Ejemplo n.º 1
0
def configureVeloHalfAlignment():
    TAlignment().WriteCondSubDetList += ['Velo']

    # define the alignment elements
    elements = Alignables()
    elements.Velo("None")
    elements.VeloRight("TxTyTzRxRyRz")
    elements.VeloLeft("TxTyTzRxRyRz")
    TAlignment().ElementsToAlign = list(elements)

    # make sure that the velo stays where it was
    TAlignment().Constraints = constraints = []
    constraints.append(
        "VeloHalfAverage : Velo/Velo(Left|Right) : Tx Ty Tz Rx Ry Rz")

    # tweak the survey a little bit to fix the z-scale to survey
    surveyconstraints = SurveyConstraints()
    surveyconstraints.All()
Ejemplo n.º 2
0
def configureMuonAlignment(surveyVer='latest'):
    TAlignment().WriteCondSubDetList += ['Muon']

    # change convergence criteria
    updatetool = Al__AlignUpdateTool("Al::AlignUpdateTool")
    updatetool.MaxDeltaChi2PDofForConvergence = 2
    updatetool.MaxModeDeltaChi2ForConvergence = 10

    # define the alignment elements
    elements = Alignables()

    elements.MuonHalfStations("TxTy")
    TAlignment().ElementsToAlign = list(elements)

    # make sure that the velo stays where it was
    constraints = []
    TAlignment().Constraints = constraints

    if surveyVer == None: return
    # tweak the survey a little bit to fix the z-scale to survey
    surveyconstraints = SurveyConstraints()
    surveyconstraints.All(surveyVer)
    """
Ejemplo n.º 3
0
def configureVeloModuleAlignment():
    '''
    Align Modues only for only the main degrees of freedom Tx Ty Rz
    Constrain two modules in each half
    '''
    TAlignment().WriteCondSubDetList += ['Velo']

    elements = Alignables()
    elements.Velo("None")
    elements.VeloRight("None")
    elements.VeloLeft("None")
    elements.VeloModules("TxTyRz")
    elements.VeloPhiSensors("None")
    elements.VeloRSensors("None")
    TAlignment().ElementsToAlign += list(elements)

    # Constraints
    surveyconstraints = SurveyConstraints()
    surveyconstraints.All()
    constraints = []

    # Fix 2 modules
    constraints.append("VeloFixModule10 : Velo/VeloLeft/Module10: Tx Ty Rz")
    constraints.append("VeloFixModule11 : Velo/VeloRight/Module11: Tx Ty Rz")
    constraints.append("VeloFixModule32 : Velo/VeloLeft/Module32: Tx Ty Rz")
    constraints.append("VeloFixModule33 : Velo/VeloRight/Module33: Tx Ty Rz")

    constraints.append(
        "VeloFixSensors10 : Velo/VeloLeft/Module10/RPhiPair10/.*: Tx Ty Rz")
    constraints.append(
        "VeloFixSensors11 : Velo/VeloRight/Module11/RPhiPair11/.*: Tx Ty Rz")
    constraints.append(
        "VeloFixSensors32 : Velo/VeloLeft/Module32/RPhiPair32/.*: Tx Ty Rz")
    constraints.append(
        "VeloFixSensors33 : Velo/VeloRight/Module33/RPhiPair33/.*: Tx Ty Rz")

    # Constrain average
    # constraints.append("VeloAInternal : Velo/VeloRight/Module..: Tx Ty Rz Szx Szy")
    # constraints.append("VeloCInternal : Velo/VeloLeft/Module..: Tx Ty Rz  Szx Szy")

    TAlignment().Constraints = constraints
Ejemplo n.º 4
0
def configureVeloSensorAlignment():
    TAlignment().WriteCondSubDetList += ['Velo']

    # To align at the sensor level, we align 'modules' and
    #'phi-sensors'. The R-sensor is always equal to the modules. (We
    #keep its 'deltas' equal to zero.) However, because of a feature
    #in the way we keep track of mother-daughter relations, it is
    #important to create alignables for the R-sensors as well: use
    #"None" to specify an alignable without active degrees of
    #freedom.

    # Note also that it doesn't make sense to align R modules for
    # rotations around the z-axis. Rather than aligning the phi sensor
    # for this rotation, we put the rotation at the module level.

    elements = Alignables()
    elements.Velo("None")
    elements.VeloRight("TxTyTzRxRyRz")
    elements.VeloLeft("TxTyTzRxRyRz")
    elements.VeloModules("TxTyTzRxRyRz")
    elements.VeloPhiSensors("TxTy")
    elements.VeloRSensors("None")
    TAlignment().ElementsToAlign += list(elements)

    # make sure that the velo stays where it was. Important note: the
    # dofs here must match the ones that we actually align for. If you
    # specify too many, things will go rather wrong.
    TAlignment().Constraints.append(
        "VeloHalfAverage : Velo/Velo(Left|Right) : Tx Ty Tz Rx Ry Rz")

    # now constrain the total shearing and z-scale in each Velo half
    # to get the z-axis nominal. we'll do this by tightening the
    # survey errors.

    # we need to align the relative twist of the two halves. the
    # C-side (minus X, Right) is known to have a corkscrew ('twist')
    # in the base plate. so, for the right half we don't fix the Rz rotation:
    surveyconstraints = SurveyConstraints()
    surveyconstraints.All()
Escher().PrintFreq = 100
TrackSys().ExpertTracking += ["simplifiedGeometry"]
TrackSys().TrackExtraInfoAlgorithms = ['']
RecSysConf().RecoSequence = [
    "Decoding", "VELO", "TT", "IT", "OT", "Tr", "Vertex", "CALO", "MUON"
]
Escher().MoniSequence = ["Tr", "OT", "ST"]

from Configurables import MagneticFieldSvc
MagneticFieldSvc().OutputLevel = 1

from Configurables import TAlignment
from TAlignment.Alignables import *
from TAlignment.SurveyConstraints import *

elements = Alignables()

elements.Velo("None")
#elements.VeloRight("TxTyTzRxRy")
#elements.VeloLeft("TxTyTzRxRy")
elements.VeloLeft("None")
elements.VeloRight("None")
#elements.VeloModules("TxTyTzRz")
#elements.VeloPhiSensors("TxTy")
#elements.VeloRSensors("None")
#elements.VeloRSensors("None")
#elements.VeloPhiSensors("None")
elements.VeloModules("None")

elements.IT("None")
elements.ITBoxes("TxTyTzRxRyRz")
Ejemplo n.º 6
0
TrackSys().TrackExtraInfoAlgorithms = ['']
#TrackSys().TrackPatRecAlgorithms = ["Velo","Forward","PatSeed","PatMatch","Downstream","VeloTT"]
TrackSys().TrackPatRecAlgorithms = ["Velo", "Forward", "PatSeed", "PatMatch"]
TrackSys().TrackPatRecAlgorithms = ["Velo", "PatSeed", "PatMatch"]
#TrackSys().TrackPatRecAlgorithms = ["Velo","TsaSeed","PatMatch"]
TrackSys().TrackPatRecAlgorithms = ["Velo", "TsaSeed", "Match"]
#RecSysConf().RecoSequence = ["VELO","TT","IT","OT","Tr","Vertex"]
#RecSysConf().RecoSequence = ["VELO","TT","IT","OT","Tr"]
RecSysConf().RecoSequence = ["CALO", "VELO", "TT", "IT", "OT", "Tr", "Vertex"]
Escher().MoniSequence = ["VELO", "Tr", "OT", "ST"]

from Configurables import TAlignment
from TAlignment.Alignables import *
from TAlignment.SurveyConstraints import SurveyConstraints

elements = Alignables()
constraints = []
surveyconstraints = SurveyConstraints()

elements.Velo("Rx")
#elements.Velo("None")
elements.VeloRight("Ry")
#elements.VeloLeft("RxRy")
elements.TT("TxTyTz")
elements.TTBoxes("Tx")
elements.TTHalfLayers("Tx")
#elements.TTHalfModules("Tx")
#elements.IT("TxTy")
#elements.ITLayers("Tx")
#elements.T("Ty")
elements.ITBoxes("TxTyTzRzRy")
Ejemplo n.º 7
0
RecSysConf().RecoSequence = ["TT", "IT", "OT", "Tr"]

# load a special database
#from Configurables import ( CondDB, CondDBAccessSvc )
#otGeom = CondDBAccessSvc( 'OTGeom' )
#otGeom.ConnectionString = 'sqlite_file:/afs/cern.ch/user/j/janos/dbase/OTDDDBCroissant.db/DDDB'
#CondDB().addLayer( otGeom )
#otCond = CondDBAccessSvc( 'OTCond' )
#otCond.ConnectionString = 'sqlite_file:/afs/cern.ch/user/j/janos/dbase/LHCBCOND_changes.db/LHCBCOND'
#CondDB().addLayer( otCond )

# configure the alignment
from Configurables import TAlignment
from TAlignment.Alignables import *
elements = Alignables()
elements.OTCFramesASide("TxTzRz")
elements.OTCFramesCSide("TxTzRz")
constraints = [
    "OT/T1X1C : OT/T1X1UCSide : Tx Ty Tz Rz",
    "OT/T1X1A : OT/T1X1UASide : Tx Ty Tz Rz",
    "OT/T3X2C : OT/T3X1UCSide : Tx Ty Tz Rz",
    "OT/T3X2A : OT/T3X1UASide : Tx Ty Tz Rz"
]
TAlignment().ElementsToAlign = list(elements)
TAlignment().TrackLocation = "Rec/Track/AlignTracks"
TAlignment().Constraints = constraints
TAlignment().WriteCondSubDetList = ['OT']

from Configurables import (PatSeeding, PatSeedingTool)
PatSeeding = PatSeeding("PatSeeding")
Ejemplo n.º 8
0
TrackSys().ExpertTracking += [ "simplifiedGeometry"]
TrackSys().TrackExtraInfoAlgorithms = ['']
RecSysConf().RecoSequence = ["Decoding","VELO","TT","IT","OT","Tr","Vertex"]
Escher().MoniSequence = ["Tr","OT","ST"]

from Configurables import MagneticFieldSvc
MagneticFieldSvc().OutputLevel = 1

from Configurables import TAlignment
from TAlignment.Alignables import *
from TAlignment.SurveyConstraints import *

constraints = []
surveyconstraints = SurveyConstraints()
surveyconstraints.All()
elements = Alignables()

elements.Velo("None")
elements.VeloRight("TxTyTzRxRyRz")
elements.VeloLeft("TxTyTzRxRyRz")
elements.VeloModules("TxTyTzRz")
elements.VeloPhiSensors("TxTy")
elements.VeloRSensors("None")

elements.ITBoxes("TxTyTzRzRyRx")
elements.ITLayers("TxTzRx")
elements.ITLadders("TxRz")
elements.OTCFrames("TxTy")
elements.OTCFrameLayers("Tz")
elements.OTModules("Tx")
elements.TT("TyTz")
Ejemplo n.º 9
0
#surveyconstraints.ITBoxes()
#surveyconstraints.OTCFrames()
surveyconstraints.All()

#elements.OTCFrames("TxTy")
#surveyconstraints.append("/.*?/IT/.*?Layer.{1,2} : Tx : 0.02")
#surveyconstraints.append("/.*?/IT/.*?Layer.{1,2} : Rz : 0.001")

#constraints.append("OTCSide : OT/T3VX2CSide : Tx")
#constraints.append("OTASide : OT/T3VX2ASide : Tx")

# make sure to constrain both q/P and a twist. does this work?

#constraints.append("ITGlobal : T/IT : Tx Ty : total")

elements = Alignables()
constraints = []
#elements += ['/dd/Structure/LHCb/AfterMagnetRegion/T/IT/Station(1|2|3)/(CSide|ASide|Top|Bottom)Box:TxTyTzRz']
#elements += ['/dd/Structure/LHCb/AfterMagnetRegion/T/IT/Station(1|2|3)/(CSide|ASide|Top|Bottom)Box/Layer.{1,2}:TxTz']
elements.Velo("None")
elements.VeloRight("None")
elements.ITBoxes("TxTyTzRzRyRx")
elements.ITLayers("Tx")
elements.ITLadders("TxRz")
elements.OTCFrames("Tx")
elements.OTCFrameLayers("Tz")
elements.OTModules("TxRz")
elements.TT("TxTyTz")
#elements.TTBoxes("Tx")
#elements.TTHalfLayers("Tx")
elements.TTHalfModules("TxRz")
Ejemplo n.º 10
0
def configureVeloAlignment(fixMeanInHalf=True):
    '''
    This should be the default alignment for the Automatic alignment procedure
    Align 2-halves for all degree of freedom and
    Modues only for only the main degrees of freedom Tx Ty Rz
    Constrain the global Velo position and two modules in each half
    '''
    TAlignment().WriteCondSubDetList += ['Velo']

    elements = Alignables()
    elements.Velo("None")
    elements.VeloRight("TxTyTzRxRyRz")
    elements.VeloLeft("TxTyTzRxRyRz")
    elements.VeloModules("TxTyRz")
    elements.VeloPhiSensors("None")
    elements.VeloRSensors("None")
    TAlignment().ElementsToAlign += list(elements)

    # Constraints
    surveyconstraints = SurveyConstraints()
    surveyconstraints.All()
    constraints = []

    surveyconstraints.Constraints += [
        "Velo      : 0 0 0 -0.0001 0 -0.0001 : 0.2 0.2 0.2 0.0001 0.0001 0.001",
        "Velo/Velo(Right|Left) : 0 0 0 0 0 0 : 10 1 0.4 0.01 0.01 0.001"
    ]

    # make sure that the velo stays where it was. Important note: the
    # dofs here must match the ones that we actually align for. If you
    # specify too many, things will go rather wrong.
    constraints.append(
        "VeloHalfAverage  : Velo/Velo(Left|Right) :  Tx Ty Tz Rx Ry Rz")

    if fixMeanInHalf:
        # Constrain average
        constraints.append(
            "VeloAInternal : Velo/VeloRight/Module..: Tx Ty Rz Szx Szy")
        constraints.append(
            "VeloCInternal : Velo/VeloLeft/Module..: Tx Ty Rz  Szx Szy")
    else:
        # Fix 2 modules
        constraints.append(
            "VeloFixModule10 : Velo/VeloLeft/Module10: Tx Ty Rz")
        constraints.append(
            "VeloFixModule11 : Velo/VeloRight/Module11: Tx Ty Rz")
        constraints.append(
            "VeloFixModule32 : Velo/VeloLeft/Module32: Tx Ty Rz")
        constraints.append(
            "VeloFixModule33 : Velo/VeloRight/Module33: Tx Ty Rz")

        constraints.append(
            "VeloFixSensors10 : Velo/VeloLeft/Module10/RPhiPair10/.*: Tx Ty Rz"
        )
        constraints.append(
            "VeloFixSensors11 : Velo/VeloRight/Module11/RPhiPair11/.*: Tx Ty Rz"
        )
        constraints.append(
            "VeloFixSensors32 : Velo/VeloLeft/Module32/RPhiPair32/.*: Tx Ty Rz"
        )
        constraints.append(
            "VeloFixSensors33 : Velo/VeloRight/Module33/RPhiPair33/.*: Tx Ty Rz"
        )

    TAlignment().Constraints = constraints
Ejemplo n.º 11
0
outputlevel = INFO  #DEBUG #INFO
newNNET = True
maskNoise = True  # per eliminare i canali rumorosi
dof = 'TxTy'
#nameCond            = 'Cosmics_MuonOT_TxTy_newNNET_0.05_cutChi2_wouter1' # job 47  (no XTalk)
nameCond = 'prova'
# matching ntuple

MuonMatching = True  #selezione delle tracce con MuonNNet e richiesta di match con OT/Calo
OTMuonMatching = True  #selezione delle tracce con MuonNNet e richiesta di match con OT/Calo
OTMuon_ntuple = False  #True

# configure for half-Stations
from TAlignment.Alignables import *
elements = Alignables()
#elements.Muon('Tx') ;

#elements.MuonHalfStations(dof) ;

elements.MuonHalfStationsCside(dof)
elements.MuonHalfStationsAside(dof)

# Go past this line only when you know what you are doing
############################################################################################################################
## File to setup Alignment

from Configurables import TAlignment, GetElementsToBeAligned
TAlignment().ElementsToAlign = list(elements)
TAlignment().TrackLocation = "Rec/Track/AlignTracks"
TAlignment().Constraints = constraints
Ejemplo n.º 12
0
def configure2012DataAlignment(fixQOverPBias=False, surveyVer='latest'):
    TAlignment().WriteCondSubDetList += ['Velo', 'TT', 'IT', 'OT', 'Muon']

    # define the alignment elements
    elements = Alignables()
    elements.Velo("None")
    elements.VeloRight("None")
    elements.VeloLeft("None")
    elements.IT("None")
    elements.ITBoxes("TxTzRz")
    elements.ITLayers("None")
    elements.OT("None")
    elements.OTCFrames("TxRz")
    elements.OTCFrameLayers("Tz")
    elements.OTModules("TxRz")
    elements.TT("None")
    elements.TTLayers("Tz")
    elements.TTModules("TxRz")
    elements.Tracker("None")
    TAlignment().ElementsToAlign = list(elements)

    # make sure that the velo stays where it was
    TAlignment().Constraints = constraints = []
    constraints.append("VeloHalfAverage : Velo/Velo(Left|Right) : Tx ")
    # fix the q/p scale by not moving T in X. note that you do not
    # want to do this if you use D0 in the alignment
    if fixQOverPBias:
        constraints.append("OT3X : OT/T3X1U.Side : Tx")

    if surveyVer == None: return
    # tweak the survey a little bit to fix the z-scale to survey
    surveyconstraints = SurveyConstraints()
    surveyconstraints.All(surveyVer)
    # make sure we fix the z-scale
    surveyconstraints.XmlUncertainties += [
        "OT/T3X1U : 0.5 0.5 0.00001 0.0001 0.0001 0.0001"
    ]
Ejemplo n.º 13
0
#Escher().DDDBtag   = "default"
#Escher().CondDBtag = "default"
#Escher().Detectors = ["Velo","OT"]
Escher().Kalman = True
Escher().Millepede = False
Escher(
).TrackContainer = "Rec/Track/Best"  # Velo, VeloR, Long, Upstream, Downstream, Ttrack, Muon or Calo
Escher().EvtMax = 100
TrackSys().ExpertTracking += ["kalmanSmoother"]
TrackSys().TrackExtraInfoAlgorithms = ['']
RecSysConf().RecoSequence = ["VELO", "TT", "IT", "OT", "Tr", "Vertex"]

from Configurables import TAlignment
from TAlignment.Alignables import *

elements = Alignables()
elements.VeloLeft("TxTyTzRzRxRy")
constraints = []
#elements.VeloRight("TxTyTzRz")
#constraints = ["Tz","Tx","Ty","Rz"]

print "aligning elements ", elements

TAlignment().ElementsToAlign = list(elements)
TAlignment().TrackLocation = "Rec/Track/AlignTracks"
TAlignment().VertexLocation = "Rec/Vertex/Primary"
TAlignment().Constraints = constraints
TAlignment().WriteCondSubDetList = ['Velo']
#TAlignment().UpdateInFinalize = False

# still set up a track selection
Ejemplo n.º 14
0
hvpseq = GaudiSequencer("VPSeq")
prLHCbID2mc = PrLHCbID2MCParticle()
prPixTr = PrPixelTracking()
prPixStCl = PrPixelStoreClusters()

hvpseq.Members += [prPixStCl, prPixTr, prLHCbID2mc]

from Configurables import TAlignment
from TAlignment.Alignables import *
from TAlignment.TrackSelections import *

from Configurables import AlignAlgorithm
AlignAlgorithm("Alignment").ForcedInitialTime = 1

elements = Alignables()
print dir(elements)
elements.VPModules("TxTyTzRxRyRz")
#elements.VPLeft("TxTy")
#elements.VPRight("TxTyRz")
#constraints = ["Ty","Tx","Rz","Ry","Rx","Szx","Szy","SRz"]
constraints = ["Tx", "Ty", "Tz", "Szx", "Szy"]
#constraints = []
constraints.append(
    "VPFixModule00 : VP/VPLeft/Module00WithSupport: Tx Ty Tz Rx Ry Rz")
constraints.append(
    "VPFixModule01 : VP/VPRight/Module01WithSupport: Tx Ty Tz Rx Ry Rz")
constraints.append(
    "VPFixModule40 : VP/VPLeft/Module40WithSupport: Tx Ty Tz Rx Ry Rz")
constraints.append(
    "VPFixModule41 : VP/VPRight/Module41WithSupport: Tx Ty Tz Rx Ry Rz")
Ejemplo n.º 15
0
import Gaudi
import GaudiKernel.ProcessJobOptions
from Gaudi.Configuration import *
from Configurables import TAlignment
from TAlignment import *
from TAlignment import Alignables

nEvents = 100
nIter = 3
#alignlevel         = 'sensors'
alignlevel = 'halves'
#alignlevel = 'all'
computeVertexCorrelations = False

#elements = Alignables("/dd/Structure/LHCb/BeforeMagnetRegion/Velo/Velo(Right|Left)/Module..", "TxTyTz")
elements = Alignables.Alignables()

if alignlevel == 'sensors':
    elements = elements.VeloRSensors("TxTyRxRy")
    elements = elements.VeloPhiSensors("TxTyRxRyRz")
    #   constraints = ["Tx","Ty","Tz","Szz","Szx","Szy"]
    #   elements.VeloRSensors("Tz")
    #   elements.VeloPhiSensors("Tz")
    constraints = ["Tz", "Ty", "Tx"]
    conddepths = []
    condname = "Detectors.xml"
elif alignlevel == 'halves':
    print "Going for VELO HALVES!"
    #   elements.VeloLeft("TxTyRxRy")
    #   elements.VeloRight("TxTyRxRy")
    #   constraints = ["Tx","Ty","Rx","Ry"]
Ejemplo n.º 16
0
from Gaudi.Configuration import *

uselocalframe = True
chisqconstraints = []  # un numero in corrispondenza di ogni constraint
constraints = []
dof = 'TxTy'

outputlevel = ERROR  #INFO#ERROR# INFO

maskNoise = True  # to mask Noisy Channels
nameCond = 'ResidualsM1'

Write_Ntuple = False  # if True writes an Ntuple for debugging purposes

from TAlignment.Alignables import *
elements = Alignables()
elements.MuonHalfStationsA(dof)
# configure for Muon half-Stations
elements.MuonHalfStationsC(dof)
# configure for Muon half-Stations

data = []
localVetoLIST = [
    "1122.52", "3222.132", "3222.133", "3222.134", "3222.135", "3222.136",
    "3222.137", "3222.138", "3222.139", "3311.4", "3311.5", "3311.6", "3311.8",
    "3311.36", "3311.37", "3311.38", "3311.40", "3332.144", "4332.82",
    "4332.83", "4332.84", "4332.85", "4332.86", "4332.88", "4332.89",
    "4332.90", "4332.92"
]
tileVetoLIST = [
    140518139, 146889741, 146889757, 146889773, 146889789, 146889805,
Ejemplo n.º 17
0
#Escher().CondDBtag = "default"
#Escher().Detectors = ["Velo","OT"]

Escher().InputType = "DIGI"
Escher().Kalman = True
Escher().Millepede = False
Escher().TrackContainer = "Rec/Track/Best" # Velo, VeloR, Long, Upstream, Downstream, Ttrack, Muon or Calo
Escher().EvtMax = 1000
TrackSys().ExpertTracking += [ "kalmanSmoother","simplifiedGeometry" ]
TrackSys().TrackExtraInfoAlgorithms = ['']
RecSysConf().RecoSequence = ["VELO","TT","IT","OT","Tr","Vertex"]

from Configurables import TAlignment
from TAlignment.Alignables import *

elements = Alignables()
#elements.VeloRSensors("TxTy")
#elements.VeloPhiSensors("TxTy")
#elements.VeloModules("TzRxRyRz")
#let's do modules only, for now:
#elements.VeloModules("TxTyTzRxRyRz")
elements.VeloRSensors("TxTyTzRxRy")
elements.VeloPhiSensors("TxTyTzRxRyRz")

constraints = ["Tz","Ty","Tx","Rz","Ry","Rx","Szz","Szx","Szy","SRz"]

print "aligning elements ", elements

TAlignment().ElementsToAlign      = list(elements)
TAlignment().TrackLocation        = "Rec/Track/AlignTracks"
TAlignment().VertexLocation       = "Rec/Vertex/Primary"