DAQ_monitoring.Time_evolution Class Reference

Inheritance diagram for DAQ_monitoring.Time_evolution:

Collaboration diagram for DAQ_monitoring.Time_evolution:

Public Member Functions
	Init (self, options, monitor)
	ExecuteEvent (self, event)
	Plot (self)

Public Attributes
	M
	fsdict
	gtime
	QDCtime
	offsets
	xing
	board0
	boardsVsTime
	Nevent
	Tprev

Detailed Description

Definition at line 67 of file DAQ_monitoring.py.

Member Function Documentation

ExecuteEvent()

DAQ_monitoring.Time_evolution.ExecuteEvent	(		self,
			event
	)

Definition at line 118 of file DAQ_monitoring.py.

   def ExecuteEvent(self,event):
       self.Nevent +=1
       h = self.M.h
       W = self.M.Weight
       T   = event.EventHeader.GetEventTime()
       Tsec = int(T/self.M.freq)
 
       trackTask = self.M.FairTasks['simpleTracking']
       direction = 0
       DStrack = False
       SFtrack = False
       SL = False
       for theTrack in self.M.Reco_MuonTracks:
            if not theTrack.getFitStatus().isFitConverged() and theTrack.GetUniqueID()==1: continue
            if theTrack.GetUniqueID()!=1: 
                DStrack = True
                continue
            # get the slopes and track positions
            state = theTrack.getFittedState()
            pos    = state.getPos()
            mom = state.getMom()
            slopeX = mom.X()/mom.Z()
            slopeY = mom.Y()/mom.Z()
            for x in self.xing:
              if self.M.xing[x]:
                 self.M.fillHist2('trackSlopes'+x,slopeX*1000-pos.X()/48.2,slopeY*1000-pos.Y()/48.2)
                 self.M.fillHist2('trackSlopesXL'+x,slopeX-pos.X()/48200,slopeY-pos.Y()/48200)
                 self.M.fillHist2('trackPos'+x,pos.X(),pos.Y())
                 if abs(slopeX)<0.1 and abs(slopeY)<0.1:  self.M.fillHist2('trackPosBeam'+x,pos.X(),pos.Y())
            # get the track direction
            SL = trackTask.trackDir(theTrack)
            if not SL: continue
            SFtrack = True
            if abs(SL[0])<0.03:  direction = 1
            elif SL[0]<-0.07:     direction = -1
       bn =  int((T%(self.M.div*self.M.Nbunches))/self.M.div+0.5)
       sbn = T%(self.M.div*self.M.Nbunches)
       rc = h['bnr'].Fill( bn ,W)
       rc = h['Xbnr'].Fill( sbn,W)
       for x in self.xing:
            if self.M.xing[x]:
                 if x=='all' or (DStrack or SFtrack):  rc = h['bnr'+x].Fill( bn ,W)
                 if not SL: continue
                 rc = h['trackDir'+x].Fill(SL[0],W)
                 rc = h['trackDirSig'+x].Fill(SL[1],W)
 
       if direction >0: rc = h['bnrF'].Fill(bn,W)
       elif direction <0: rc = h['bnrB'].Fill(bn,W)
       for x in self.xing:
          if self.M.xing[x]:
             self.gtime[x][0].append(T/self.M.freq)
             if DStrack: self.gtime[x][3].append(T/self.M.freq)
             if SFtrack: self.gtime[x][1].append(T/self.M.freq)
 
       qdc = {0:0,1:0,2:0,3:0}
       
       for aHit in event.Digi_MuFilterHits:
          if not aHit.isValid(): continue
          detID = aHit.GetDetectorID()
          s  = detID//10000
          p = (detID//1000)%10
          b = detID%1000
          allChannels = self.M.map2Dict(aHit,'GetAllSignals')
          for c in allChannels:
             qdc[s]+= allChannels[c]
             if b<60:
               # Veto 1 and 2
               if s==1 and p<2: s_index = s
               # Veto 3, US and DSH
               if (s==1 and p==2) or s==2 or s==3: s_index = s+1
               cNr = self.offsets[s_index][0] + self.offsets[s_index][1]*p + self.offsets[s_index][2]*b + c
             else: # only DSV
               cNr = self.offsets[s+2][0] + self.offsets[s+2][1]*p + self.offsets[s+2][2]*(b-60) + c
             if self.Tprev[cNr]>0:
                dT = (T - self.Tprev[cNr])/self.M.freq
                if dT<5E-9: print('something wrong',self.Nevent,s,p,b,c,dT,T,self.Tprev[cNr])
                rc = h['ctimeZ'].Fill(dT*1E6,cNr,W)
                rc = h['btime'].Fill(T-self.Tprev[cNr],cNr,W)
                rc = h['ctimeM'].Fill(dT*1E3,cNr,W)
                rc = h['ctime'].Fill(dT,cNr,W)
             nb = aHit.GetBoardID(c)
             if not nb in self.boardsVsTime: self.boardsVsTime[nb]={}
             if not Tsec in self.boardsVsTime[nb]: self.boardsVsTime[nb][Tsec]=0
             self.boardsVsTime[nb][Tsec]+=1
             self.Tprev[cNr] = T
       for aHit in event.Digi_ScifiHits:
          if not aHit.isValid(): continue
          qdc[0]+=1   
          nb = aHit.GetBoardID(0)
          if not nb in self.boardsVsTime: self.boardsVsTime[nb]={}
          if not Tsec in self.boardsVsTime[nb]: self.boardsVsTime[nb][Tsec]=0
          self.boardsVsTime[nb][Tsec]+=1
       for s in range(4):
          self.QDCtime[s].SetPoint(self.Nevent,self.Nevent,qdc[s])
 
       boards = {}
       for aHit in event.Digi_MuFilterHits:
             for x in aHit.GetAllTimes():
                bid = aHit.GetBoardID(x.first)
                if not bid in boards:  boards[bid]=[]
                boards[bid].append(x.second)
       for aHit in event.Digi_ScifiHits:
                bid = aHit.GetBoardID(0)
                if not bid in boards:  boards[bid]=[]
                boards[bid].append(aHit.GetTime())
# times relative to board 40
       if self.board0 in boards:
          boards[self.board0].sort()
          T0 = 0
          for x in boards[self.board0]: T0+=x
          T0 = T0/len(boards[self.board0])
          for b in boards:
             for x in boards[b]:
                rc = h['Tboard'].Fill(b,x-T0)
       for b in boards:
          for x in boards[b]:
             rc = h['Cckboard'].Fill(b, sbn%4+x )
             if self.M.fsdict or self.M.hasBunchInfo:
                if self.M.xing['B2noB1']: rc = h['CckboardB2'].Fill(b, sbn%4+x )
 

Init()

DAQ_monitoring.Time_evolution.Init	(		self,
			options,
			monitor
	)

Definition at line 69 of file DAQ_monitoring.py.

   def Init(self,options,monitor):
       self.M = monitor
       self.fsdict = self.M.fsdict
       h = self.M.h
       self.gtime = {'all':{0:[],1:[],3:[]}, 'B1only':{0:[],1:[],3:[]}, 'B2noB1':{0:[],1:[],3:[]}, 'noBeam':{0:[],1:[],3:[]}}
       self.QDCtime = {0:ROOT.TGraph(),1:ROOT.TGraph(),2:ROOT.TGraph(),3:ROOT.TGraph()}
 
       # the offsets encode the Nchannels per detector plane type: veto1&2, veto3, us, dsH, dsV
       # Veto3 is single plane, but part f the Veto system and the second item in its list is
       # set 0 to account of that
       # 7*2*2*8 + 7*8 + 10*5*2*8 + 60*3*2 + 60*4
       self.offsets = {1:[0,7*16,16],2:[7*2*2*8,0,8],3:[7*2*2*8+7*8,10*16,16],4:[7*2*2*8+7*8+10*5*2*8,60*2,2],5:[7*2*2*8+7*8+10*5*2*8+3*60*2,60,1]}
       ut.bookHist(h,'ctime','delta event time per channel; dt [s]'  ,1000,0.0,10.,1700,-0.5,1699.5)
       ut.bookHist(h,'ctimeZ','delta event time per channel; dt [us]',10000,0.0,100.,1700,-0.5,1699.5)
       ut.bookHist(h,'ctimeM','delta event time per channel; dt [ms]',1000,0.0,10.,1700,-0.5,1699.5)
       ut.bookHist(h,'btime','delta timestamp per channel; ',self.M.Nbunches*4+200,-0.5,self.M.Nbunches*4-0.5+200,1700,-0.5,1699.5)
       ut.bookHist(h,'bnr','bunch number; ',self.M.Nbunches,-0.5,self.M.Nbunches-0.5)
       ut.bookHist(h,'Xbnr','bunch number; ',self.M.Nbunches*4,-0.5,self.M.Nbunches*4-0.5)
       ut.bookHist(h,'bnrF','bunch number forward tracks; ',self.M.Nbunches,-0.5,self.M.Nbunches-0.5)
       ut.bookHist(h,'bnrB','bunch number backward tracks; ',self.M.Nbunches,-0.5,self.M.Nbunches-0.5)
# type of crossing, check for b1only,b2nob1,nobeam
       self.xing = {'all':True,'B1only':False,'B2noB1':False,'noBeam':False}
       for x in self.xing:
           ut.bookHist(h,'bnr'+x,'bunch number; ',self.M.Nbunches,-0.5,self.M.Nbunches-0.5)
           # The SciFi track monitoring plots are made in this module.
           # These histograms are present in the SciFi_residuals module as well. Since running the latter is
           # time-consuming, it is excluded from the baseline monitoring, while the relevant SciFi track
           # plots are moved here. The DS track plots are defined in the MuFilter monitoring module.
           ut.bookHist(h,'trackDir'+x,'track direction;',300,-0.5,0.25)
           ut.bookHist(h,'trackDirSig'+x,'track direction significance;',100,-20,10)
           if not self.M.fsdict and not self.M.hasBunchInfo and x!='all': continue
           ut.bookHist(h,'trackSlopes'+x,'track slope; x/z [mrad]; y/z [mrad]',1000,-100,100,1000,-100,100)
           ut.bookHist(h,'trackSlopesXL'+x,'track slope; x/z [rad]; y/z [rad]',2200,-1.1,1.1,2200,-1.1,1.1)
           ut.bookHist(h,'trackPos'+x,'track pos; x [cm]; y [cm]',100,-90,10.,80,0.,80.)
           ut.bookHist(h,'trackPosBeam'+x,'beam track pos slopes<0.1rad; x [cm]; y [cm]',100,-90,10.,80,0.,80.)
       for item in h:
           if isinstance(h[item], ROOT.TH2) and (item.find('trackPos')>0 or item.find('trackSlopes')>0): 
             h[item].SetTitleOffset(1.1, 'Y')
 
       ut.bookHist(h,'Tboard','Hit time per board, wrt SciFi 4Y board 40; board id; t_{hit} - t_{board 40 mean} [clock cycles]',62,0.5,62.5,100,-5.,5.)
       ut.bookHist(h,'Cckboard','160 MHz bunch number; board id; SND clock align phase wrt LHC [clock cycles]',62,0.5,62.5,100,0.,16.)
       ut.bookHist(h,'Cckboard_normalized','160 MHz bunch number; board id; SND clock align phase wrt LHC [clock cycles]',62,0.5,62.5,100,0.,16.)
       ut.bookHist(h,'CckboardB2','160 MHz bunch number; board id; SND clock align phase wrt LHC [clock cycles]',62,0.5,62.5,100,0.,16.)
       self.board0 = 40
 
       self.boardsVsTime = {}
                       
       self.Nevent = -1
       self.Tprev = [-1]*1700

Plot()

DAQ_monitoring.Time_evolution.Plot

(

self

)

Definition at line 238 of file DAQ_monitoring.py.

   def Plot(self):
       h = self.M.h
       gtime = self.gtime
       if self.M.TStart < 0:
          T0       = gtime['all'][0][0]
          tmax   = gtime['all'][0][len(gtime['all'][0])-1] - T0
       else:
           T0 = self.M.TStart/self.M.freq
           tmax = self.M.TEnd/self.M.freq - T0
 
       nbins  = int(tmax)
       yunit = "events per s"
       systems = {0:'Scifi',1:'Veto',2:'US',3:'DS'}
       if self.fsdict or self.M.hasBunchInfo:  Xi = ['','B1only', 'B2noB1','noBeam']
       else: Xi = ['']
 
       if 'time' in h:
          if self.M.TStart < 0:
             for x in Xi:
                for y in ['time','timeWt','timeWtDS']:
                   h.pop(y+x).Delete()
             h.pop('boardVStime').Delete()
       if not 'time' in h:
         for x in Xi:
                ut.bookHist(h,'time'+x,'DAQ Event Rate '+x+'; elapsed time from run start t [s];'+yunit,nbins,0,tmax)
                ut.bookHist(h,'timeWt'+x,'events with Scifi(red) DS(cyan) tracks; elapsed time from run start t [s];'+yunit,nbins,0,tmax)
                ut.bookHist(h,'timeWtDS'+x,'elapsed time from start, events with DS tracks; t [s];'+yunit,nbins,0,tmax)
# time evolution of boards
         ut.bookHist(h,'boardVStime','Board Hit Rate; t [s]; board id',nbins,0,tmax,len(self.boardsVsTime),0.5,len(self.boardsVsTime)+0.5)
       if not 'Etime' in h:
         ut.bookHist(h,'Etime','time difference between consecutive events; dt [s]',100,0.0,1.)
         ut.bookHist(h,'EtimeZ','time difference between consecutive events; dt [us]',10000,0.0,100.)
       for x in h:
            if isinstance(h[x], ROOT.TH2):
              h[x].SetStats(0)
 
       for n in range(1,len(gtime['all'][0])):
           dT = gtime['all'][0][n]-gtime['all'][0][n-1]
           rc = h['Etime'].Fill( dT )
           rc = h['EtimeZ'].Fill( dT*1E6)
       K = {0:'',1:'Wt',3:'WtDS'}
       for k in K:
         for n in range(len(gtime['all'][k])):
             rc = h['time'+K[k]].Fill(gtime['all'][k][n]-T0)
       if self.fsdict or self.M.hasBunchInfo:
            for x in ['B1only', 'B2noB1','noBeam']:
               for k in K:
                  for n in range(len(gtime[x][k])):
                     rc = h['time'+K[k]+x].Fill(gtime[x][k][n]-T0)
 
       boards = list(self.boardsVsTime.keys())
       boards.sort()
       i = 1
       yAx = h['boardVStime'].GetYaxis()
       for nb in boards:
          snb = str(nb)
          yAx.SetBinLabel(i,snb)
          for t in self.boardsVsTime[nb]:
             rc = h['boardVStime'].Fill(t-T0,i,self.boardsVsTime[nb][t])
          i+=1     
       ut.bookCanvas(h,'boardsVsTimeStats','board nr vs time',2000,1600,1,1)
       tc = h['boardsVsTimeStats'].cd()
       h['boardVStime'].Draw('colz')
       tc.SetLogz()
       self.M.myPrint(h['boardsVsTimeStats'],"board nr versus time",subdir='daq/expert')
       self.M.myPrint(h['boardsVsTimeStats'],"board nr versus time",subdir='daq/shifter')
       
# analyse splash events
       withTGraph = False
       anaSplash = False
       if anaSplash and withTGraph:
        splashBins = []
        av = h['time'].GetEntries()/nbins
        for i in range(1,nbins+1):
           B = h['time'].GetBinContent(i)
           if B>5*av: 
              tmin = h['time'].GetBinLowEdge(i)
              tmax = tmin+h['time'].GetBinWidth(i)
              if 'splash'+str(i) in h: 
                    h.pop('splash'+str(i)).Delete()
                    h.pop('Qsplash'+str(i)).Delete() 
              ut.bookHist(h,'splash'+str(i),'; t [us];events per usec',1000000,0,(tmax-tmin)*1E6)
              ut.bookHist(h,'Qsplash'+str(i),' qdc; t [us];sum qdc per usec',1000000,0,(tmax-tmin)*1E6)
              for sy in systems:
                   # if systems[sy]+'splash'+str(i) in h: h.pop(systems[sy]+'splash'+str(i)).Delete() 
                   h[systems[sy]+'splash'+str(i)] = ROOT.TGraph()
              splashBins.append( [i,tmin,tmax] )
        for n in range(1,len(gtime['all'][0])):
           T = gtime['all'][0][n-1]-T0
           for s in splashBins:
                if T>s[1] and T<s[2]: 
                     rc = h['splash'+str(s[0])].Fill((T-s[1])*1E6)
                     for sy in systems:
                           N = h[systems[sy]+'splash'+str(s[0])].GetN()
                           h[systems[sy]+'splash'+str(s[0])].SetPoint(N,(T-s[1])*1E6,self.QDCtime[sy].GetPointY(n-1))
        N = len(splashBins)
        if N>0:
          iy = int(ROOT.TMath.Sqrt(N))
          ix = N//iy
          if N>ix*iy: ix+=1
          ut.bookCanvas(h,'Tsplash','rates',1800,1200,ix,iy)
          for sy in systems: ut.bookCanvas(h,systems[sy]+'splash','qdc sum',1800,1200,ix,iy)
          n=1
          for s in splashBins:
            h['Tsplash'].cd(n)
            h['splash'+str(s[0])].Draw('hist')
            for sy in systems: 
               tc = h[systems[sy]+'splash'].cd(n)
               tc.SetLogy(1)
               hist = h['Qsplash'+str(s[0])]
               hist.Reset()
               g = h[systems[sy]+'splash'+str(s[0])]
               for i in range(g.GetN()):
                   T,QDC =  g.GetPointX(i),g.GetPointY(i)
                   rc = hist.Fill(T,QDC)
               h[systems[sy]+'Qsplash'+str(s[0])] = ROOT.TGraph()
               for i in range(hist.GetNbinsX()):
                    QDC = hist.GetBinContent(i+1)
                    if not QDC>0: continue
                    T = hist.GetBinCenter(i+1)
                    h[systems[sy]+'Qsplash'+str(s[0])].AddPoint(T,QDC)
               h['QXsplash'+str(s[0])] = h['Qsplash'+str(s[0])].RebinX(10000,'QXsplash'+str(s[0]))
               xmax = hist.GetMaximum()
               h['QXsplash'+str(s[0])].Reset()
               h['QXsplash'+str(s[0])].SetMaximum(xmax)
               h['QXsplash'+str(s[0])].DrawClone()
               h[systems[sy]+'Qsplash'+str(s[0])].SetName(systems[sy]+'Gsplash'+str(s[0]))
               h[systems[sy]+'Qsplash'+str(s[0])].Draw('Bsame')
            n+=1
          self.M.myPrint(h['Tsplash'],"Splashes",subdir='daq/expert')
          for sy in systems: self.M.myPrint(h[systems[sy]+'splash'],systems[sy]+" qdc sum",subdir='daq/expert')
 
       elif anaSplash:
# analyse splash events
        splashBins = []
        av = h['time'].GetEntries()/nbins
        for i in range(1,nbins+1):
           B = h['time'].GetBinContent(i)
           if B>5*av: 
              tmin = h['time'].GetBinLowEdge(i)
              tmax = tmin+h['time'].GetBinWidth(i)
              if 'splash'+str(i) in h: h.pop('splash'+str(i)).Delete()
              ut.bookHist(h,'splash'+str(i),'; t [#mus];events per #mus',1000000,0,(tmax-tmin)*1E6)
              for sy in systems:
                   if systems[sy]+'splash'+str(i) in h: h.pop(systems[sy]+'splash'+str(i)).Delete() 
                   ut.bookHist(h,systems[sy]+'splash'+str(i),systems[sy]+'sum qdc / N; t [1#mus];average sum qdc per event #mus',1000000,0,(tmax-tmin)*1E6)
              splashBins.append( [i,tmin,tmax] )
        for n in range(1,len(gtime['all'][0])):
           T = gtime['all'][0][n-1]-T0
           for s in splashBins:
                if T>s[1] and T<s[2]: 
                     rc = h['splash'+str(s[0])].Fill((T-s[1])*1E6)
                     for sy in systems: 
                           rc = h[systems[sy]+'splash'+str(s[0])].Fill((T-s[1])*1E6,self.QDCtime[sy].GetPointY(n-1))
        N = len(splashBins)
        if N>0:
          iy = int(ROOT.TMath.Sqrt(N))
          ix = N//iy
          if N>ix*iy: ix+=1
          ut.bookCanvas(h,'Tsplash','rates',1800,1200,ix,iy)
          for sy in systems: ut.bookCanvas(h,systems[sy]+'splash','qdc sum',1800,1200,ix,iy)
          n=1
          for s in splashBins:
            h['Tsplash'].cd(n)
            h['splash'+str(s[0])].Draw('hist')
            for sy in systems: 
               tc = h[systems[sy]+'splash'].cd(n)
               tc.SetLogy(1)
               h[systems[sy]+'splash'+str(s[0])].Divide(h['splash'+str(s[0])])
               h[systems[sy]+'splash'+str(s[0])].Draw('hist')
            n+=1
          self.M.myPrint(h['Tsplash'],"Splashes",subdir='daq/expert')
          for sy in systems: self.M.myPrint(h[systems[sy]+'splash'],systems[sy]+" qdc sum",subdir='daq/expert')
 
       ut.bookCanvas(h,'eventAndTrackRates','rates',1024,3*768,1,3)
       ut.bookCanvas(h,'Txing','rates per xing type',1024,3*768,1,4)
 
       tc = h['eventAndTrackRates'].cd(1)
       h['time'].SetStats(0)
       h['time'].Draw()
       tc = h['eventAndTrackRates'].cd(2)
       h['timeWt'].SetStats(0)
       h['timeWt'].SetLineColor(ROOT.kRed)
       h['timeWtDS'].SetStats(0)
       h['timeWtDS'].SetLineColor(ROOT.kCyan)
       mx = max( h['timeWt'].GetBinContent(h['timeWtDS'].GetMaximumBin()),\
                         h['timeWtDS'].GetBinContent(h['timeWtDS'].GetMaximumBin()) )
       h['timeWt'].SetMaximum(mx)
       h['timeWt'].Draw()
       h['timeWtDS'].Draw('same')
       tc = h['eventAndTrackRates'].cd(3)
       tc.SetLogy(1)
       h['EtimeZ'].Draw()
       #rc = h['EtimeZ'].Fit('expo','S','',0.,250.)
       h['eventAndTrackRates'].Update()
       stats = h['EtimeZ'].FindObject('stats')
       stats.SetOptFit(1111111)
       tc = h['eventAndTrackRates'].cd(4)
       tc.SetLogy(1)
       h['Etime'].Draw()
       #rc = h['Etime'].Fit('expo','S')
       h['eventAndTrackRates'].Update()
       stats = h['Etime'].FindObject('stats')
       stats.SetOptFit(1111111)
       h['eventAndTrackRates'].Update()
       self.M.myPrint(h['eventAndTrackRates'],"Rates",subdir='daq/shifter')
       if self.fsdict or self.M.hasBunchInfo:
            j = 1
            for x in ['B1only', 'B2noB1','noBeam']:
                 tc = h['Txing'].cd(j)
                 hmax = 0
                 for ty in ['','Wt','WtDS']:
                     mx = h['time'+ty+x].GetMaximum()
                     if mx>hmax: hmax = mx
                 for ty in ['','Wt','WtDS']:
                     h['time'+ty+x].SetMaximum(hmax)
                     h['time'+ty+x].SetStats(0)
                 h['time'+x].Draw()
                 h['timeWt'+x].SetLineColor(ROOT.kRed)
                 h['timeWtDS'+x].SetLineColor(ROOT.kCyan)
                 h['timeWt'+x].Draw('same')
                 h['timeWtDS'+x].Draw('same')
                 j+=1
            tc = h['Txing'].cd(j)
            hmax = 0
            for x in ['B1only', 'B2noB1','noBeam']:
               mx = h['bnr'+x].GetMaximum()
               if mx>hmax: hmax = mx
            h['bnrB1only'].SetMaximum(hmax)
            h['bnrB1only'].SetStats(0)
            h['bnrB1only'].SetLineColor(ROOT.kBlue)
            h['bnrB1only'].Draw()
            h['bnrB2noB1'].SetStats(0)
            h['bnrB2noB1'].SetLineColor(ROOT.kGreen)
            h['bnrB2noB1'].Draw('same')
            h['bnrnoBeam'].SetStats(0)
            h['bnrnoBeam'].SetLineColor(ROOT.kOrange)
            h['bnrnoBeam'].Draw('same')
            h['Txing'].Update()
            self.M.myPrint(h['Txing'],"RatesXing",subdir='daq/expert')
 
       for xi in self.xing:
           if not self.M.fsdict and not self.M.hasBunchInfo and xi!='all': continue
           # to make the titles better use 'x'
           x = xi
           if xi =='all': x=''
           tname = 'scifi-trackSlopes'+x
           ut.bookCanvas(h,tname,"track directions",1600,1800,3,2)
           h[tname].cd(1)
           rc = h['trackSlopes'+xi].Draw('colz')
           h[tname].cd(2)
           rc = h['trackSlopes'+xi].ProjectionX("slopeX"+xi)
           rc.Draw()
           rc.SetTitle('track X slope')
           h[tname].cd(3)
           rc = h['trackSlopes'+xi].ProjectionY("slopeY"+xi)
           rc.Draw()
           rc.SetTitle('track Y slope')
           h[tname].cd(4)
           rc = h['trackSlopesXL'+xi].Draw('colz')
           h[tname].cd(5)
           rc = h['trackSlopesXL'+xi].ProjectionX("slopeXL"+xi)
           rc.Draw()
           rc.SetTitle('track X slope')
           h[tname].cd(6)
           rc = h['trackSlopesXL'+xi].ProjectionY("slopeYL"+xi)
           rc.Draw()
           rc.SetTitle('track Y slope')
           if xi=='all': self.M.myPrint(self.M.h[tname],tname,subdir='scifi/shifter')
           else:     self.M.myPrint(self.M.h[tname],tname,subdir='scifi/shifter/'+xi)
           tname = 'scifi-trackPos'+x
           ut.bookCanvas(h,tname,"track position first state",600,1200,1,2)
           h[tname].cd(1)
           rc = h['trackPosBeam'+xi].Draw('colz')
           h[tname].cd(2)
           rc = h['trackPos'+xi].Draw('colz')
           if xi=='all': self.M.myPrint(self.M.h[tname],'trackPos'+xi,subdir='scifi/shifter')
           else:     self.M.myPrint(self.M.h[tname],'trackPos'+xi,subdir='scifi/shifter/'+xi)
 
       if self.fsdict or self.M.hasBunchInfo:
          ut.bookCanvas(h,'scifi-trackDirection',' ',1024,768,4,2)
          j=1
          for x in self.xing:
              h['scifi-trackDirection'].cd(j)
              h['trackDir'+x].Draw()
              h['scifi-trackDirection'].cd(4+j)
              h['trackDir'+x].Draw()
              j+=1
       else:
          ut.bookCanvas(h,'scifi-trackDirection',' ',1024,768,2,1)
          h['scifi-trackDirection'].cd(1)
          h['trackDirall'].Draw()
          h['scifi-trackDirection'].cd(2)
          h['trackDirSigall'].Draw()
       self.M.myPrint(h['scifi-trackDirection'],'trackdirections',subdir='scifi/expert')
 
       ut.bookCanvas(h,'bunchNumber','bunch nr',2048,1600,1,3)
       tc = h['bunchNumber'].cd(1)
       h['bnr'].SetStats(0)
       h['bnr'].Draw()
       tc = h['bunchNumber'].cd(2)
       h['bnrF'].SetStats(0)
       h['bnrF'].Draw()
       tc = h['bunchNumber'].cd(3)
       h['bnrB'].SetStats(0)
       h['bnrB'].Draw()
       self.M.myPrint(h['bunchNumber'],"BunchNr",subdir='daq/shifter')
 
       ut.bookCanvas(h,'sndclock','snd bunch nr',1200,900,1,1)
       tc = h['sndclock'].cd()
       h['Xbnr'].SetStats(0)
       h['Xbnr'].Draw()
       self.M.myPrint(h['sndclock'],"XBunchNr",subdir='daq/expert')
 
       ut.bookCanvas(h,'channels',' channel dt',1024,4*768,1,4)
       tc = h['channels'].cd(1)
       h['ctimeZ'].Draw('colz')
       tc = h['channels'].cd(2)
       h['ctimeM'].Draw('colz')
       tc = h['channels'].cd(3)
       h['ctime'].Draw('colz')
       tc = h['channels'].cd(4)
       h['btime'].Draw('colz')
       self.M.myPrint(h['channels'],"mufilter channel dT",subdir='daq/expert')
 
       # normalize the h['Cckboard'] histo ber column(per board)
       # to make the new h['Cckboard_normalized'] plot (so to have proper Nentries etc)
       for ix in range(1,h['Cckboard'].GetNbinsX()+1):
         NixSum=0
         for iy in range(1,h['Cckboard'].GetNbinsY()+1):
           NixSum +=h['Cckboard'].GetBinContent(ix,iy)
         for iy in range(1,h['Cckboard'].GetNbinsY()+1):
           # no need to normalize if sum is 0
           if NixSum!=0:
             h['Cckboard_normalized'].SetBinContent(ix, iy, h['Cckboard'].GetBinContent(ix,iy)/NixSum)
       h['Cckboard_normalized'].GetZaxis().SetTitle('normalized entries per board')
       h['Cckboard_normalized'].GetZaxis().RotateTitle()
       ut.bookCanvas(h,'boardsAlignment_expert','',1024,768,2,1)
       h['boardsAlignment_expert'].cd(1)
       ROOT.gPad.SetMargin(0.15,0.15,0.1,0.1)
       ROOT.gPad.SetGrid()
       h['Tboard'].Draw('colz')
       h['boardsAlignment_expert'].cd(2)
       ROOT.gPad.SetMargin(0.15,0.15,0.1,0.1)
       h['Cckboard_normalized'].Draw('colz')
       ROOT.gPad.SetGrid()
       self.M.myPrint(h['boardsAlignment_expert'],"board time diff",subdir='daq/expert')
 
       # single plot for the shifter
       ut.bookCanvas(h,'boardsAlignment','',1024,768,1,1)
       h['Cckboard_normalized'].Draw('colz')
       ROOT.gPad.SetGrid()
       self.M.myPrint(h['boardsAlignment'],"board time diff",subdir='daq/shifter')

Member Data Documentation

board0

DAQ_monitoring.Time_evolution.board0

Definition at line 112 of file DAQ_monitoring.py.

boardsVsTime

DAQ_monitoring.Time_evolution.boardsVsTime

Definition at line 114 of file DAQ_monitoring.py.

fsdict

DAQ_monitoring.Time_evolution.fsdict

Definition at line 71 of file DAQ_monitoring.py.

gtime

DAQ_monitoring.Time_evolution.gtime

Definition at line 73 of file DAQ_monitoring.py.

M

DAQ_monitoring.Time_evolution.M

Definition at line 70 of file DAQ_monitoring.py.

Nevent

DAQ_monitoring.Time_evolution.Nevent

Definition at line 116 of file DAQ_monitoring.py.

offsets

DAQ_monitoring.Time_evolution.offsets

Definition at line 80 of file DAQ_monitoring.py.

QDCtime

DAQ_monitoring.Time_evolution.QDCtime

Definition at line 74 of file DAQ_monitoring.py.

Tprev

DAQ_monitoring.Time_evolution.Tprev

Definition at line 117 of file DAQ_monitoring.py.

xing

DAQ_monitoring.Time_evolution.xing

Definition at line 90 of file DAQ_monitoring.py.

---

The documentation for this class was generated from the following file:

• shipLHC/scripts/DAQ_monitoring.py