JParc-K DAQ System Mircea Bogdan December 9-10, 2006.

Slides:



Advertisements
Similar presentations
1 JParc-K DAQ System Mircea Bogdan December 9-10, 2006.
Advertisements

6 Mar 2002Readout electronics1 Back to the drawing board Paul Dauncey Imperial College Outline: Real system New VFE chip A simple system Some questions.
MICE Fiber Tracker Electronics AFEII for MICE (Front end readout board) Recall: AFEs mount on ether side of the VLPC cass, with fibers going to the VLPCs.
Interconnection boards Test data memories VME interface Trigger TX Trigger RX FPGA: memory and I/O control DAQ pipelines and buffers DAQ interface.
28 February 2003Paul Dauncey - HCAL Readout1 HCAL Readout and DAQ using the ECAL Readout Boards Paul Dauncey Imperial College London, UK.
Introduction We propose a design of Level-1 trigger and readout chain for the upcoming J-Parc experiment that supports trigger rates in excess of 100 KHz.
28 August 2002Paul Dauncey1 Readout electronics for the CALICE ECAL and tile HCAL Paul Dauncey Imperial College, University of London, UK For the CALICE-UK.
MICE Workshop Sept 2004 AFEII for MICE Recall: AFEs mount on ether side of the VLPC cass, with fibers going to the VLPCs between them. AFE has 8 identical.
Development of novel R/O electronics for LAr detectors Max Hess Controller ADC Data Reduction Ethernet 10/100Mbit Host Detector typical block.
MICE Tracker Readout Increased Data Readout Rate VLSB Development 16 AFE II t boards 8 Visible Light Photon Counter (VLPC) cassettes 4 cryostats.
David Nelson STAVE Test Electronics July 1, ATLAS STAVE Test Electronics Preliminary V3 Presented by David Nelson.
MB, 9/8/041 Introduction to TDC-II and Address Map Mircea Bogdan (UC)
Mircea Bogdan, 5/21/041 Chicago TDC Design and Implementation Mircea Bogdan (UC)
Prototype Test of SPring-8 FADC Module Da-Shung Su Wen-Chen Chang 02/07/2002.
SBS meeting VETROC application for Cerenkov triggering Alexandre Camsonne March 18 th 2015.
Mircea Bogdan, NSS2005 Oct , 2005 – Windham El Conquistador Resort, Puerto Rico1 Simultaneous Sampling ADC Data Acquisition System for the QUIET.
PHENIX upgrade DAQ Status/ HBD FEM experience (so far) The thoughts on the PHENIX DAQ upgrade –Slow download HBD test experience so far –GTM –FEM readout.
SBS meeting VETROC application for Cerenkov triggering Alexandre Camsonne March 18 th 2015.
HBD FEM the block diagram preamp – FEM cable Status Stuffs need to be decided….
HBD FEM Overall block diagram Individual building blocks Outlook ¼ detector build.
Mircea Bogdan, NSS2007 Oct. 27-Nov.3, 2007 – Honolulu, Hawaii1 Custom 14-Bit, 125MHz ADC/Data Processing Module for the KL Experiment at J-Parc M. Bogdan,
Gueorgui ANTCHEVPrague 3-7 September The TOTEM Front End Driver, its Components and Applications in the TOTEM Experiment G. Antchev a, b, P. Aspell.
Status of SVD Readout Electronics Markus Friedl (HEPHY Vienna) on behalf of the Belle II SVD Collaboration BPAC October 2012.
First ideas for the Argontube electronics Shaper, simulations Block Diagram for analog path Delta Code Data Reduction Bus system, Controller Max.
Physics 335 project update Anton Kapliy April 2007.
1 FADC Boards for JPARC-K Preliminary Proposal Mircea Bogdan November 16, 2006.
NUMI Off Axis NUMI Off Axis Workshop Workshop Argonne Meeting Electronics for RPCs Gary Drake, Charlie Nelson Apr. 25, 2003 p. 1.
DAQ/Trigger System proposal for the Angra Neutrino Detector Herman Lima Jr (18 May 2006) Centro Brasileiro de Pesquisas Físicas.
12GeV Trigger Workshop Christopher Newport University 8 July 2009 R. Chris Cuevas Welcome! Workshop goals: 1.Review  Trigger requirements  Present hardware.
SoLiD/PVDIS DAQ Alexandre Camsonne. DAQ limitations Electronics Data transfer.
KLM Trigger Status Barrel KLM RPC Front-End Brandon Kunkler, Gerard Visser Belle II Trigger and Data Acquistion Workshop January 17, 2012.
Jefferson Laboratory Hall A SuperBigBite Spectrometer Data Acquisition System Alexandre Camsonne APS DNP 2013 October 24 th 2013 Hall A Jefferson Laboratory.
SoLID DAQ A.Camsonne SoLID collaboration meeting November 8 th 2013.
1 Level 1 Pre Processor and Interface L1PPI Guido Haefeli L1 Review 14. June 2002.
CBM-TOF-FEE Jochen Frühauf, GSI Picosecond-TDC-Meeting.
Mircea Bogdan Chicago, Oct. 09, BIT, 500 MHz ADC Module for the KOTO Experiment The University of Chicago.
Rutherford Appleton Laboratory September 1999Fifth Workshop on Electronics for LHC Presented by S. Quinton.
Vladimir Zhulanov for BelleII ECL group Budker INP, Novosibirsk INSTR2014, Novosibirsk 2014/02/28 1.
ZHULANOV Vladimir Budker Institute of Nuclear Physics Novosibirsk, Russia Beijing
Super BigBite DAQ & Trigger Jens-Ole Hansen Hall A Collaboration Meeting 16 December 2009.
SVD FADC Status Markus Friedl (HEPHY Vienna) Wetzlar SVD-PXD Meeting, 5 February 2013.
DAQ and Trigger for HPS run Sergey Boyarinov JLAB July 11, Requirements and available test results 2. DAQ status 3. Trigger system status and upgrades.
MADEIRA Valencia report V. Stankova, C. Lacasta, V. Linhart Ljubljana meeting February 2009.
A. Salamon - TDAQ WG Pisa 27/03/ Lkr/L0 Trigger V. Bonaiuto, N. De Simone, L. Federici, A. Fucci, G. Paoluzzi, A. Salamon, G. Salina, E. Santovetti,
Work on Muon System TDR - in progress Word -> Latex ?
DAQ ACQUISITION FOR THE dE/dX DETECTOR
DAQ (i.e electronics) R&D status in Canada
Novosibirsk, September, 2017
DCH FEE STATUS Level 1 Triggered Data Flow FEE Implementation &
Jinfan Chang Experimental Physics Center , IHEP Feb 18 , 2011
PID meeting SNATS to SCATS New front end design
14-BIT Custom ADC Board Rev. B
Production Firmware - status Components TOTFED - status
TDC Testing Status Edge Detector test for up to 7 hits per channel:
Iwaki System Readout Board User’s Guide
AFE II Status First board under test!!.
DCH FEE 28 chs DCH prototype FEE &
New 500 MSa/s 12 bit FADC in VME Sangyeol Kim Notice Co., Ltd.
A New Clock Distribution/Topology Processor Module for KOTO (CDT)
The University of Chicago
14-BIT, 125MHz ADC Module Pedestal Subtraction Mircea Bogdan
14-BIT Custom ADC Board JParc-K Collaboration Meeting
14BIT 125MHz ADC Board for JPARC-K Status Report Mircea Bogdan August 9, 2007 The University of Chicago.
Example of DAQ Trigger issues for the SoLID experiment
DCM II DCM function DCM II design ( conceptual ?)
DCM II DCM II system Status Chain test Schedule.
PID meeting Mechanical implementation Electronics architecture
sPHENIX DOE-SC CD-1/3a Review WBS 1.5.3: CalElec Digitizers
August 19th 2013 Alexandre Camsonne
The QUIET ADC Implementation
Presentation transcript:

JParc-K DAQ System Mircea Bogdan December 9-10, 2006

DAQ System - Block Diagram Custom Boards: - ADC-125MHz, - FADC-500MHz, - Traffic Control, - System Trigger. CsI DAQ up to 2,816 Ch 14Bit/125 MHz : 11 Crates x 16 ADC Bds x16 Ch/Bd Veto DAQ up to 512 Ch 14Bit/125 MHz : 2 Crates x 16 ADC Bds x16 Ch/Bd BHPV DAQ up to 100 Ch 12Bit/500 MHz : 1- 4 Crates x 7 FADC Bds x4 Ch/Bd

DAQ System – Crate Block Diagram Same Crate Configuration for all 3 DAQ Systems ; All Crates: 6U VME 32/64 CBLT; CsI and Veto DAQ – same boards, different firmware; Beam Hole Phase Veto (BHPV) DAQ – different ADC Boards, different firmware.

12-Bit, 500MHz FADC Board – Block Diagram Each FADC channel: one ATMEL - AT84AS001 chip: 12 bits/500MHz; One STRATIX II FPGA can service up to 4 ADC channels : After SERDES, data moved with 125MHz; Trigger rate: 10kHz, 64 samples/trigger (128ns); Input Pipeline: 25 -100us max depth (12,800 - 51,200 samples); Two VME readout buffers - max 128 triggers each (10 ms); Read Out Pulse in sync with VME, generate trigger time stamp; FPGA device migration possible to increase/decrease max pipeline size;

14-Bit, 125MHz ADC Board – Block Diagram Each ADC channel - one AD9445 chip: 14 bits/125MHz; One STRATIX II FPGA can service 16 ADC channels: Logic design and memory - similar to 500MHz FADC without SERDES; Trigger rate: 10kHz, 32 samples/trigger (256ns); Input Pipeline: 25 -100us max depth (3,200 – 12,800 samples); Two VME readout buffers - max 128 triggers, (10 ms); Read Out Pulse in sync with VME, generate trigger time stamp; FPGA device migration possible to increase/decrease max pipeline size;

Readout Throughput 14Bit/125MHz ADC DAQ: 2,816 channels = 11 crates: 16 ADC Boards/Crate x 16 ADC Channels/Board = 256 Channels/Crate. 10 KHz trigger rate, 10% channel hit occupancy, 32 samples/trigger: One channel: 10KHz x 10% x 2Bytes x 32samples = 64 KBPS; 16-channel board: 1 MBPS/board Crate with 16 boards: 16 MBPS - can be sustained via VME64 backplane; 12Bit/500MHz FADC DAQ: 25 -100 channels = 1-4 crates: 6.25 FADC Boards/Crate x 4 ADC Channels/Board = 25 Channels/Crate. 10 KHz trigger rate, 100% channel hit occupancy, 64 samples/trigger: One channel: 10KHz x 12bits x 64samples = 0.96 MBPS; 4-channel board: 3.84 MBPS/board; Crate with 25 channels: 24 MBPS - can be sustained via VME64 backplane;

Preliminary FPGA Design Tests High level of reuse between the two designs; many logic blocks are the same; FPGA requirements: About the same for: 4-ch,500MHz and 16-ch,125MHz boards; May be larger on the 4-ch,500MHz board because of higher readout throughput per board; Preliminary FPGA design tests on both boards with Altera EP2S60F1020C5 ($600): 25us depth pipeline, two 32KBytes readout buffers (256Bits, 1024 words); FPGA device migration possible on the same PCB: With Altera EP2S90F1020C5 ($1,600): ~ 1.8 x memory; With Altera EP2S130F1020C5 ($2,800):~ 2.7 x memory;

Board Manufacturing Cost Estimate 176 pieces ADC-125 Board, 16-ch,125MHz, 6U VME, with EP2S60F1020C5($600): $1,600(parts) + $300(pcb) + $500(assy) = $2,400/board = $150/channel; 7-25 pieces ADC-500 Board, 4-ch,500MHz, 6U VME, with EP2S130F1020C5($2,800): $3,800(parts) + $300(pcb) + $500(assy) = $4,600/board = $1,150/channel; (with EP2S60F1020C5, the price drops to $2,400/board = $600/channel); 14-17 pieces Crate Traffic Controller (CTC) Board: $1,600(parts) + $300(pcb) + $500(assy) = $2,400/board; 1-2 pieces System Trigger Module Board: $4,000(parts) + $3,000(pcb) + $3,000(assy) = $10,000 for 2 boards; 1 Piece 6U VME-VIPA Crate with Power Supplies and Crate CPU: $12,500.

Total DAQ System Cost: ~ $1,500,000. JParc-K DAQ System Cost Estimate (Full Cost: Engineering + Prototyping + Manufacturing) CsI System with 3,000 channels, Crates, CPUs, ADC-125 boards: Total cost: $860,000 i.e. $285/channel; Veto DAQ with 512 channels, Crates, CPUs, ADC-125 boards: Same ADC boards with different firmware; Total cost: $115,000 i.e. $230/channel; Beam Hole Phase Veto (BHPV) DAQ: with 50 channels, Crates, CPUs, ADC-500 boards: With EP2S60F1020C5: $230,000 i.e. $4,600/channel; With EP2S130F1020C5: $260,000 i.e. $5,200/channel; with 100 channels, Crates, CPUs, ADC-500 boards: With EP2S60F1020C5: $290,000 i.e. $2,900/channel; With EP2S130F1020C5: $360,000 i.e. $3,600/channel; 15 pieces Crate Traffic Controller (CTC) Board: Total Cost: $143,000; 2-3 pieces System Trigger Module (STM) Board: Total cost: $105,000; Total DAQ System Cost: ~ $1,500,000.

Design Examples Examples of DAQ Boards designed by 32 Ch, 18Bit/800kHz ADC Board 96 Ch, 1.2ns TDC Board Examples of DAQ Boards designed by UC Electronics Development Group 6 Ch, 8Bit/500MHz FADC Board