Angular resolution of LAT Agnieszka Kowal University of Science and Technology, Cracow TESLA Workshop on Forward Calorimetry Cracow, 10 October 2003.

Slides:



Advertisements
Similar presentations
NDVCS measurement with BoNuS RTPC M. Osipenko December 2, 2009, CLAS12 Central Detector Collaboration meeting.
Advertisements

Proposal for a new design of LumiCal R. Ingbir, P. Ruzicka, V. Vrba October 07 Malá Skála.
GlueX Simulations Status Report on CD3 geometry Richard Jones GlueX Collaboration Meeting, Newport News, January 10-12, 2008.
NuMI Offaxis Near Detector and Backgrounds Stanley Wojcicki Stanford University Cambridge Offaxis workshop January 12, 2004.
Experimental Aspects of Precision Luminosity Measurement contributions from Forward Calorimetry Collaboration L.Suszycki AGH University of Science and.
R 3 B Gamma Calorimeter H. Alvarez Pol – R 3 B Gamma Calorimeter NUSTAR Calorimeter WG – Valencia 17/06/05 H. Alvarez Pol, D. Cortina, I. Durán GENP –
Peter Fauland (for the LHCb collaboration) The sensitivity for the B S - mixing phase  S at LHCb.
Luminosity and beam calorimeter report E. Kouznetsova, DESY.
H. Alvarez Pol - NUSTAR Calorimeter WG R3B/EXL Collaboration Meeting - Santiago Sept Geometrical design, simulation progress and first detector.
Angular resolution study of isolated gamma with GLD detector simulation 2007/Feb/ ACFA ILC Workshop M1 ICEPP, Tokyo Hitoshi HANO collaborated with Acfa-Sim-J.
Performance of the PANDA Barrel DIRC Prototype 1 GSI Helmholtzzentrum für Schwerionenforschung GmbH, Darmstadt 2 Goethe-Universität Frankfurt Marko Zühlsdorf.
Simulation Calor 2002, March. 27, 2002M. Wielers, TRIUMF1 Performance of Jets and missing ET in ATLAS Monika Wielers TRIUMF, Vancouver on behalf.
Ronen Ingbir Collaboration High precision design Tel Aviv University HEP Experimental Group Cambridge ILC software tools meeting.
Jan MDI WS SLAC Electron Detection in the Very Forward Region V. Drugakov, W. Lohmann Motivation Talk given by Philip Detection of Electrons and.
Octobre MPI Munich FCAL Workshop in Munich W. Lohmann, DESY The 14 mrad X-angle, two IPs The push-pull option The next calendar dates Where we are.
Analysis of Beamstrahlung Pairs ECFA Workshop Vienna, November 14-17, 2005 Christian Grah.
March 2004LCWS Stanford Instrumentation of the Very Forward Region of a Linear Collider Detector Wolfgang Lohmann, DESY.
International Workshop on Linear Colliders, Geneve Muon reconstruction and identification in the ILD detector N. D’Ascenzo, V.Saveliev.
Instrumentation of the very forward region of the TESLA detector – summary of the Workshop on Forward Calorimetry and Luminosity Measurement, Zeuthen,
Simulation of physics background for luminosity calorimeter M.Pandurović I. Božović-Jelisavčić “Vinča“ Institute of Nuclear Sciences, Belgrade, SCG.
TOP counter overview and issues K. Inami (Nagoya university) 2008/7/3-4 2 nd open meeting for proto-collaboration - Overview - Design - Performance - Prototype.
Ivan Smiljanić Vinča Institute of Nuclear Sciences, Belgrade, Serbia Energy resolution and scale requirements for luminosity measurement.
PID for super Belle (design consideration) K. Inami (Nagoya-u) - Barrel (TOP counter) - Possible configuration - Geometry - Endcap (Aerogel RICH) - Photo.
Angular resolution study of GLD Calorimeter 2006/Dec/21 ILC-sousei Annual Meeting M1 ICEPP, Tokyo Hitoshi HANO.
1Frank Simon ALCPG11, 20/3/2011 ILD and SiD detectors for 1 TeV ILC some recommendations following experience from the CLIC detector study
Karsten Büßer Instrumentation of the Forward Region of the TESLA Detector International Europhysics Conference on High Energy Physics Aachen, July 19th.
ILC-ECFA Workshop Valencia November 2006 Four-fermion processes as a background in the ILC luminosity calorimeter for the FCAL Collaboration I. Božović-Jelisavčić,
Latifa Elouadrhiri Jefferson Lab Hall B 12 GeV Upgrade Drift Chamber Review Jefferson Lab March 6- 8, 2007 CLAS12 Drift Chambers Simulation and Event Reconstruction.
© Imperial College LondonPage 1 Tracking & Ecal Positional/Angular Resolution Hakan Yilmaz.
Optimization of the Design of the Forward Calorimeters ECFA LC Workshop Montpellier, 15 November 2003 *FC Collaboration: Colorado, Cracow, DESY(Zeuthen),
A Clustering Algorithm for LumiCal Halina Abramowicz, Ronen Ingbir, Sergey Kananov, Aharon Levy, Iftach Sadeh Tel Aviv University DESY Collaboration High.
A Luminosity Detector for the Future Linear Collider Ronen Ingbir Prague Workshop HEP Tel Aviv University.
Silicon sensors for LumiCal Two possible options Wojciech Wierba Institute of Nuclear Physics PAN Cracow.
HEP Tel Aviv University LumiCal (pads design) Simulation Ronen Ingbir FCAL Simulation meeting, Zeuthen Tel Aviv University HEP experimental Group Collaboration.
Pad design present understanding Tel Aviv University HEP Experimental Group Ronen Ingbir Collaboration High precision design Tel-Aviv Sep.05 1.
February, INP PAN FCAL Workshop in Cracow W. Lohmann, DESY The BCD (Baseline Configuration Document) The next calendar dates Where we are with FCAL.
Overview of the High-Level Trigger Electron and Photon Selection for the ATLAS Experiment at the LHC Ricardo Gonçalo, Royal Holloway University of London.
11/18/2016 Test beam studies of the W-Si tracking calorimeter for the PHENIX forward upgrade Y. Kwon, Yonsei Univ., PHENIX.
1 Some results from LumiCal Monte Carlo Studies Michał Karbowiak, B. Pawlik, L. Zawiejski Michał Karbowiak (*), B. Pawlik, L. Zawiejski Institute of Nuclear.
Sebastian Kuch, Rezo Shanidze Preliminary Studies of the KM3NeT Physics Sensitivity KM3NeT Collaboration Meeting Pylos, Greece, April 2007.
FCC-hh HCAL software goals Ana Henriques (thanks for Clement Helsens, Carlos Solans input)
HEP Tel Aviv UniversityLumical - A Future Linear Collider detector Lumical R&D progress report Ronen Ingbir.
The Luminosity Calorimeter Iftach Sadeh Tel Aviv University Desy ( On behalf of the FCAL collaboration ) June 11 th 2008.
1 LumiCal Optimization Simulations Iftach Sadeh Tel Aviv University Collaboration High precision design May 6 th 2008.
Calibration of the ZEUS calorimeter for hadrons and jets Alex Tapper Imperial College, London for the ZEUS Collaboration Workshop on Energy Calibration.
October DESY PRC Instrumentation of the Very Forward Region of a Linear Collider Detector Univ. of Colorado, Boulder, AGH Univ., INP & Jagiell.
Tungsten-Silicon Luminosity Detector with Flat Geometry Ronen Ingbir Tel Aviv University High Energy Physics Experimental Group.
Electron Identification Efficiency of the BeamCal (modified SiD02) Jack Gill, Uriel Nauenberg, Gleb Oleinik University of Colorado at Boulder 3 March 2009.
September 2007SLAC IR WS Very Forward Instrumentation of the ILC Detector Wolfgang Lohmann, DESY Talks by M. Morse, W. Wierba, myself.
Study of Charged Hadrons in Au-Au Collisions at with the PHENIX Time Expansion Chamber Dmitri Kotchetkov for the PHENIX Collaboration Department of Physics,
Boogert and Miller; Luminosity Measurement questions; calorimeter-related. 1 Luminosity Measurement questions; calorimeter-related Stewart Takashi Boogert.
HEP Tel Aviv University Lumical R&D progress report Ronen Ingbir ECFA - Durham2004 Lumical - A Future Linear Collider detector.
November, 7, 2006 ECFA06, Valencia, Spain LumiCal & BeamCal readout and DAQ for the Very Forward Region Wojciech Wierba Institute of Nuclear Physics Polish.
FCAL Krakow meeting, 6. May LumiCal concept including the tracker R. Ingbir, P.Růžička, V. Vrba.
I nstrumentation of the F orward R egion Collaboration High precision design ECFA - Durham2004 University of Colorado AGH University, Cracow I nstitute.
Simulation and reconstruction of CLAS12 Electromagnetic Calorimeter in GSIM12 S. Stepanyan (JLAB), N. Dashyan (YerPhI) CLAS12 Detector workshop, February.
LumiCal High density compact calorimeter at the ILC Wojciech Wierba Institute of Nuclear Physics PAS Cracow, Poland.
Initial proposal for the design of the luminosity calorimeter at a 3TeV CLIC Iftach Sadeh Tel Aviv University March 6th 2009
Sebastian Kuch University Erlangen-Nürnberg
Luminosity Measurement using BHABHA events
LKr inefficiency measurement
SuperB EMC Computing Foreseen activities and software/computing needs
Simulation study for Forward Calorimeter in LHC-ALICE experiment
Status of Compton Analysis
Michele Faucci Giannelli
LAT performance studies
Workshop on Forward Calorimetry Prague, April 16 Impact of Bhabha scattering on the BeamCal performances Vladimir Drugakov NC PHEP, Minsk/DESY Zeuthen.
Luminosity and beam calorimeter report E. Kouznetsova, DESY
Fanglei Lin JLEIC R&D Meeting, August 4, 2016
Option 1: Reduced FF Quad Apertures
Presentation transcript:

Angular resolution of LAT Agnieszka Kowal University of Science and Technology, Cracow TESLA Workshop on Forward Calorimetry Cracow, 10 October 2003

2 Agenda LAT geometry angle reconstruction method different reconstruction schemes results from each reconstruction approach resolution in  and  summary and outlook

3 Detector Layout rightside longitudinal cross section view of the detector LAT distance from the IP cm LAT radial dimensions 8-28 cm angular coverage 26.2<  <82 mrad 0<  <360 deg

4 Simulated LAT Structure  Si/W calorimeter  8/16/20/32/64/128 concentrical cylinders (in r)  30 rings (in z)  24/48 sectors (in  )  analyzed angular range:  30<  <78 mrad  0<  <360 deg

5 Angle reconstruction method average over all LAT cells polar angle reconstruction azimuthal angle reconstruction

6 Angle reconstruction schemes  reconstruction from all rings (all readout channels) from alternate rings with different # of cylinders (to improve linearity) from odd rings only (reduction of readout channels)  reconstruction as above for 24 or 48 sectors 8/32 cylinders in odd/even rings

7  reconstruction from all rings „oscillations” around linear dependence due to detector granularity fade for 32 cylinders and more resolution in  about 0.2 mrad

8  reconstruction from alternate rings with 8 and 32 cylinders compared with  reconstruction from all rings with 20 cylinders (same number of readout channels) linearity „oscillations” still present resolution worse than expected cyl. #  [mrad] RMS [mrad] 8/

9  reconstruction from odd rings good linearity for 32 or more cylinders problems with  resolution unexpected events outside the  peak spoil the resolution these events cut out „mechanically”

10 LAT resolution in  as a function of the # of cylinders  obtained from all and odd rings are in agreement  RMS value constant for 32 or more cylinders  bias is smaller with 48 sectors 24 sectors48 sectors

11  reconstruction for 24 and 48 sectors linearity „oscillations” due to detector granularity smaller for 48 sectors good resolution as expected same problems with  resolution for odd ring readout as for 

12 LAT resolution in  as a function of the # of cylinders  obtained from all and odd rings are in agreement no dependence of the RMS on the # of cylinders  resolution better with 48 sectors 24 sectors48 sectors

13 Summary angular resolution (mean and RMS) constant in  and  for 32 and more cylinders in LAT better resolution in  and  for 48 sectors good reconstruction linearity readout from odd rings only would allow reduction of readout channels with no effect on the resolution closer look needed at the few events outside the  and  peaks for odd ring readout best choice: 32 cylinders (odd ring readout) and 48 sectors – readout channels

14 Outlook the obtained resolution in  is far from the assumed 1  rad increased statistics would improve the RMS both for  and  the bias of  is probably a matter of the applied reconstruction algorithm more work and carefull checks must be done