Setup of a Drift Tube Muon Tracker and Calibration of Muon ...

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Table A.1: Variables that can be set by the slow control and their default values forthe tracker setup.Variable Description DefaultCRATE Crates in use "0"SLOT Slots in use "1 5"TPDELAY Delay for testpulse ’200’THRESH Signal threshold in mV ’50’THR AMP Send single threshold to chosen amplifier 0THR TUBE Send single threshold to chosen tube 0NB TP Number of testpulses ’100’TP PAUSE Time between testpulses ’0.01’TP ODD Switch for testpulses on odd channels "on"TP EVEN Switch for testpulses on even channels "on"TRM1 Mask for OTB input channel 1 "on"TRM2 Mask for OTB input channel 2 "on"TRM3 Mask for OTB input channel 3 "off"TRM4 Mask for OTB input channel 4 "off"TRM5 Mask for OTB input channel 5 "off"TR MASK Corresponding HEX value for OTB mask 3TRTPM1 Apply OTB testpulse to input channel 1 "on"TRTPM2 Apply OTB testpulse to input channel 2 "on"TRTPM3 Apply OTB testpulse to input channel 3 "on"TRTPM4 Apply OTB testpulse to input channel 4 "on"TRTPM5 Apply OTB testpulse to input channel 5 "on"TRTP MASK Trigger testpulse mask for input channels (hex) 0x31TRS0 Select trigger configuration 2/3 "on"TRS1 Select trigger configuration 3/4 "off"TRS2 Select trigger configuration 4/5 "off"TRS3 Select trigger configuration random "off"TR SEL HEX value for trigger configuration 0TR CRATE Crate of triggerboard 0TR DELAY Delay of trigger in units of 5ns 200TR PULSE Pulse width of trigger signal 200TTP PAUSE Time between trigger testpulses ’0.01’NB TTP Number of trigger testpulses ’100’102
Appendix BBinary TDC DataThe TDC data has a 32 bit structure. For most values it is sufficient to look atthen in hexadecimal mode, which will be used within this chapter unless otherwisementioned.A new cycle is indicated by two 32 bit sequences. The first indicates the newcycle:followed by0x 110d xxxx }{{}cyclenumber0x xxxx xxxx } {{ }timestampAn event (without zero suppression) consists of 99 32-bit sequences startingwith an event indicator:followed by0x 1109 xxxx }{{}cyclenumber0x xxxx xxxx } {{ }timestampAfter that follows a 32-bit sequence for every channel (hence 96 sequences). Theseare encoded as follows:0x 22 xx }{{}channelx}{{}bbbbxxx }{{}tdcvaluewhere the four unexplained bits can be accounted for hits and width information asfollows:}{{} bb }{{} bbhitwidthThe different values stand for: 00: hit, 01: no hit, 10: OV ROZ and 11: OV ALUfor the hits and 00: no width, 01: small, 10: medium and 11 large for the width103
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Setup of a Drift Tube Muon Trackera
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AbstractIn this work the setup and
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3.5.5 Pattern Recognition . . . . .
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viii
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essential for vetoing these events.
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Chapter 2NeutrinosThe standard mode
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However, it did not yet deliver an
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Table 2.1: Neutrino oscillation par
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this assumption, the Standard Solar
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Figure 2.1: Neutrino flux at Earth
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asymmetry between neutrino and anti
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Figure 2.3: Expected ¯ν e energy
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Nb neutrino/fission-11010-2Neutrino
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108−dE/dx (MeV g −1 cm 2 )65432
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Figure 3.3: Setup of the muon track
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zyxModule b.0Module a.0Module b.1Mo
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Figure 3.6: Display of the slow con
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plastic scintillators. To avoid all
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N hitsHitmap Plane 06000h_hitmap0En
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Table 3.4: Data structure for calib
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TDC SpectrumN/[2 Channels]1000800H_
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Table 3.5: List of variables calcul
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with ∆⃗q = ⃗q n − ⃗q n−
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N [a.u.]∆ α (x)2200020000da0Entr
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d[mm]Reco Drift Distances201816H_RE
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N [a.u.]Real DataReal data0.06MCh1E
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χ 2N [a.u.]Probability103×10hc2p0
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N [a.u]Residuals20001800h0Entries 3
Page 60 and 61: Counts/(10 keV × day × 100 tons)1
Page 62 and 63: 4.1.3 Čerenkov LightČerenkov dete
Page 64 and 65: 4.2 The Borexino DetectorThe Borexi
Page 66 and 67: muons, is reduced by going deep und
Page 68 and 69: (typically below 50 cm), the locati
Page 70 and 71: 510Counts/(10 keV x day x 100 tons)
Page 72 and 73: counts/days*4 hitsDay (Red) and Nig
Page 74 and 75: eeSurvival probability for ν e, P0
Page 76 and 77: the CMT to the Borexino tracking, t
Page 78 and 79: P C P DSCINT C SCINT DySCINT BSCINT
Page 80 and 81: Figure 5.2: The CMT setup on top of
Page 82 and 83: Angular AcceptanceAngular Acceptanc
Page 84 and 85: Comparison nhits=3 vs nhits=4N [a.u
Page 86 and 87: Table 5.3: Overview of all muon run
Page 88 and 89: N/dayAll Triggers vs Time12000h_tim
Page 90 and 91: Reco Hits in Scintillatory [mm]1000
Page 92 and 93: PMTPMTScintillatorPMTPMTFigure 5.16
Page 94 and 95: the CMT data file and the Borexino
Page 96 and 97: Zenith Angle CMT and BX-GL Tracks h
Page 98 and 99: Lateral x Resolution CMT - IDhlatx_
Page 100 and 101: Distance d between CMT and BX-GL Tr
Page 102 and 103: Angular difference αN [arbitrary u
Page 104 and 105: [m]z bxTrack Position in BX x=0 Pla
Page 106 and 107: N [arbitrary units]∆y all data200
Page 108 and 109: To determine the Borexino tracking
Page 112 and 113: espectively. The channel numbers ar
Page 114 and 115: xyϕϕ ′βx ′µFigure C.2: Rela
Page 116 and 117: the z-coordinate z op,0 of the firs
Page 118 and 119: xyEvent: 470, Entry: 470, Time Tue
Page 120 and 121: [14] Ch. Kraus et al. Final Results
Page 122 and 123: [49] T. Araki et al. Experimental i
Page 124 and 125: 116
Page 126: Jan Lenkeit und Björn Wonsak sowie
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Setup of a Drift Tube Muon Tracker and Calibration of Muon ...

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