Low-temperature tracking detectors

T. O. Niinikoski; M. Abreu; P. Anbinderis; T. Anbinderis; N. D'Ambrosio; W. De Boer; E. Borchi; K. Borer; M. Bruzzi; S. Buontempo; W. Chen; V. Cindro; B. Dezillie; A. Dierlamm; V. Eremin; E. Gaubas; V. Gorbatenko; V. Granata; E. Grigoriev; S. Grohmann; F. Hauler; E. Heijne; S. Heising; O. Hempel; R. Herzog; J. Härkönen; I. Ilyashenko; S. Janos; L. Jungermann; V. Kalesinskas; J. Kapturauskas; R. Laiho; Z. Li; P. Luukka; I. Mandic; R. De Masi; D. Menichelli; M. Mikuz; O. Militaru; G. Nuessle; V. O'Shea; S. Pagano; S. Paul; B. Perea Solano; K. Piotrzkowski; S. Pirollo; K. Pretzl; M. Rahman; P. Rato Mendes; X. Rouby; G. Ruggiero; K. Smith; P. Sousa; E. Tuominen; E. Tuovinen; J. Vaitkus; E. Verbitskaya; C. Da Viá; L. Vlasenko; M. Vlasenko; E. Wobst; M. Zavrtanik

doi:10.1016/j.nima.2003.11.228

Low-temperature tracking detectors

T. O. Niinikoski
, M. Abreu
, P. Anbinderis
, T. Anbinderis
, N. D'Ambrosio
, W. De Boer
, E. Borchi
, K. Borer
, M. Bruzzi
, S. Buontempo
, W. Chen
, V. Cindro
, B. Dezillie
, A. Dierlamm
, V. Eremin
, E. Gaubas
, V. Gorbatenko
, V. Granata
, E. Grigoriev
, S. Grohmann

F. Hauler, E. Heijne, S. Heising, O. Hempel, R. Herzog, J. Härkönen, I. Ilyashenko, S. Janos, L. Jungermann, V. Kalesinskas, J. Kapturauskas, R. Laiho, Z. Li, P. Luukka, I. Mandic, R. De Masi, D. Menichelli, M. Mikuz, O. Militaru, G. Nuessle, V. O'Shea, S. Pagano, S. Paul, B. Perea Solano, K. Piotrzkowski, S. Pirollo, K. Pretzl, M. Rahman, P. Rato Mendes, X. Rouby, G. Ruggiero, K. Smith, P. Sousa, E. Tuominen, E. Tuovinen, J. Vaitkus, E. Verbitskaya, C. Da Viá, L. Vlasenko, M. Vlasenko, E. Wobst, M. Zavrtanik

Physics and Astronomy

CERN
Laboratório de Instrumentação e Física Experimental de Partículas
Vilnius University
University of Naples Federico II
Karlsruhe Institute of Technology
University of Florence
University of Bern
Brookhaven National Laboratory
Jožef Stefan Institute
Ioffe Physical Technical Institute
Brunel University London
University of Geneva
Technische Universität Dresden
University of Helsinki
University of Turku
Technical University of Munich
Université catholique de Louvain
University of Glasgow

Research output: Contribution to journal › Article › peer-review

3 Scopus citations

Abstract

RD39 collaboration develops new detector techniques for particle trackers, which have to withstand fluences up to 10¹⁶ cm^-2 of high-energy particles. The work focuses on the optimization of silicon detectors and their readout electronics while keeping the temperature as a free parameter. Our results so far suggest that the best operating temperature is around 130 K. We shall also describe in this paper how the current-injected mode of operation reduces the polarization of the bulk silicon at low temperatures, and how the engineering and materials problems related with vacuum and low temperature can be solved.

Original language	English
Pages (from-to)	87-92
Number of pages	6
Journal	Nuclear Inst. and Methods in Physics Research, A
Volume	520
Issue number	1-3
DOIs	https://doi.org/10.1016/j.nima.2003.11.228
State	Published - Mar 11 2004

Keywords

Current-injected detectors
Forward bias
Low temperature
Silicon microstrip detectors
Thermoelasticity

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10.1016/j.nima.2003.11.228

Cite this

Niinikoski, T. O., Abreu, M., Anbinderis, P., Anbinderis, T., D'Ambrosio, N., De Boer, W., Borchi, E., Borer, K., Bruzzi, M., Buontempo, S., Chen, W., Cindro, V., Dezillie, B., Dierlamm, A., Eremin, V., Gaubas, E., Gorbatenko, V., Granata, V., Grigoriev, E., ... Zavrtanik, M. (2004). Low-temperature tracking detectors. Nuclear Inst. and Methods in Physics Research, A, 520(1-3), 87-92. https://doi.org/10.1016/j.nima.2003.11.228

@article{aae50cec31614819a09943326a0313a4,

title = "Low-temperature tracking detectors",

abstract = "RD39 collaboration develops new detector techniques for particle trackers, which have to withstand fluences up to 1016 cm-2 of high-energy particles. The work focuses on the optimization of silicon detectors and their readout electronics while keeping the temperature as a free parameter. Our results so far suggest that the best operating temperature is around 130 K. We shall also describe in this paper how the current-injected mode of operation reduces the polarization of the bulk silicon at low temperatures, and how the engineering and materials problems related with vacuum and low temperature can be solved.",

keywords = "Current-injected detectors, Forward bias, Low temperature, Silicon microstrip detectors, Thermoelasticity",

author = "Niinikoski, \{T. O.\} and M. Abreu and P. Anbinderis and T. Anbinderis and N. D'Ambrosio and \{De Boer\}, W. and E. Borchi and K. Borer and M. Bruzzi and S. Buontempo and W. Chen and V. Cindro and B. Dezillie and A. Dierlamm and V. Eremin and E. Gaubas and V. Gorbatenko and V. Granata and E. Grigoriev and S. Grohmann and F. Hauler and E. Heijne and S. Heising and O. Hempel and R. Herzog and J. H{\"a}rk{\"o}nen and I. Ilyashenko and S. Janos and L. Jungermann and V. Kalesinskas and J. Kapturauskas and R. Laiho and Z. Li and P. Luukka and I. Mandic and \{De Masi\}, R. and D. Menichelli and M. Mikuz and O. Militaru and G. Nuessle and V. O'Shea and S. Pagano and S. Paul and \{Perea Solano\}, B. and K. Piotrzkowski and S. Pirollo and K. Pretzl and M. Rahman and \{Rato Mendes\}, P. and X. Rouby and G. Ruggiero and K. Smith and P. Sousa and E. Tuominen and E. Tuovinen and J. Vaitkus and E. Verbitskaya and \{Da Vi{\'a}\}, C. and L. Vlasenko and M. Vlasenko and E. Wobst and M. Zavrtanik",

year = "2004",

month = mar,

day = "11",

doi = "10.1016/j.nima.2003.11.228",

language = "English",

volume = "520",

pages = "87--92",

journal = "Nuclear Inst. and Methods in Physics Research, A",

issn = "0168-9002",

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}

Niinikoski, TO, Abreu, M, Anbinderis, P, Anbinderis, T, D'Ambrosio, N, De Boer, W, Borchi, E, Borer, K, Bruzzi, M, Buontempo, S, Chen, W, Cindro, V, Dezillie, B, Dierlamm, A, Eremin, V, Gaubas, E, Gorbatenko, V, Granata, V, Grigoriev, E, Grohmann, S, Hauler, F, Heijne, E, Heising, S, Hempel, O, Herzog, R, Härkönen, J, Ilyashenko, I, Janos, S, Jungermann, L, Kalesinskas, V, Kapturauskas, J, Laiho, R, Li, Z, Luukka, P, Mandic, I, De Masi, R, Menichelli, D, Mikuz, M, Militaru, O, Nuessle, G, O'Shea, V, Pagano, S, Paul, S, Perea Solano, B, Piotrzkowski, K, Pirollo, S, Pretzl, K, Rahman, M, Rato Mendes, P, Rouby, X, Ruggiero, G, Smith, K, Sousa, P, Tuominen, E, Tuovinen, E, Vaitkus, J, Verbitskaya, E, Da Viá, C, Vlasenko, L, Vlasenko, M, Wobst, E & Zavrtanik, M 2004, 'Low-temperature tracking detectors', Nuclear Inst. and Methods in Physics Research, A, vol. 520, no. 1-3, pp. 87-92. https://doi.org/10.1016/j.nima.2003.11.228

TY - JOUR

T1 - Low-temperature tracking detectors

AU - Niinikoski, T. O.

AU - Abreu, M.

AU - Anbinderis, P.

AU - Anbinderis, T.

AU - D'Ambrosio, N.

AU - De Boer, W.

AU - Borchi, E.

AU - Borer, K.

AU - Bruzzi, M.

AU - Buontempo, S.

AU - Chen, W.

AU - Cindro, V.

AU - Dezillie, B.

AU - Dierlamm, A.

AU - Eremin, V.

AU - Gaubas, E.

AU - Gorbatenko, V.

AU - Granata, V.

AU - Grigoriev, E.

AU - Grohmann, S.

AU - Hauler, F.

AU - Heijne, E.

AU - Heising, S.

AU - Hempel, O.

AU - Herzog, R.

AU - Härkönen, J.

AU - Ilyashenko, I.

AU - Janos, S.

AU - Jungermann, L.

AU - Kalesinskas, V.

AU - Kapturauskas, J.

AU - Laiho, R.

AU - Li, Z.

AU - Luukka, P.

AU - Mandic, I.

AU - De Masi, R.

AU - Menichelli, D.

AU - Mikuz, M.

AU - Militaru, O.

AU - Nuessle, G.

AU - O'Shea, V.

AU - Pagano, S.

AU - Paul, S.

AU - Perea Solano, B.

AU - Piotrzkowski, K.

AU - Pirollo, S.

AU - Pretzl, K.

AU - Rahman, M.

AU - Rato Mendes, P.

AU - Rouby, X.

AU - Ruggiero, G.

AU - Smith, K.

AU - Sousa, P.

AU - Tuominen, E.

AU - Tuovinen, E.

AU - Vaitkus, J.

AU - Verbitskaya, E.

AU - Da Viá, C.

AU - Vlasenko, L.

AU - Vlasenko, M.

AU - Wobst, E.

AU - Zavrtanik, M.

PY - 2004/3/11

Y1 - 2004/3/11

N2 - RD39 collaboration develops new detector techniques for particle trackers, which have to withstand fluences up to 1016 cm-2 of high-energy particles. The work focuses on the optimization of silicon detectors and their readout electronics while keeping the temperature as a free parameter. Our results so far suggest that the best operating temperature is around 130 K. We shall also describe in this paper how the current-injected mode of operation reduces the polarization of the bulk silicon at low temperatures, and how the engineering and materials problems related with vacuum and low temperature can be solved.

AB - RD39 collaboration develops new detector techniques for particle trackers, which have to withstand fluences up to 1016 cm-2 of high-energy particles. The work focuses on the optimization of silicon detectors and their readout electronics while keeping the temperature as a free parameter. Our results so far suggest that the best operating temperature is around 130 K. We shall also describe in this paper how the current-injected mode of operation reduces the polarization of the bulk silicon at low temperatures, and how the engineering and materials problems related with vacuum and low temperature can be solved.

KW - Current-injected detectors

KW - Forward bias

KW - Low temperature

KW - Silicon microstrip detectors

KW - Thermoelasticity

UR - https://www.scopus.com/pages/publications/12144289620

U2 - 10.1016/j.nima.2003.11.228

DO - 10.1016/j.nima.2003.11.228

M3 - Article

AN - SCOPUS:12144289620

SN - 0168-9002

VL - 520

SP - 87

EP - 92

JO - Nuclear Inst. and Methods in Physics Research, A

JF - Nuclear Inst. and Methods in Physics Research, A

IS - 1-3

ER -

Low-temperature tracking detectors

Abstract

Keywords

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