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Acceptance tests and criteria of the ATLAS transition radiation tracker

Cwetanski, P ; Åkesson, Torsten LU orcid ; Anghinolfi, F ; Arik, E ; Baker, O K ; Banas, E ; Baron, S ; Benjamin, D ; Bertelsen, H and Bondarenko, V , et al. (2005) In IEEE Transactions on Nuclear Science 52(6). p.2911-2916
Abstract
The Transition Radiation Tracker (TRT) sits at the outermost part of the ATLAS Inner Detector, encasing the Pixel Detector and the Semi-Conductor Tracker (SCT). The TRT combines charged particle track reconstruction with electron identification capability. This is achieved by layers of xenonfilled straw tubes with periodic radiator foils or fibers providing TR photon emission. The design and choice of materials have been optimized to cope with the harsh operating conditions at the LHC, which are expected to lead to an accumulated radiation dose of 10 Mrad and a neutron fluence of up to 2 . 10(14) n/cm(2) after ten years of operation. The TRT comprises a barrel containing 52 000 axial straws and two end-cap parts with 320 000 radial straws.... (More)
The Transition Radiation Tracker (TRT) sits at the outermost part of the ATLAS Inner Detector, encasing the Pixel Detector and the Semi-Conductor Tracker (SCT). The TRT combines charged particle track reconstruction with electron identification capability. This is achieved by layers of xenonfilled straw tubes with periodic radiator foils or fibers providing TR photon emission. The design and choice of materials have been optimized to cope with the harsh operating conditions at the LHC, which are expected to lead to an accumulated radiation dose of 10 Mrad and a neutron fluence of up to 2 . 10(14) n/cm(2) after ten years of operation. The TRT comprises a barrel containing 52 000 axial straws and two end-cap parts with 320 000 radial straws. The total of 420 000 electronic channels (two channels per barrel straw) allows continuous tracking with many projective measurements (more than 30 straw hits per track). The assembly of the barrel modules in the US has recently been completed, while the end-cap wheel construction in Russia has reached the 50% mark. After testing at the production sites and shipment to CERN, all modules and wheels undergo a series of quality and conformity measurements. These acceptance tests survey dimensions, wire tension, gas-tightness, high-voltage stability and gas-gain uniformity along each individual straw. This paper gives details on the acceptance criteria and measurement methods. An overview of the most important results obtained to-date is also given. (Less)
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organization
publishing date
type
Contribution to journal
publication status
published
subject
keywords
transition radiation, gas detectors, acceptance criteria, quality control, tracking, straw tubes
in
IEEE Transactions on Nuclear Science
volume
52
issue
6
pages
2911 - 2916
publisher
IEEE - Institute of Electrical and Electronics Engineers Inc.
external identifiers
  • wos:000235371900031
  • scopus:33144488983
ISSN
0018-9499
DOI
10.1109/TNS.2005.862799
language
English
LU publication?
yes
id
00dd3764-65b1-44c9-bf30-f2291f07b3fb (old id 209322)
date added to LUP
2016-04-01 16:26:46
date last changed
2023-01-04 23:50:54
@article{00dd3764-65b1-44c9-bf30-f2291f07b3fb,
  abstract     = {{The Transition Radiation Tracker (TRT) sits at the outermost part of the ATLAS Inner Detector, encasing the Pixel Detector and the Semi-Conductor Tracker (SCT). The TRT combines charged particle track reconstruction with electron identification capability. This is achieved by layers of xenonfilled straw tubes with periodic radiator foils or fibers providing TR photon emission. The design and choice of materials have been optimized to cope with the harsh operating conditions at the LHC, which are expected to lead to an accumulated radiation dose of 10 Mrad and a neutron fluence of up to 2 . 10(14) n/cm(2) after ten years of operation. The TRT comprises a barrel containing 52 000 axial straws and two end-cap parts with 320 000 radial straws. The total of 420 000 electronic channels (two channels per barrel straw) allows continuous tracking with many projective measurements (more than 30 straw hits per track). The assembly of the barrel modules in the US has recently been completed, while the end-cap wheel construction in Russia has reached the 50% mark. After testing at the production sites and shipment to CERN, all modules and wheels undergo a series of quality and conformity measurements. These acceptance tests survey dimensions, wire tension, gas-tightness, high-voltage stability and gas-gain uniformity along each individual straw. This paper gives details on the acceptance criteria and measurement methods. An overview of the most important results obtained to-date is also given.}},
  author       = {{Cwetanski, P and Åkesson, Torsten and Anghinolfi, F and Arik, E and Baker, O K and Banas, E and Baron, S and Benjamin, D and Bertelsen, H and Bondarenko, V and Bytchkov, V and Callahan, J and Capeans, M and Cardiel-Sas, L and Catinaccio, A and Cetin, S A and Chandler, J T and Dam, M and Danielsson, H and Dittus, F and Dolgoshein, B and Dressnandt, N and Ebenstein, W L and Eerola, Paula and Egorov, K and Farthouat, P and Fedin, O and Froidevaux, D and Gagnon, P and Gay, C and Ghodbane, N and Grichkevitch, Y and Grigalashvili, N and Grognuz, J and Hajduk, Z and Hansen, P and Katunin, S and Kayumov, R and Keener, P T and Kekelidze, G and Khristatchev, A and Kittelmann, T and Konovalov, S and Koudine, L and Kovalenko, S and Kowalski, T and Kramarenko, V A and Kruger, K and Laritchev, A and LeGeyt, B C and Lichard, P and Luehring, F and Lundberg, Björn and Mackeprang, R and Maleev, V and Markina, I and Martin, A J and McFarlane, K W and Mialkowski, V and Michine, S and Mindur, B and Mitsou, V A and Mjörnmark, Ulf and Morozov, S and Munar, A and Muraviev, S and Nadtochy, A and Nesterov, S and Newcomer, F M and Nikitine, N and Ogren, H and Oh, S H and Oleshko, S and Olszowska, J and Patritchev, S and Peshekhonov, V and Petti, R and Price, M and Rembser, C and Rohne, O and Romaniouk, A and Rust, D R and Ryabov, Y and Ryjov, V and Schegelsky, V and Schmidt, M P and Seliverstov, D and Shin, T and Shmeleva, A and Smimov, S and Sosnovtsev, V and Soutchkov, S and Sprachmann, G and Tikhomirov, V and Van Berg, R and Vassilakopoulos, V I and Vassilieva, L and Wang, C and Williams, H H and Zalite, A and Zalite, Y}},
  issn         = {{0018-9499}},
  keywords     = {{transition radiation; gas detectors; acceptance criteria; quality control; tracking; straw tubes}},
  language     = {{eng}},
  number       = {{6}},
  pages        = {{2911--2916}},
  publisher    = {{IEEE - Institute of Electrical and Electronics Engineers Inc.}},
  series       = {{IEEE Transactions on Nuclear Science}},
  title        = {{Acceptance tests and criteria of the ATLAS transition radiation tracker}},
  url          = {{http://dx.doi.org/10.1109/TNS.2005.862799}},
  doi          = {{10.1109/TNS.2005.862799}},
  volume       = {{52}},
  year         = {{2005}},
}