CBM Collaboration Meeting, GSI 10 - 13.03.2009 Experimental features of strip-RPCs Motivation FOPIs Multistrip-Multigap-RPCs Results Conclusions.

Slides:



Advertisements
Similar presentations
1 Beam Test Results of USTC LMRPC modules (50cm) Yongjie Sun presnted by Hongfang Chen.
Advertisements

Wang Yi, Tsinghua University SoLID collaboration meeting, Status of MRPC-TOF 1 Wang Yi Department of Engineering Physics Tsinghua University,
E/π identification and position resolution of high granularity single sided TRD prototype M. Târzilă, V. Aprodu, D. Bartoş, A. Bercuci, V. Cătănescu, F.
Development of timing RPCs Presented by P.Fonte for the TOF-RPC group.
Aging, High Rate and Shielding L. Lopes Lip-Coimbra.
1 Sep. 19, 2006Changguo Lu, Princeton University Induced signal in RPC, Configuration of the double gap RPC and Grouping of the strips Changguo Lu Princeton.
Status of MRPC-TOF Wang Yi Department of Engineering Physics Tsinghua University, Beijing, China 1.
1 VCI, Werner Riegler RPCs and Wire Chambers for the LHCb Muon System  Overview  Principles  Performance Comparison: Timing, Efficiency,
ARNAB BANERJEE Variable Energy Cyclotron Centre, India.
RPC Update José Repond Argonne National Laboratory American Working Group On Linear Collider Calorimetry 16 September 2003 What’s new since Cornell…
1 Apr. 28, 2007 Test of the Pulse Height and Time Jitter for the IHEP Full-Size RPC’s with 8-m-Long Readout Strip Planes C. Lu, K. McDonald and W. Sands.
Mauro Raggi Status report on the new charged hodoscope for P326 Mauro Raggi for the HODO working group Perugia – Firenze 07/09/2005.
RPC (Resistive Plate Chamber)
Naba K Mondal, TIFR, Mumbai ICAL ( conceptual) INO Peak at Bodi West Hills Prototype ICAL at VECC 2mX2m RPC Test Stand at TIFR ASIC for RPC designed at.
November 5, 2004V.Ammosov ITEP-Moscow, Russian CBM meeting 1 IHEP possible participation in CBM TOF system Vladimir Ammosov Institute for High Energy Physics.
15 th CBM collaboration meeting, GSI, Darmstadt, Germany, April 12-16, 2010Wang Yi, Tsinghua University R&D status of low resistive glass and high rate.
Cross-talk in strip RPCs D. Gonzalez-Diaz, A. Berezutskiy and M. Ciobanu with the collaboration of N. Majumdar, S. Mukhopadhyay, S. Bhattacharya (thanks.
Presented by: Katayoun Doroud World Laboratory fellow under Supervision of: Crispin Williams ALICE TOF General meeting, CERN – Build 29, 9 December 2009.
CBM-Meeting, Darmstadt A.Schüttauf for the FOPI- collaboration FOPIs new MMRPC-barrel.
PADI status Mircea Ciobanu 11 th CBM Collaboration Meeting February 26-29, 2007, GSI FEE1 PADI.
Diego González-Díaz (GSI-Darmstadt) A. Berezutskiy (SPSPU-Saint Petersburg), G. Kornakov (USC-Santiago de Compostela), M. Ciobanu (GSI-Darmstadt), Y. Wang.
V. Ammosov 13th CBM meeting,GSI,March 10 1 Beam test of pad tRPCs with ultra-thin glass Status of IHEP+INR activity for high rate RPCs.
Measurements of several parameters of plasma panels October 2011.
RPC R&D status in Bucharest (JRA12-I3HP) Mihai Petrovici - CBM-Meeting, GSI, March 1,2006 Short history SMSMGRPC – Glaverbel Glass Prototype –Construction.
Third workshop on hadron physics in ChinaWang Yi, Tsinghua University A conceptional design of SOLID-TOF Outline: Development of low resistive glass and.
Design of a readout system for RPCs Olu Amoda2 The LODEN Group The group is an association of Fermilab scientists who teamed up to build a cosmic ray.
Prototypes of high rate MRPC for CBM TOF Jingbo Wang Department of Engineering Physics, Tsinghua University, Beijing, China RPC-2010-Darmstadt, Germany.
Ingo DeppnerDPG-Frühjahrstagung, Mainz, A Multistrip-MRPC Prototype for the CBM Time-of-Flight Wall Outline: CBM-ToF requirements Conceptional.
Mariana Petris, CBM Collaboration Meeting, October 13-18, 2008, Dubna Mariana Petris, NIPNE - Bucharest C B M In-Beam Test Results of the Pestov Glass.
Report on beam test results of high-rate MRPCs Jingbo Wang Department of Engineering Physics, Tsinghua University, Beijing, China.
18/03/2010 DPG Bonn – March Session: HK 48 A demonstrator for the CBM Time of Flight wall electronic readout chain Pierre-Alain Loizeau PI – Uni.
Diego González-Díaz (GSI-Darmstadt) GSI, now R3B!
HIMMuju resort Light Fragment Production in Central Heavy Ion Collisions and the FOPI ToF Upgrade Project  Introduction  Ru+Ru at 0.4 and.
长读出条 MRPC 性能研究 孙勇杰 Key Laboratory of Technology of Particle Detection and Electronics, USTC-IHEP, CAS Center of Particle Physics and Technology, USTC.
Diego González-Díaz (GSI-Darmstadt) A. Berezutskiy (SPSPU-Saint Petersburg), G. Kornakov (USC-Santiago de Compostela), M. Ciobanu (GSI-Darmstadt), J. Wang.
July 8, 2003V.Ammosov GSI, CBM meeting1 RPC TOF system for HARP experiment (Applicability for CBM) Vladimir Ammosov Institute for High Energy Physics Protvino.
MRPC Beam GSI Yongjie Sun University of Science and Technology of China.
STS simulations: Layout, digitizers, performance Radoslaw Karabowicz GSI.
Slide 1Crispin Williams INFN BolognaALICE TOF The ALICE-TOF system 1. Quick overview of the TOF system that we are building 2. The Multigap Resistive Plate.
Ingo DeppnerRPC 2012 Workshop, INFN, Feb A Mutistrip MRPC prototype for the CBM Time-of Flight wall Outline: Motivation / CBM-ToF Requirements.
ITEP participation to the CBM TOF project ITEP ALICE - TOF group CBM – Russia meeting at ITEP, Nov 5 th, 2004.
CBM Collaboration Meeting. GSI, Darmstadt CBM Silicon Tracking System. CBM-01 sensors characterization. V.M. Pugatch Kiev Institute for Nuclear.
Study of glass properties as electrod for RPC
XIII workshop on RPC and related detectors. GENT university, Belgium, Feb Wang Yi, Tsinghua University 1 Development and test of real-size.
CBM-TOF-FEE Jochen Frühauf, GSI Picosecond-TDC-Meeting.
Ingo DeppnerDPG-Frühjahrstagung, Darmstadt, März Outline: CBM-ToF requirements What is an (M)RPC? Tof wall arrangements Ceramics RPC and.
Ingo DeppnerSTAR Regional Meeting at USTC Hefei Ingo Deppner Physikalisches Institut der Uni. Heidelberg CBM TOF prototypes STAR Regional.
Status of the Front-end-Electronics based on NINO ASIC for the Time-of-Flight measurements in the MPD V. A. Babkin, M.G. Buryakov, V. M. Golovatyuk, S.
NSS2006Shengli Huang1 The Time of Flight Detector Upgrade at PHENIX Shengli Huang PHENIX Collaboration Outlines: 1.Physics motivations 2.Multi-gap Resistive.
Beam detectors in Au+Au run and future developments - Results of Aug 2012 Au+Au test – radiation damage - scCVD diamond detector with strip metalization.
IX RPC Workshop, Mumbai FOPIs new MMRPC-Barrel A.Schüttauf for the FOPI- collaboration.
The ALICE-TOF system 1. Quick overview of the TOF system that we are building 2. The Multigap Resistive Plate Chamber -what is it? 3. Difference in.
High rate time of flight system
A systematic study of cross-talk limitations in RPC timing
Performance studies of a single HV stack MRPC prototype for CBM
Department of Engineering Physics, Tsinghua University, Beijing, China
RPC with strip readout Last results from test of timing glass
Performance of timing-RPC prototypes with relativistic heavy ions
RPC working gas (C2H2F4/i-C4H10/SF6): Simulation and measurement
CMS muon detectors and muon system performance
Multigap Resistive Plate Chambers (MRPC)
Conceptual design of TOF and beam test results
MRPC -High Time Resolution Detector R&D at USTC CHINA Chen, Hongfang 2001/Oct. Oct.2001, Beijing MRPC,USTC.
Muon Detector Jiawen ZHANG 16 September 2002.
Impedance & Bandwidth Measurements of '2-strip anode test plate'
Impedance & Bandwidth Measurements of '2-strip anode test plate'
Impedance & Bandwidth Measurements of '2-strip anode test plate'
Update on SoLID-TOF Wang Yi Outline: Conceptual design of SoLID-TOF
High time resolution TOF for SoLID
Presentation transcript:

CBM Collaboration Meeting, GSI Experimental features of strip-RPCs Motivation FOPIs Multistrip-Multigap-RPCs Results Conclusions

CBM Collaboration Meeting, GSI Motivation CBM ToF wall area ~ 100 m modules with ~ 1 m 2  t 95 % rate ~ kHz/cm 2 ~ channels Multi strip RPCs are one of the possibilities to fulfill the CBM-ToF requirements. The characteristical features of strip-RPCs can be determined with the FOPI Multistrip-Multigap-RPCs.

CBM Collaboration Meeting, GSI MMRPC design Multi-pin connector Multi-strip anode Capacitor block FOPIs MMRPC - parameters active area 90 x 4,6 cm strips16 strip / gap 1.64 / 0.9 mm glass thickness1 mm / 0.5 mm number of gaps2 x 4 gap width 220  m gas: Reclin/SF 6 /iso-But 80/15/5 Mounting table MRPC glass stack

CBM Collaboration Meeting, GSI FOPIs MMRPC barrel FOPI´s new ToF-barrel was used during the first Ni+Ni run in September 2007 MMRPC Barrel characteristics: - 30 SM, 5 counters each with 16 strips time charge channels - active area 5.12 m 2 -  t 95 %, rate ~ 0,02 kHz/cm 2 RPCPreamp.Disc. QDCTAC FEE 5 Taquila input pulser QDC ouput TAC ouput Elec. resol. FEE ~ 18 ps TAC ~ 10 ps  t ~ 15 ps  E < 25 ps 10 bit12 bit free running common stop system at 40 MHz

CBM Collaboration Meeting, GSI MMRPC performance  t < 94 ps v [cm/ns] p [GeV/c] p K+K+ ++ d t T.I. Kang system time resolution

CBM Collaboration Meeting, GSI Cluster size Cluster size drops at the edges - pure geometrical effect mean cluster size is  4.2 for the inner strips cluster cluster = group of neighboring strips with signals generated by a single avalanche 11 mm

CBM Collaboration Meeting, GSI Cluster charge vs.  minimum ionizing particles correlation between mean cluster charge and energy deposition of the particle (Bethe-Bloch) mean cluster charge

CBM Collaboration Meeting, GSI Mean cluster charge - charge drops on the size strips - edge effects diminish the electrical field cathode anode strips ~5 mm strip: 1.64 mm gap: 0.6 mm

CBM Collaboration Meeting, GSI intrinsic time resolution intrinsic time resolution = time difference between hits in different strips for one cluster in the middle region of the rpc the intrinsic time resolution is about 30 ps  electronic time res. The degradation towards the sides can be understood by the decreasing signal-to-noise ratio caused by the dropping pulse hight.

CBM Collaboration Meeting, GSI cluster size dependence Same argumentation as in the slide before. more strips per cluster  more charge and pulse hight  better signal-to-noise ratio  better intr. time resolution

CBM Collaboration Meeting, GSI cluster size dependence charge per cluster grows linearly with the cluster size

CBM Collaboration Meeting, GSI Conclusions -The FOPI MMRPC is ideal to study the characteristics of narrow strip counters. - side effects are clearly identified  build larger structures. - cross talk does not seem to be a problem (so far) - multihit analysis just started pickup electrode RPC development for CBM active area 20 x 16,5 cm strips8 strip / gap 19.1 / 0.9 mm 4 strips are subdivided sub-strip / gap 1.6 / 0.9 mm glass typefloat glass thickness0.5 mm number of gaps2 x 4 gap width 220  m FOPI type read out

CBM Collaboration Meeting, GSI People GSI – FOPI:Uni-HD:Korea University, K.Hildenbrand M.CiobanuSeoul: T.I.Kang I.DeppnerB.Hong Y.J.Kim N.Herrmann M.Kis P-A. Loizeau P.Koczon K.Piasecki GSI-EE: Y.Leifels A.Reischl E.Badura M.Marquardt Y. ZhangR.Hardel W.ReisdorfK.Koch M.S.RyuNIPNE Bucharest:N.Kurz A.SchüttaufM.PetroviciW.Ott J.WeinertV.SimionR.Schulze X.Zhang N.Zernezki thank you