Proposal for read-out of Forward Detector straw tubes PANDA DAT requirements General layout Prototypes M. Idzik, M. Kajetanowicz, K.Korcyl, G. Korcyl,

Slides:



Advertisements
Similar presentations
Tests of CAEN 1190 Multi-hit TDCs Simona Malace Brad Sawatzky and Brian Moffit JLab Hall C Summer Workshop Aug , JLab.
Advertisements

1 Properties of scCVD diamonds irradiated with a high intensity Au beam Jerzy Pietraszko a, W. Koenig a, Träger a for the HADES Collaboration a GSI Helmholtz.
1 MTD Readout Electronics J. Schambach University of Texas Hefei, March 2011.
CHL -2 Level 1 Trigger System Fully Pipelined Custom ElectronicsDigitization Drift Chamber Pre-amp The GlueX experiment will utilize fully pipelined front.
Front-end electronics for Time Projection Chamber I.Konorov Outlook:  TPC requirements  TPC readout options  Options for TPC FE chips  Prototype TPC.
MDT-ASD PRR C. Posch30-Aug-02 1 Specifications, Design and Performance   Specifications Functional Analog   Architecture Analog channel Programmable.
RPC Electronics Status Overall system TDC –Digitizing frequency issue (determine the bin size of the TDC value) Discriminator test result Trigger module.
MICE CM Berkeley 9-12 Feb February 2005 Edda Gschwendtner 1 Control/Monitoring and DAQ for PIDs Edda Gschwendtner.
Octal ASD Certification Tests at Michigan J. Chapman, Tiesheng Dai, & Tuan Bui August 30, CERN.
Trigger-less and reconfigurable data acquisition system for J-PET
Development of novel R/O electronics for LAr detectors Max Hess Controller ADC Data Reduction Ethernet 10/100Mbit Host Detector typical block.
3/7/05A. Semenov Batch-by-Batch Intensity Monitor 1 Two-Channel Batch by Batch Intensity Monitor for Main Injector BBI.
TOF Electronics Qi An Fast Electronics Lab, USTC Sept. 16~17, 2002.
Straw electronics Straw Readout Board (SRB). Full SRB - IO Handling 16 covers – Input 16*2 links 400(320eff) Mbits/s Control – TTC – LEMO – VME Output.
The GANDALF Multi-Channel Time-to-Digital Converter (TDC)  GANDALF module  TDC concepts  TDC implementation in the FPGA  measurements.
TRIGGER-LESS AND RECONFIGURABLE DATA ACQUISITION SYSTEM FOR POSITRON EMISSION TOMOGRAPHY Grzegorz Korcyl 2013.
20/10/2008A. Alici - ALICE TOF Festival1 Electronics and data acquisition of the ALICE TOF detector A.Alici University and INFN, Bologna.
Updates on GEMs characterization with APV electronics K. Gnanvo, N. Liyanage, K. Saenboonruang.
11th March 2008AIDA FEE Report1 AIDA Front end electronics Report February 2008.
9 th Workshop on Electronics for LHC Experiments 2 October 2003 P. Antonioli (INFN/Bologna) A 20 ps TDC readout module for the Alice Time of Flight system:
Self triggered readout of GEM in CBM J. Saini VECC, Kolkata.
Features of the new Alibava firmware: 1. Universal for laboratory use (readout of stand-alone detector via USB interface) and for the telescope readout.
Front-end readout study for SuperKEKB IGARASHI Youichi.
Vertex 2005, Nikko Manfred Pernicka, HEPHY Vienna 1.
Development of the Readout ASIC for Muon Chambers E. Atkin, I. Bulbalkov, A. Voronin, V. Ivanov, P. Ivanov, E. Malankin, D. Normanov, V. Samsonov, V. Shumikhin,
Update on final LAV front-end M. Raggi, T. Spadaro, P. Valente & G. Corradi, C. Paglia, D. Tagnani.
1 07/10/07 Forward Vertex Detector Technical Design – Electronics DAQ Readout electronics split into two parts – Near the detector (ROC) – Compresses and.
Valerio Re, Massimo Manghisoni Università di Bergamo and INFN, Pavia, Italy Jim Hoff, Abderrezak Mekkaoui, Raymond Yarema Fermi National Accelerator Laboratory.
Kraków4FutureDaQ Institute of Physics & Nowoczesna Elektronika P.Salabura,A.Misiak,S.Kistryn,R.Tębacz,K.Korcyl & M.Kajetanowicz Discrete event simulations.
Modeling PANDA TDAQ system Jacek Otwinowski Krzysztof Korcyl Radoslaw Trebacz Jagiellonian University - Krakow.
SPIROC update Felix Sefkow Most slides from Ludovic Raux HCAL main meeting April 18, 2007.
Readout Architecture for MuCh Introduction of MuCh Layout of Much ( proposed several schemes) Read ASIC’s Key features Basic Readout chain ROC Block Diagram.
XLV INTERNATIONAL WINTER MEETING ON NUCLEAR PHYSICS Tiago Pérez II Physikalisches Institut For the PANDA collaboration FPGA Compute node for the PANDA.
Peter LICHARD CERN (NA62)1 NA62 Straw tracker electronics Study of different readout schemes Readout electronics frontend backend Plans.
Peter LICHARD CERN (for NA62) 1 NA62 Straw detector read-out system Introduction to NA62 NA62 layout Straw detector Requirements for straw detector electronics.
1 19 th January 2009 M. Mager - L. Musa Charge Readout Chip Development & System Level Considerations.
CBM-TOF-FEE Jochen Frühauf, GSI Picosecond-TDC-Meeting.
VMM Update Front End ASIC for the ATLAS Muon Upgrade V. Polychronakos BNL RD51 - V. Polychronakos, BNL10/15/131.
Siena, May A.Tonazzo –Performance of ATLAS MDT chambers /1 Performance of BIL tracking chambers for the ATLAS muon spectrometer A.Baroncelli,
CERN PH MIC group P. Jarron 07 November 06 GIGATRACKER Meeting Gigatracker Front end based on ultra fast NINO circuit P. Jarron, G. Anelli, F. Anghinolfi,
Daniel Belver IX Workshop on RPC and Related Detectors, Mumbai February 13-16th 2008 Performances of the Front End Electronics for the HADES RPC wall in.
FEE for Muon System (Range System) Status & Plans G.Alexeev on behalf of Dubna group Turin, 16 June, 2009.
STT read-out concepts Detectors requirements and layout Read-out concepts Developments of Analog FE and Digital Boards STS el. group : INFN, FZ Juelich,
Vladimir Zhulanov for BelleII ECL group Budker INP, Novosibirsk INSTR2014, Novosibirsk 2014/02/28 1.
Overview of TPC Front-end electronics I.Konorov Outline:  TPC prototype development  Readout scheme of the final TPC detector and further developments.
The Slow Control System of the HADES RPC Wall Alejandro Gil on behalf of the HADES RPC group IFIC (Centro Mixto UV-CSIC) Valencia, 46071, Spain IEEE-RT2009.
29/05/09A. Salamon – TDAQ WG - CERN1 LKr calorimeter L0 trigger V. Bonaiuto, L. Cesaroni, A. Fucci, A. Salamon, G. Salina, F. Sargeni.
FWD Meeting, Torino, June 16th, News from Cracow on the forward tracking J. Smyrski Institute of Physics UJ Tests of CARIOCA and LUMICAL preamplifiers.
Michael Traxler, GSI1 DAQ: Status of Upgrade Outline EU-Contract and BMBF money Readout and IPU-boards –MU V2 –TOF-Readout and IPU TRB V2 –Test-Board.
Work on Muon System TDR - in progress Word -> Latex ?
DAQ ACQUISITION FOR THE dE/dX DETECTOR
Use of FPGA for dataflow Filippo Costa ALICE O2 CERN
DCH FEE STATUS Level 1 Triggered Data Flow FEE Implementation &
Read-out set-up and test results
Modeling event building architecture for the triggerless data acquisition system for PANDA experiment at the HESR facility at FAIR/GSI Krzysztof Korcyl.
Beam detectors performance during the Au+Au runs in HADES
A General Purpose Charge Readout Chip for TPC Applications
on behalf of the AGH and UJ PANDA groups
Present Read Out Chain for the PANDA Barrel DIRC
Alternative FEE electronics for FIT.
96-channel, 10-bit, 20 MSPS ADC board with Gb Ethernet optical output
DCH FEE 28 chs DCH prototype FEE &
HADES goes SIS-100* SIS-18 DAQ upgrade possibilities
VELO readout On detector electronics Off detector electronics to DAQ
Status of n-XYTER read-out chain at GSI
Example of DAQ Trigger issues for the SoLID experiment
High Rate Photon Irradiation Test with an 8-Plane TRT Sector Prototype
Front-end Electronics for the LHCb Preshower Rémi CORNAT, Gérard BOHNER, Olivier DESCHAMPS, Jacques LECOQ, Pascal PERRET LPC Clermont-Ferrand.
PID meeting Mechanical implementation Electronics architecture
The LHCb Front-end Electronics System Status and Future Development
Presentation transcript:

Proposal for read-out of Forward Detector straw tubes PANDA DAT requirements General layout Prototypes M. Idzik, M. Kajetanowicz, K.Korcyl, G. Korcyl, H.Kuc, A. Misiak, P.Salabura, J. Smyrski, R. Trębacz Krakow Panda group

Straw tubes read-out chain FE cards (preamp+ shaper+ discriminator) Sensitivity ~ 3 fC, noise <1 fC based on available ASIC's : CARIOCA or new development based on LUMICAL++ (Marek Idzik) located on detector frames differential output (LVDS) Trigger and Read-our Boards- TRB based on HTDC : time measurement + TimeOverThreshold for amplidtude meas. time w.r.t external common clock, 780 ps binning (low resolution-40 MHz clock) Zero suppression & Hit detection. Slow control interface (i.e EPICS) data output via GBit optical link Common Clock Distribution Detector Concentrator : Compute Node ATCA standard several TRB inputs Detector memory buffer feature extraction –cluster and tracklet finding i.e based on fired wires numbers and time stamps FE TRB Detector Concentrator Straws: ~ tubes (6 chambers*8 planes) Max drift time ~ kHz max averaged hit rate pile up <10%, 2-3 ns time resolution Gain: ~ 2 * 10 4 Ar (90)/CO 2 (10) mixture

FEE Connection to detector Z det (f)  (f >50 MHz)  L/C=370  C det = 9pF/m (14-18 pF) NEED LOT OF ATTENTION !!!! ? (not decided, yet) CARIOCA ?

FEE cards should be electr. shielded ! FEE (LUMICAL) connected to straws (UJ october 2008) FEE Connection to detector additional resis. ?

CARIOCA 10 CARIOCA (IBM 0.25  m CMOS6SF ): 8 channels, preamp, shaper, BLR, discriminator, differential (LVDS) output: radiation hardness (checked for LHC requirements: no effects up to 20 Mrad dose) Sensitivity : at 220 pF for negative pulse : 2.3 mV/fC peaking time 14 ns, pulse width 60 ns power consumption 25 mW/channel 4 ASIC FEE-UJ’2008 CERN -proto

Characteristic (I): amplitude as a function of injected charge : CARIOCA 10 gain ~ 2,6 mV/fC TR TD TF

Carioca+Straw tube (TOT) HV: 1500 V HV: 1400 V no source Sr 90 source Noise (external pick-up) ~ 8 fC (status last year) – not satisfactory New FEE board (better grounding) + em. shielding expected to improve situation

Time Over Threshold – energy loss HADES MDC Signal height (V) ~ dE/dxdE/dx vs momentum Jochen Markert, A.Schmah (GSI) 24 * ~7 mm gaps He:Iso (2:1) FEE based on ASD8 chip

Time Over Threshold – energy loss resolution measured by HADES MDC

Garfield simulations for straws Pions 0.8 GeV/c Protons 0.8 GeV/c one strawaverage from 20 straws Ar:CO 2 2 bars HV 1500 V charge integration time 100 ns perpendicular incidence  ~5-6%

AddOn connector Trigger and Read-out Board developed in synergy with HADES experiment 128 channel TDC based on HPTDC optional On-board DAQ functionality via ETRAX- FS (LINUX OS MHz processors: 100MBit/s Fast Ethernet interface) Optical Digital link 2GBit/s) High speed (15 Gb/s) AddOn-connector (32 LVDS) DSP (TigerSharc TS201) for on-line trigger algorithms/ pre-processing LVDSTTL Virtex4 (LX40) EtraxFS SDRAM 2GBit/s optical link DSP (TS201) Optional SDRAM 100MBit/s ethernet HPTDCHPTDCHPTDCHPTDC

Marek Palka, GSI13 The TRBv2 DC/DC ETRAX DSP FPGAVirtex4 TDC 0, 1 TDC 2, 3 SDRAM Optical link SDRAM Ethernet 4 TDC – 128 channels (~40ps RMS resolution) FPGA – Virtex4LX40 4x512Mb SDRAM ETRAX FS 100Mb/s,TCP/IP 2,5 Gb/s optical link DSP TigerSharc AddOn connector DC/DC converters

HUB 12 TRB Conversion from 2 Gb/s 8/10 bit serial transmission to Ethernet protocol (UDP) 16 SFPs (Small Form-factor Pluggable transceivers) optical connectors receive/transmit: ie 12 * 2Gb/s and 4 * 1Gb Ethernet FPGA (Lattice SCM 25) with IP core Conversion to Ethernet tested (G. Korcyl)

Expected rates p beam = 15 GeV/c, N Int =2x10 7 s -1.

HPTDC working mode with free running clock 1 MHz trigger clock 1  s matching window (1,2  s searching window) (T.latency=match.window) Multiplicty of hit/channel  0.4 (in window) by 400 kHz /wire hit losses neglegible (concern for >3 MHz/channel) TDC data: leading & trailing edge : 32 bits(header: TDC id, Event ID, Bunch Id) 32 bits data : TDC id, channel, data 19 bits (pairing mode: 12 bits trailing + 7 bits width) 32 bits(trailer) clock (1MHz) time match. window T

Data flow estimate (example) 128 channels/wire plane :4 FEE(32 channels each) - 1 TRB card (4x32 channels HPTDC) 2.0 Gbit/s link (250 MByte/s )- total max load (4 links) =1.0 GByte/s average maximal load/TRB (1 HPTDC): 13 MHit/s ( 13 hits per 400 kHz rate/wire 13 MHits*10 Bytes(hit=trailing + falling edge) = 130 MByte/s x 8 (wire planes) FEE TRB 4 links (1 GByte/s) to Compute Nodes wire plane O degree plane Left (L) O degree plane Right (R)

back-up slides

Characteristics : Amplitude as a function of injected charge: LumiCal (AGH) ASIC gain ~ 13 mV/fC

Pulses from detector in LUMIVAL (Rf mode) X- ray source 55 Fe HV = 1200 VHV = 1350 V Pulses from iron source 55 Fe, in gas mixture 90 % Ar 10 % CO 2 Visible differences between pulses from escape peak and main peak, At picture on the right side pulses saturation of large pulses is visible shape changes because of amplitude saturation after X-ray escape full absorption

Cosmic rays: straw tube with LumiCal chip and ADC with gate signal from scintillating detector HV = 1300 V, gas mixture 90 % Ar 10 % CO 2 noise peak, generated because of larger scintillator area as compared to straw tube

Detector and DAT requirements interaction rate: 20 MHz raw data flow: GB/s typ. event size: 4 – 8 kB lack of ONE SPECIFIC hardware trigger signal continuously sampling FE (time stamps) flexibility in the choice of triggering algorithms

PANDA DAT architecture (one possible choice) 2 alternative options considered so far (K. Korcyl ) 1.push and pull 2.„push only”

24 The HADES DAQ (>100 TRBs!) CTS... TRB for RPC TRB + MDC AddOn TRB + RICH AddOn TRB + Shower AddOn LVL1 Trigger box TRB for Time Wall,Start,Veto TRB + TOF AddOn Parallel Event Building (computers) Ethernet to the front end electronics TRB + HUB AddOn TRB + General purpose AddOn TRBnet VME CPU

HPTDC features Used in many HEP experiments. Developed at CERN, produced in IBM technology 0.25  m CMOS (ibm) 32 channels multihit TDC with variable resolution: 785ps, 195ps, 98ps, 25ps (LSB) - measurement wrt. free running clock, self calibration, double pulse resolution typ. 5 ns Max hit rate/channel 2 MHz, Trigger rates up to clock Internal buffer to story hits (max 256 hits/8 channel)- buffer BUT with 4 deep derandomizer in each channel individual registration of leading and trailing edges inside internal chip buffers- Time over Threshold Two operation modes: A: TRIGGER MATCHING disabled. The raw time measurements from input channels are passed unchanged to the read-out fifo and can be readout to external buffers. 40 MHz read-out B. TRIGGER MATCHING enabled. Hits inside pre-programmed window are filtered. Latencies <50  s High rates->low latencies

HPTDC hit losses 25 ns dead time reduces loss by factor 10 at 3 MHz rate hit rate