Update on DAQ for 12 GeV Hall C. Brad Sawatzky

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Transcription:

Update on DAQ for 12 GeV Hall C Brad Sawatzky

SHMS/HMS Trigger/Electronics H. Fenker 2

SHMS / HMS Triggers SCIN = 3/4 hodoscope planes CER = Cerenkov(s) STOF = S1 + S2 EL-Hi = SCIN + PSh_Hi EL-Lo = 2/3{SCIN, STOF,PSH_Lo}.NOT. CER EL-Real = EL-Hi + EL-Lo PION = SCIN.NOT. CER Pulser/Random trigger EDTM injection for deadtime monitoring Each arm will have its own TS Both coincidence and independent/parallel operation available We will use TS module for trigger prescaling NOTE: There is no Calorimeter Sum for SHMS trigger SHMS Pre-Sh sum does exist 3

Hybrid/Legacy Trigger Will restore HMS trigger, SHMS has same logical design. FASTBUS electronics will be replaced with FADCs (running in integrating mode) and VME CAEN 1190 TDCs A legacy NIM trigger will be implemented. This is our 12 GeV starting point. FADCs can provide ADC, TDC (~1 ns res.), and scaler data CAEN 1190 TDC: 100 ps res. SHMS/HMS DAQ If desired, Calo. FADCs could provide a simple sum, or more sophisticated cluster trigger with latency of ~200 400ns somewhat slow for main trigger, but could be used as a fast clear 1190s support LVDS and ECL, no level translation needed

SHMS/HMS DAQ Modern Trigger/DAQ Stage 2 evolution of system NOT planned for first set of experiments fully pipelined capable 'deadtimeless' operation at >10kHz possible Legacy/NIM logic will be left in place and can be used as either primary or auxiliary trigger. (Will need legacy trigger to debug/cross-check any FADC logic anyway) DAQ can be configured for: high-speed fully-pipelined mode trigger can be generated in NIM logic, or in firmware Hybrid mode ie. in conjunction with non -pipelined 3rd arm, etc.

New Inventory 4 new VXS crates primarily used to support FADCs (special J0 backplane bus) 640 ch JLab FADC [40 mod] SHMS: 422 ch / HMS: 200 ch 2304 ch CAEN 1190 TDC [18 mod] SHMS: 1290 ch / HMS: 810 ch 2 New Trigger Supervisor (TS) boards 5 New Trigger Interrupt (TI) boards 2 Trigger Distribution (TD) boards fans triggers/clocks out to crates 2+2 Signal Distribution (SD) board fans triggers/clocks out to FADCs 3 Crate Trigger Processor (CTP) boards 1 Sub-System Processor (SSP) board 'Special' multi-fiber optical cable run SHMS <-> HMS <-> CH

Several Test-Beds in Operation SHMS Hut FADC/VXS for calorimeter readout (production crate) EEL/126 (1 active system) CAEN 1190/VXS for some Compton tests ESB (2 active systems) FADC + 1190 TDC multicrate readout 1190 TDC readout for SHMS chambers (production crate)

To-Do List General Counting House electronics room cruft cleaned out ~95%+ of NIM/CAMAC hardware collected, boxes of misc cables available and waiting, NIM/VME/CAMAC crates available CODA 2.6 readout scripts exist/tested for all hardware in use HMS list Scintillators are tested Calorimeter status unclear to me(?) Patch between hut and CH needs end-to-end checkout Wire chambers ready for test using FB readout (1st step)» Install VME64 crate with 1190 readout and move cables later... Reconnect signal cables via patch panel into trigger, FADCs, 1190s in Counting House Re-establish CAMAC/NIM trigger in Counting House

To-Do List, cont... SHMS list Initial checkout of detectors has been completed» Hodoscopes all checked out with HV and 'scope in Hut» All calorimeter blocks verified good during installation Calorimeter FADC readout in hut installed, working» Aerogel tested pre-installation; post-install tests ongoing Wirechamber work ongoing in ESB» All chambers hold HV, basic checkout done at Hampton» 1st chamber fully instrumented, looking good 2nd chamber instrumentation will start soon» When ready, we will move working chambers + production readout to SHMS hut as a unit ; crate+cables included. Patch between hut and CH needs end-to-end checkout» Re-test hodoscope signals (any new light-leaks?) Implement CAMAC/NIM trigger in Counting House Connect signals to trigger + readout in Counting House

To-Do List, cont... Beamline List, etc... BPM signal readouts» EDM screens for Big BPMs + any new/moved BPMs Harp status / controls» Who cross-calibrates Harp vs. BPMs? (HC, MCC; when/how?) Raster control / readout BCM readout Helicity reporting / gated scalers EPICS variables» Verify all relevant EPICS PVs are in MCC Archiver, screens updated with any changed names, etc» Magnet readbacks interfaced with MCC Archiver?» Target logging» Hall C HV logging

Misc/Backup Slides

Hodoscopes

Cherekovs

HMS Shower

SHMS Pre-shower

3.4 FADC Sampling Charge Accuracy Hall D FCAL PMT: FEU 84-3 - 10,000 Random height pulses 1090% full scale of ADC range simulated - Sampling frequency makes little difference beyond 250MHz at 12bit, providing ~0.1% charge resolution - PMT pulse shape dominates sample frequency and bit depth of ADC 250MHz @ 12bit From: 16 Doc# 425-v1 Thomas Jefferson National Accelerator Facility Page 16 IPR Nov 27-29, 2012

FADC Sampling Timing Accuracy Hall D FCAL PMT: FEU 84-3 - Timing algorithm developed & tested by Indiana University for the Hall D forward calorimeter. - Implemented on the JLab FADC250 hardware achieving <300ps timing resolution on 50% pulse crossing time with varied signal heights. - Resolution allow reliable information to link calorimeter with tagged electron bunch. Typical timing resolution achieved ~1/10 the sample rate. The PMT shape will drive the ADC sample rate & depth requirements. From: GlueX Doc# 1258-v1 Thomas Jefferson National Accelerator Facility Page 17 IPR Nov 27-29, 2012

Trigger System Diagram TS -> TD -> TI Link 1.25Gb/s Bi-Directional CTP -> SSP -> GTP L1 Trig_Data Uni_Directional Energy Sums Trigger Supervisor (Distribution) BUSY Trigger Sync Trig_Comnd Global Trigger Processing Sub-System Processing (Multi-Crate) Crate Trigger Processing Flash ADC Modules Detector Signals Thomas Jefferson National Accelerator Facility Page 18 IPR Nov 27-29, 2012

F250 Dynamic Noise Suppression Added 60 Hz background with increasing amplitude fan signal to QDC (v792) and FADC FADC signal gets 'pedestal subtracted' event-by-event by averaging samples before the pulse in digitization window. This was done offline, but would be easy to do in firmware. Work done by Charlie Dauchess (now undergrad at Va Tech)