MAPS Beam Test: preliminary results and book keeping

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MAPS Beam Test: preliminary results and book keeping MAPS Group Meeting, RAL Jamie Ballin HEP, Imperial College, London j.ballin06@ic.ac.uk 18th January 2008

A Christmas Tale Starring the staff of the DESY House of Pain Laughter Tears Power SCANDAL

Starring Dr M Stanitzki Burgermeister Prof P Dauncey Die Grosse Kase Dr A-M Magnan Die Kleine Fromage Dr M Noy Vorschsprung durch Tecknik Moi - Main Goon

Outline Tracking efficiencies 1 Tracking efficiencies 2 3

Physical configuration Tracking efficiencies DESY BEAM TEST CONFIGURATION PMT finger 2 TRACKING CONFIGURATION Slot Item Cable 19 PMT 1 N 11 6 W 8 4 E 5 7 W 2 8 E 0 PMT 2 N = S Cable sense refers to the direction where the board s cables were placed. W plates SHOWER/N-DPW CONFIGURATION Slot Item Cable 19 PMT 1 N 14 W 6* W 8 2/4* E 5 7 W 2 8 E 0 PMT 2 N * Sensor 6 s substrate was pointed towards the beam for runs 490073-490080 with sensor 4, non-dpw, inserted in place of 2 8 7 2/4* 6* PMT finger 1 Beam Get this from https://twiki.cern.ch/twiki/bin/view/calice/desytbruns, for a pdf version :-)

Finding a tracking efficiency Concepts For each bunch crossing, count how many hits each sensor has. For the sensors held at nominal, make a track when each of the 3 sensors has at least one hit. Get N tracks. Ask whether the threshold-scanned sensor confirms this. Get i confirmations, and N i rejections. Efficiency ɛ is simply, ɛ = i N 0% (Slight complexity: compute ɛ each bunch train, plot average of ɛ, otherwise you get steps.)

Efficiency ɛ and purity η But 4th sensor will always incorrectly confirm a track if noise is very high. So we need purity too... η = ɛ no beam Can t rely on PMT data can t support x, y correlations and rejections So either we plot fake impurity rate from noise data Or look at whether the 4th sensor confirms a track at some decorrelated time 4096 BXs away (gives results between noise and beam as it happens, not shown today)

Noise vs. beam, all DPW Beam threshold scan, run 490043 One colour for each of sensors 2, 6,7, 8 All held at nominal thresholds (150/500) First beam test plot from a working system!... but you get a queezy feeling all the same.

Non-DPW results Tracking efficiencies Non-DPW vs DPW Efficiency (%) 25 20 15 5 Non-DPW with 3 GeV e- beam; r490079 DPW with 3 GeV e- beam; r490079 Non-DPW without beam; r490080 DPW without beam; r490080 Red - DPW (sensor 7), Green Non-DPW (sensor 4) DPW process has boosted efficiency by 7x! (To all of 7%). 0 0 120 140 160 180 200 Shaper threshold

Finer threshold scan Nominal thresholds lowered Tracking efficiencies Tracking efficiencies, sensor 2 Tracking efficiency, sensor 7 Efficiency (%) 60 50 Efficiency 3 GeV e-; r490084 Impurity; r490083 Efficiency (%) 60 50 Efficiency 3 GeV e-; r490084 Impurity; r490083 40 40 30 30 20 20 0 80 0 120 140 160 180 200 Shaper threshold 0 60 80 0 120 140 160 180 200 Shaper threshold Overall efficiency, sensor 6 Tracking efficiency, sensor 8 Efficiency (%) 60 50 Efficiency 3 GeV e-; r490084 Impurity; r490083 Efficiency (%) 60 50 Efficiency 3 GeV e-; r490084 Impurity; r490083 40 40 30 30 20 20 0 60 80 0 120 140 160 180 200 Shaper threshold 0 60 80 0 120 140 160 180 200 Shaper threshold

Finer threshold scan Shapers or samplers? Tracking efficiencies Ask for track confirmation in shapers and samplers seperately Efficiency (%) Sensor 8 - shapers/samplers 60 50 40 30 20 Overall efficiency, 3 GeV e-; r490084 Overall impurity, no beam; r490083 Shaper efficiency, 3 GeV e-; r490084 Sampler efficiency, 3 GeV e-; r490084 Shaper impurity, no beam; r490083 Sampler impurity, no beam; r490083 normalisation of 50%. Sensor stack arrangement made for alternating sampler/shaper layers impossible to get a simple answer. 0 60 80 0 120 140 160 180 200 Shaper threshold

%!? Why is this? We need a systematic and coordinated plan to tackle this question. Laser Priority list for DAC scanning and optimisation Software hot channel masking Can it be fixed? If not, why not? What is this slowly decreasing tail in the source and beam scans? Can we be sure the thresholds are working? (Recall that the trims perturbed the response in an unexpected way.) I m not convinced we re at a good WP - samplers continue to produce erratic behaviour (viz. peaks) </rant>

How many simultaneous hits are there in showers? 3 layers of tungsten Simultaneous timestamps Entries/1 7 6 5 4 3 2 6 GeV e-; r490062 No beam; r490063 6 GeV e-, MSO biases altered; r490064 No beam, MSO biases altered; r490065 3 GeV e-; r490061 0 5 15 20 25 30 35 40 # Simultaneous timestamps Red (6 GeV) and purple are different since we sample different parts of the shower. Purple (3 GeV) has highest particle flux Red and blue are close for values 0, 1, 2... since some 6 GeV particles zip through without showering.

Temperature dependence Use environmental chamber at IC ( 40 C to 120 C) to see if working point is temperature dependent Temperature Dependence, (S7, R0) # Hits 3 2 1-20C, with source -30C, with source Room temp, with source Room temp, no source -30C, no source S & N both increase with cooling DAQ bombs out after 185/200 configs at T < 0 C Continue to see long tail from source Sensor s not working at 40 C, but may be due to condensation? 0 0 200 300 400 500 600 700 800 900 00 Shaper threshold

Plans for an analysis framework Desperately need to convert to a more user friendly format for data analysis! Convert.bin to a ROOT file with a physics driven structure of TTrees and the like Integrate appropriate book keeping information Design and implement a new analysis framework Facilitate tracking Shower objects Geometry and alignment Software channel masking

An attempt to find sensible runs All useful runs have sequence numbers 470043+... Please find a list organised by physics programme at, https: //twiki.cern.ch/ twiki/bin/view/ CALICE/DesyTBRuns Cleaned spreadsheet of elog data will soon be available Let s use this resource!

The End. Hey, what s this CALICE logo doing here?