove one day
AtlasUpdators += [AtlasMaterialEffectsUpdator]
AtlasMaterialEffectsUpdatorLandau = MaterialEffectsUpdator(
name='AtlasMaterialEffectsUpdatorLandau')
AtlasMaterialEffectsUpdatorLandau.LandauMode = True
result.addPublicTool(
AtlasMaterialEffectsUpdatorLandau) #TODO remove one day
AtlasUpdators += [AtlasMaterialEffectsUpdatorLandau]
# the UNIQUE NAVIGATOR ( === UNIQUE GEOMETRY) --------------------------------------------------------------
Trk__Navigator = CompFactory.Trk.Navigator
AtlasNavigator = Trk__Navigator(name='AtlasNavigator')
AtlasNavigator.TrackingGeometrySvc = geom_svc
result.addPublicTool(AtlasNavigator) #TODO remove one day
# CONFIGURE PROPAGATORS/UPDATORS ACCORDING TO GEOMETRY SIGNATURE
AtlasSubPropagators = []
AtlasSubUpdators = []
# -------------------- set it depending on the geometry ----------------------------------------------------
# default for Global is (Rk,Mat)
AtlasSubPropagators += [AtlasRungeKuttaPropagator.name]
AtlasSubUpdators += [AtlasMaterialEffectsUpdator.name]
# default for ID is (Rk,Mat)
AtlasSubPropagators += [AtlasRungeKuttaPropagator.name]
AtlasSubUpdators += [AtlasMaterialEffectsUpdator.name]
# default for BeamPipe is (STEP,Mat)
AtlasSubPropagators += [AtlasSTEP_Propagator.name]
AtlasSubUpdators += [AtlasMaterialEffectsUpdator.name]
# default for Calo is (STEP,Mat)
AtlasSubPropagators += [AtlasSTEP_Propagator.name]
AtlasSubUpdators += [AtlasMaterialEffectsUpdator.name]
# default for MS is (STEP,Mat)
AtlasSubPropagators += [AtlasSTEP_Propagator.name]
AtlasSubUpdators += [AtlasMaterialEffectsUpdator.name]
# default for Cavern is (Rk,Mat)
AtlasSubPropagators += [AtlasRungeKuttaPropagator.name]
AtlasSubUpdators += [AtlasMaterialEffectsUpdator.name]
# ----------------------------------------------------------------------------------------------------------
# call the base class constructor
Extrapolator = Trk__Extrapolator(name,\
Navigator = AtlasNavigator,\
MaterialEffectsUpdators = AtlasUpdators,\
Propagators = AtlasPropagators,\
SubPropagators = AtlasSubPropagators,\
SubMEUpdators = AtlasSubUpdators
)
result.setPrivateTools(Extrapolator)
return result
def MooTrackBuilderCfg(flags, name="MooTrackBuilderTemplate", **kwargs):
Muon__MooTrackBuilder = CompFactory.Muon.MooTrackBuilder
Trk__STEP_Propagator = CompFactory.Trk.STEP_Propagator
from MuonConfig.MuonRIO_OnTrackCreatorConfig import MdtDriftCircleOnTrackCreatorCfg, TriggerChamberClusterOnTrackCreatorCfg
from MuonConfig.MuonRecToolsConfig import MuonTrackToSegmentToolCfg
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
# Based on this: https://gitlab.cern.ch/atlas/athena/blob/release/22.0.3/MuonSpectrometer/MuonReconstruction/MuonRecExample/python/MooreTools.py#L221
# ignoring all the name_prefix stuff for the moment, since I'm not sure it's necessary any more.
result = MooTrackFitterCfg(flags)
moo_track_fitter = result.getPrimary()
result.addPublicTool(moo_track_fitter)
kwargs.setdefault("Fitter", moo_track_fitter)
# Now setup SL fitter (MooSLTrackFitter as defined here:
# https://gitlab.cern.ch/atlas/athena/blob/release/22.0.3/MuonSpectrometer/MuonReconstruction/MuonRecExample/python/MuonRecExampleConfigDb.py#L203)
acc = MCTBFitterCfg(flags, name='MCTBSLFitter', StraightLine=True)
mctbslfitter = acc.getPrimary()
result.addPublicTool(mctbslfitter)
result.merge(acc)
# Just take the default configuration, as per https://gitlab.cern.ch/atlas/athena/blob/release/22.0.3/MuonSpectrometer/MuonReconstruction/MuonRecExample/python/MuonRecExampleConfigDb.py#L56
# FIXME - this should be updated once there is a proper CA implementation for the STEP_Propagator
prop = Trk__STEP_Propagator(name='MuonStraightLinePropagator')
result.addPublicTool(prop)
# TODO - check why Fitter and FitterPreFit are identical
acc = MooTrackFitterCfg(flags,
name="MooSLTrackFitter",
Fitter=mctbslfitter,
FitterPreFit=mctbslfitter,
Propagator=prop,
ReducedChi2Cut=10.0,
SLFit=True)
moo_sl_track_fitter = acc.getPrimary()
result.addPublicTool(moo_sl_track_fitter)
result.merge(acc)
kwargs.setdefault("SLFitter", moo_sl_track_fitter)
kwargs.setdefault(
"RecalibrateMDTHitsOnTrack",
((not flags.Muon.doSegmentT0Fit) and flags.Beam.Type == 'collisions'))
acc = MuonSeededSegmentFinderCfg(flags)
muon_seeded_segment_finder = acc.getPrimary()
result.addPublicTool(muon_seeded_segment_finder)
result.merge(acc)
kwargs.setdefault("SeededSegmentFinder", muon_seeded_segment_finder)
acc = MdtDriftCircleOnTrackCreatorCfg(flags)
mdt_dcot_creator = acc.getPrimary()
kwargs.setdefault("MdtRotCreator", mdt_dcot_creator)
result.merge(acc)
acc = TriggerChamberClusterOnTrackCreatorCfg(flags)
muon_comp_cluster_creator = acc.getPrimary()
kwargs.setdefault("CompetingClustersCreator", muon_comp_cluster_creator)
result.merge(acc)
acc = MuonSTEP_PropagatorCfg(flags)
muon_prop = acc.getPrimary()
kwargs.setdefault("Propagator", muon_prop)
result.merge(acc)
acc = MuonChamberHoleRecoveryToolCfg(flags)
hole_recovery_tool = acc.getPrimary()
result.addPublicTool(hole_recovery_tool)
result.merge(acc)
kwargs.setdefault("HitRecoveryTool", hole_recovery_tool)
kwargs.setdefault("ChamberHoleRecoveryTool",
hole_recovery_tool) # FIXME? Remove duplicate from cxx?
acc = MagneticFieldSvcCfg(flags)
result.merge(acc)
acc = MuonTrackToSegmentToolCfg(flags)
track_to_segment_tool = acc.getPrimary()
kwargs.setdefault("TrackToSegmentTool", track_to_segment_tool)
result.merge(acc)
kwargs.setdefault("Printer", MuonEDMPrinterTool(flags))
# FIXME - remove ErrorOptimisationTool from cxx?
# declareProperty("ErrorOptimisationTool","" );
acc = MuPatCandidateToolCfg(flags)
cand_tool = acc.getPrimary()
result.merge(acc)
kwargs.setdefault("CandidateTool", cand_tool)
acc = MooCandidateMatchingToolCfg(flags)
track_segment_matching_tool = acc.getPrimary()
result.merge(acc)
kwargs.setdefault("CandidateMatchingTool", track_segment_matching_tool)
from MuonConfig.MuonRecToolsConfig import MuonTrackSummaryToolCfg
acc = MuonTrackSummaryToolCfg(flags)
track_summary = acc.getPrimary()
result.merge(acc)
kwargs.setdefault("TrackSummaryTool", track_summary)
builder = Muon__MooTrackBuilder(name, **kwargs)
result.setPrivateTools(builder)
return result
def TrackSummaryToolWorkaround(flags):
from AthenaConfiguration.ComponentFactory import CompFactory
from AthenaConfiguration.ComponentAccumulator import ComponentAccumulator
result = ComponentAccumulator()
############################## WORKAROUND (START) ##########################
############################## TO RUN TRACKSUMMARYTOOL #####################
# Taken from InnerDetector/InDetDigitization/PixelDigitization/python/PixelDigitizationConfigNew.py
from PixelConditionsAlgorithms.PixelConditionsConfig import PixelConfigCondAlgCfg
result.merge(
PixelConfigCondAlgCfg(flags,
UseCalibConditions=True,
UseDeadmapConditions=True,
UseDCSStateConditions=False,
UseDCSStatusConditions=False,
UseDCSHVConditions=True,
UseDCSTemperatureConditions=True,
UseTDAQConditions=False))
from PixelConditionsTools.PixelConditionsSummaryConfig import PixelConditionsSummaryCfg
InDetPixelConditionsSummaryTool = result.popToolsAndMerge(
PixelConditionsSummaryCfg(flags))
# Taken from Tracking/TrkConfig/python/AtlasExtrapolatorConfig.py
# AtlasExtrapolatorConfig can give only private extrapolator. We need public extrapolator.
from TrkConfig.AtlasTrackingGeometrySvcConfig import TrackingGeometrySvcCfg
trackGeomCfg = TrackingGeometrySvcCfg(flags)
geom_svc = trackGeomCfg.getPrimary()
geom_svc.GeometryBuilder.Compactify = False ######## To avoid crash ########
result.merge(trackGeomCfg)
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge(MagneticFieldSvcCfg(flags))
AtlasNavigator = CompFactory.Trk.Navigator(name='AtlasNavigator')
AtlasNavigator.TrackingGeometrySvc = geom_svc
result.addPublicTool(AtlasNavigator)
# Taken from InnerDetector/InDetExample/InDetRecExample/share/InDetRecLoadTools.py
InDetPropagator = CompFactory.Trk.RungeKuttaPropagator(
name='InDetPropagator')
InDetPropagator.AccuracyParameter = 0.0001
InDetPropagator.MaxStraightLineStep = .004
result.addPublicTool(InDetPropagator)
InDetMaterialUpdator = CompFactory.Trk.MaterialEffectsUpdator(
name="InDetMaterialEffectsUpdator")
result.addPublicTool(InDetMaterialUpdator)
InDetSubPropagators = []
InDetSubUpdators = []
# -------------------- set it depending on the geometry ----------------------------------------------------
# default for ID is (Rk,Mat)
InDetSubPropagators += [InDetPropagator.name]
InDetSubUpdators += [InDetMaterialUpdator.name]
# default for Calo is (Rk,MatLandau)
InDetSubPropagators += [InDetPropagator.name]
InDetSubUpdators += [InDetMaterialUpdator.name]
# default for MS is (STEP,Mat)
#InDetSubPropagators += [ InDetStepPropagator.name ]
InDetSubUpdators += [InDetMaterialUpdator.name]
#from TrkExTools.TrkExToolsConf import Trk__Extrapolator
InDetExtrapolator = CompFactory.Trk.Extrapolator(
name='InDetExtrapolator',
Propagators=[InDetPropagator],
MaterialEffectsUpdators=[InDetMaterialUpdator],
Navigator=AtlasNavigator,
SubPropagators=InDetSubPropagators,
SubMEUpdators=InDetSubUpdators)
result.addPublicTool(InDetExtrapolator)
InDetTestPixelLayerTool = CompFactory.InDet.InDetTestPixelLayerTool(
name="InDetTestPixelLayerTool",
PixelSummaryTool=InDetPixelConditionsSummaryTool,
CheckActiveAreas=True,
CheckDeadRegions=True,
CheckDisabledFEs=True)
result.addPublicTool(InDetTestPixelLayerTool)
InDetBoundaryCheckTool = CompFactory.InDet.InDetBoundaryCheckTool(
name="InDetBoundaryCheckTool",
UsePixel=flags.Detector.GeometryPixel,
UseSCT=flags.Detector.GeometrySCT,
PixelLayerTool=InDetTestPixelLayerTool)
result.addPublicTool(InDetBoundaryCheckTool)
InDetHoleSearchTool = CompFactory.InDet.InDetTrackHoleSearchTool(
name="InDetHoleSearchTool",
Extrapolator=InDetExtrapolator,
CountDeadModulesAfterLastHit=True,
BoundaryCheckTool=InDetBoundaryCheckTool)
result.addPublicTool(InDetHoleSearchTool)
InDetPrdAssociationTool = CompFactory.InDet.InDetPRD_AssociationToolGangedPixels(
name="InDetPrdAssociationTool",
PixelClusterAmbiguitiesMapName="PixelClusterAmbiguitiesMap",
SetupCorrect=True,
addTRToutliers=True)
result.addPublicTool(InDetPrdAssociationTool)
InDetTrackSummaryHelperTool = CompFactory.InDet.InDetTrackSummaryHelperTool(
name="InDetSummaryHelper",
AssoTool=InDetPrdAssociationTool,
PixelToTPIDTool=None,
TestBLayerTool=None,
RunningTIDE_Ambi=True,
DoSharedHits=False,
HoleSearch=InDetHoleSearchTool,
usePixel=flags.Detector.GeometryPixel,
useSCT=flags.Detector.GeometrySCT,
useTRT=flags.Detector.GeometryTRT)
InDetTrackSummaryTool = CompFactory.Trk.TrackSummaryTool(
name="InDetTrackSummaryTool",
InDetSummaryHelperTool=InDetTrackSummaryHelperTool,
doSharedHits=False,
doHolesInDet=True,
TRT_ElectronPidTool=None,
TRT_ToT_dEdxTool=None,
PixelToTPIDTool=None)
result.setPrivateTools(InDetTrackSummaryTool)
############################## WORKAROUND (END) ############################
# To run job only with ID
if hasattr(flags, "Detector") and hasattr(
flags.Detector, "GeometryMuon") and hasattr(
flags.Detector, "GeometryID"):
TrkEventCnvSuperTool = CompFactory.Trk.EventCnvSuperTool(
name="EventCnvSuperTool",
DoMuons=flags.Detector.GeometryMuon,
DoID=flags.Detector.GeometryID)
result.addPublicTool(TrkEventCnvSuperTool)
return result
def PixelLorentzAngleCfg(flags, name="PixelSiLorentzAngleCondAlg", **kwargs):
"""Return configured ComponentAccumulator and tool for PixelLorentzAngle
SiLorentzAngleTool may be provided in kwargs
"""
acc = MagneticFieldSvcCfg(flags)
tool = kwargs.get("SiLorentzAngleTool", PixelLorentzAngleTool(flags))
acc.merge(PixelDCSCondHVAlgCfg(flags))
acc.merge(PixelDCSCondTempAlgCfg(flags))
acc.merge(PixelDCSCondStateAlgCfg(flags))
acc.merge(PixelDCSCondStatusAlgCfg(flags))
SiPropAcc = PixelSiPropertiesCfg(flags)
kwargs.setdefault("SiPropertiesTool", SiPropAcc.popPrivateTools())
acc.merge(SiPropAcc)
kwargs.setdefault("UseMagFieldCache", tool.UseMagFieldCache)
kwargs.setdefault("UseMagFieldDcs", not flags.Common.isOnline)
acc.addCondAlgo(PixelSiLorentzAngleCondAlg(name, **kwargs))
acc.setPrivateTools(tool)
return acc
def SCTHitEffMonAlgConfig(inputFlags):
'''Function to configures some algorithms in the monitoring system.'''
### STEP 1 ###
# Define one top-level monitoring algorithm. The new configuration
# framework uses a component accumulator.
from AthenaConfiguration.ComponentAccumulator import ComponentAccumulator
result = ComponentAccumulator()
# The following class will make a sequence, configure algorithms, and link
# them to GenericMonitoringTools
from AthenaMonitoring import AthMonitorCfgHelper
helper = AthMonitorCfgHelper(inputFlags, 'SCTHitEffMonCfg')
### STEP 2 ###
# Adding an algorithm to the helper. Here, we will use the example
# algorithm in the AthenaMonitoring package. Just pass the type to the
# helper. Then, the helper will instantiate an instance and set up the
# base class configuration following the inputFlags. The returned object
# is the algorithm.
from AthenaConfiguration.ComponentFactory import CompFactory
myMonAlg = helper.addAlgorithm(CompFactory.SCTHitEffMonAlg,
'SCTHitEffMonAlg')
# # If for some really obscure reason you need to instantiate an algorithm
# # yourself, the AddAlgorithm method will still configure the base
# # properties and add the algorithm to the monitoring sequence.
# helper.AddAlgorithm(myExistingAlg)
### STEP 3 ###
# Edit properties of a algorithm
myMonAlg.TriggerChain = ''
from LumiBlockComps.BunchCrossingCondAlgConfig import BunchCrossingCondAlgCfg
result.merge(BunchCrossingCondAlgCfg(inputFlags))
from MagFieldServices.MagFieldServicesConfig import MagneticFieldSvcCfg
result.merge(MagneticFieldSvcCfg(inputFlags))
### STEP 4 ###
# Add some tools. N.B. Do not use your own trigger decion tool. Use the
# standard one that is included with AthMonitorAlgorithm.
# set up geometry / conditions
from AtlasGeoModel.InDetGMConfig import InDetGeometryCfg
result.merge(InDetGeometryCfg(inputFlags))
# Add a generic monitoring tool (a "group" in old language). The returned
# object here is the standard GenericMonitoringTool.
from ROOT import SCT_Monitoring as sctMon
myMonGroup = [
helper.addGroup(myMonAlg, "SCTHitEffMonitorEC", "SCT/SCTEC/"),
helper.addGroup(myMonAlg, "SCTHitEffMonitorB", "SCT/SCTB/"),
helper.addGroup(myMonAlg, "SCTHitEffMonitorEA", "SCT/SCTEA/"),
helper.addGroup(myMonAlg, "SCTHitEffMonitor", "SCT/GENERAL/")
]
### STEP 5 ###
# Configure histograms
# Conversion of ROOT.vector of ROOT.TString to list of str
subDetName = []
for i in range(len(sctMon.subDetName)):
subDetName.append(sctMon.subDetName[i].Data())
mapName = ["m_eff_", "eff_", "p_eff_"]
ineffmapName = ["ineffm_", "ineff_", "ineffp_"]
sumEff = ["summaryeffm", "summaryeff", "summaryeffp"]
sumEffTitle = [
"Summary Module Efficiency in Endcap C",
"Summary Module Efficiency in Barrel",
"Summary Module Efficiency in Endcap A"
]
limit = [sctMon.N_DISKS * 2, sctMon.N_BARRELS * 2, sctMon.N_DISKS * 2]
# GENERAL
myMonGroup[sctMon.GENERAL_INDEX].defineHistogram(
varname="isub, eff;" + "SctTotalEff",
type="TProfile",
title="SCT Total Efficiency",
path="eff",
xbins=sctMon.N_REGIONS,
xmin=0.,
xmax=sctMon.N_REGIONS,
xlabels=subDetName)
myMonGroup[sctMon.GENERAL_INDEX].defineHistogram(
varname="isub, eff;" + "SctTotalEffBCID",
type="TProfile",
title="SCT Total Efficiency for First BCID",
path="eff",
xbins=sctMon.N_REGIONS,
xmin=0.,
xmax=sctMon.N_REGIONS,
xlabels=subDetName,
cutmask="isFirstBCID")
myMonGroup[sctMon.GENERAL_INDEX].defineHistogram(
varname="sideHash, eff;" + "effHashCode",
type="TProfile",
title="Efficiency vs module Hash code" +
";Module Hash Code;Efficiency",
path="eff",
xbins=sctMon.n_mod[sctMon.GENERAL_INDEX] * 2,
xmin=-0.5,
xmax=sctMon.n_mod[sctMon.GENERAL_INDEX] * 2 - 0.5)
myMonGroup[sctMon.GENERAL_INDEX].defineHistogram(
varname="LumiBlock, eff;" + "effLumiBlock",
type="TProfile",
title="Efficiency vs Luminosity block" + ";;Efficiency",
path="eff",
xbins=sctMon.NBINS_LBs,
xmin=0.5,
xmax=sctMon.NBINS_LBs + 0.5)
### This histogram should be filled by post processing ###
# myMonGroup[sctMon.GENERAL_INDEX].defineHistogram(varname= "eff;" + "SctEffDistribution",
# type= "TH1F",
# title= "SCT Efficiency Distribution"+";Efficiency;Links",
# path="eff",
# xbins= 500,
# xmin=0.,
# xmax=1.)
# SCTEC, SCTB, SCTEA
for isub in range(sctMon.N_REGIONS):
profileLabels = range(limit[isub])
for k in range(limit[isub]):
profileLabels[k] = dedicatedTitle(k, isub)
# Efficiency
myMonGroup[isub].defineHistogram(
varname="layerPlusHalfSide, eff;" + sumEff[isub],
type="TProfile",
title=sumEffTitle[isub] + ";;Efficiency",
path="eff",
xbins=2 * sctMon.n_layers[isub],
xmin=0.,
xmax=sctMon.n_layers[isub],
xlabels=profileLabels)
# Efficiency for first BCIDs
myMonGroup[isub].defineHistogram(
varname="layerPlusHalfSide, eff;" + sumEff[isub] + "BCID",
type="TProfile",
title=sumEffTitle[isub] + " for First BC" + ";;Efficiency",
path="eff",
xbins=2 * sctMon.n_layers[isub],
xmin=0.,
xmax=sctMon.n_layers[isub],
xlabels=profileLabels,
cutmask="isFirstBCID")
# Efficiency as a function of LB
myMonGroup[isub].defineHistogram(
varname="LumiBlock, eff;" +
"effLumiBlock", #different names for fill
type="TProfile",
title="Efficiency vs Luminosity block in " +
sctMon.subDetName[isub] + ";Luminosity block" + ";Efficiency",
path="eff",
xbins=sctMon.NBINS_LBs,
xmin=0.5,
xmax=sctMon.NBINS_LBs + 0.5)
# Disks for SCTEC and SCTEA and layers for SCTB
for layer_disk in range(sctMon.n_layers[isub]):
for side in range(2):
etaPhiSuffix = "_" + str(layer_disk) + "_" + str(side)
effName = mapName[isub] + str(layer_disk) + "_" + str(side)
ineffName = ineffmapName[isub] + str(layer_disk) + "_" + str(
side)
# Efficiency
myMonGroup[isub].defineHistogram(
varname="ieta" + etaPhiSuffix + ",iphi" + etaPhiSuffix +
",eff;" + effName,
type="TProfile2D",
title="Hit efficiency of" + sctMon.layerName[isub].Data() +
str(layer_disk) + " / side " + str(side) + " in " +
subDetName[isub] +
";Index in the direction of #eta;Index in the direction of #phi",
path="eff",
xbins=sctMon.n_etabins[isub],
xmin=sctMon.f_etabin[isub] - .5,
xmax=sctMon.l_etabin[isub] + .5,
ybins=sctMon.n_phibins[isub],
ymin=sctMon.f_phibin[isub] - .5,
ymax=sctMon.l_phibin[isub] + .5)
# Efficiency for first BCIDs
myMonGroup[isub].defineHistogram(
varname="ieta" + etaPhiSuffix + ",iphi" + etaPhiSuffix +
",eff;" + effName + "_bcid",
type="TProfile2D",
title="Hit efficiency of" + sctMon.layerName[isub].Data() +
str(layer_disk) + " / side " + str(side) + " in " +
subDetName[isub] + " for first BCID" +
";Index in the direction of #eta;Index in the direction of #phi",
path="eff",
xbins=sctMon.n_etabins[isub],
xmin=sctMon.f_etabin[isub] - .5,
xmax=sctMon.l_etabin[isub] + .5,
ybins=sctMon.n_phibins[isub],
ymin=sctMon.f_phibin[isub] - .5,
ymax=sctMon.l_phibin[isub] + .5,
cutmask="isFirstBCID")
# Inefficiency
myMonGroup[isub].defineHistogram(
varname="ieta" + etaPhiSuffix + ",iphi" + etaPhiSuffix +
",ineff;" + ineffName,
type="TProfile2D",
title="Hit inefficiency of" +
sctMon.layerName[isub].Data() + str(layer_disk) +
" / side " + str(side) + " in " + subDetName[isub] +
";Index in the direction of #eta;Index in the direction of #phi",
path="eff",
xbins=sctMon.n_etabins[isub],
xmin=sctMon.f_etabin[isub] - .5,
xmax=sctMon.l_etabin[isub] + .5,
ybins=sctMon.n_phibins[isub],
ymin=sctMon.f_phibin[isub] - .5,
ymax=sctMon.l_phibin[isub] + .5)
# Merge with result object and return
result.merge(helper.result())
return result
