Radiation tolerance of single-sided silicon microstrips

A. Holmes-Siedle; M. Robbins; S. Watts; P. Allport; R. Brenner; H. G. Moser; S. Roe; J. Straver; P. Weilhammer; P. Chochula; I. Mikulec; S. Moszczynski; M. Turala; W. Dabrowski; P. Grybos; M. Idzik; D. Loukas; K. Misiakos; I. Siotis; K. Zachariadou; W. Dulinski; J. Michele; M. Schaeffer; R. Turchetta; P. Booth; J. Richardson; N. Smith; K. Gill; G. Hall; R. Sachdeva; S. Sotthibandhu; D. Vitè; R. Wheadon; C. Arrighi; P. Delpierre; M. C. Habrard; J. C. Clemens; T. Mouthuy; B. S. Avset; L. Evensen; A. Hanneborg; T. A. Hansen; D. Bisello; A. Giraldo; A. Paccagnella; L. Kurchaninov; E. Spiriti; R. Apsimon; P. Giubellino; L. Ramello; W. L. Prado da Silva; M. Krammer; M. Schuster

doi:10.1016/0168-9002(94)90188-0

Radiation tolerance of single-sided silicon microstrips

A. Holmes-Siedle, M. Robbins, S. Watts, P. Allport, R. Brenner, H. G. Moser, S. Roe, J. Straver, P. Weilhammer, P. Chochula, I. Mikulec, S. Moszczynski, M. Turala, W. Dabrowski, P. Grybos, M. Idzik, D. Loukas, K. Misiakos, I. Siotis, K. ZachariadouW. Dulinski, J. Michele, M. Schaeffer, R. Turchetta, P. Booth, J. Richardson, N. Smith, K. Gill, G. Hall, R. Sachdeva, S. Sotthibandhu, D. Vitè, R. Wheadon, C. Arrighi, P. Delpierre, M. C. Habrard, J. C. Clemens, T. Mouthuy, B. S. Avset, L. Evensen, A. Hanneborg, T. A. Hansen, D. Bisello, A. Giraldo, A. Paccagnella, L. Kurchaninov, E. Spiriti, R. Apsimon, P. Giubellino, L. Ramello, W. L. Prado da Silva, M. Krammer, M. Schuster

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

Abstract

The RD20 collaboration is investigating the design and operation of an LHC inner tracking detector based on silicon microstrips. Measurements have been made on prototype detectors after irradiation with electrons, neutrons, photons, and protons for doses up to 5 Mrad and fluences up to 10¹⁵ particles/cm². The annealing of effective doping changes caused by high neutron fluences, one of the major limits to detector lifetime at the LHC, is shown to be strongly inhibited by cooling below room temperature. Detailed results are presented on the critical issue of microstrip capacitance. We have also investigated bulk damage caused by high-energy protons, interstrip isolation after neutron irradiation, and MOS capacitors irradiated with electrons and photons.

Original language	English
Pages (from-to)	511-523
Number of pages	13
Journal	Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment
Volume	339
Issue number	3
DOIs	https://doi.org/10.1016/0168-9002(94)90188-0
Publication status	Published - 1 Feb 1994
Externally published	Yes

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Holmes-Siedle, A., Robbins, M., Watts, S., Allport, P., Brenner, R., Moser, H. G., Roe, S., Straver, J., Weilhammer, P., Chochula, P., Mikulec, I., Moszczynski, S., Turala, M., Dabrowski, W., Grybos, P., Idzik, M., Loukas, D., Misiakos, K., Siotis, I., ... Schuster, M. (1994). Radiation tolerance of single-sided silicon microstrips. Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 339(3), 511-523. https://doi.org/10.1016/0168-9002(94)90188-0

@article{b1f1c16cc9f74b578930273e2c8f7008,

title = "Radiation tolerance of single-sided silicon microstrips",

abstract = "The RD20 collaboration is investigating the design and operation of an LHC inner tracking detector based on silicon microstrips. Measurements have been made on prototype detectors after irradiation with electrons, neutrons, photons, and protons for doses up to 5 Mrad and fluences up to 1015 particles/cm2. The annealing of effective doping changes caused by high neutron fluences, one of the major limits to detector lifetime at the LHC, is shown to be strongly inhibited by cooling below room temperature. Detailed results are presented on the critical issue of microstrip capacitance. We have also investigated bulk damage caused by high-energy protons, interstrip isolation after neutron irradiation, and MOS capacitors irradiated with electrons and photons.",

author = "A. Holmes-Siedle and M. Robbins and S. Watts and P. Allport and R. Brenner and Moser, {H. G.} and S. Roe and J. Straver and P. Weilhammer and P. Chochula and I. Mikulec and S. Moszczynski and M. Turala and W. Dabrowski and P. Grybos and M. Idzik and D. Loukas and K. Misiakos and I. Siotis and K. Zachariadou and W. Dulinski and J. Michele and M. Schaeffer and R. Turchetta and P. Booth and J. Richardson and N. Smith and K. Gill and G. Hall and R. Sachdeva and S. Sotthibandhu and D. Vit{\`e} and R. Wheadon and C. Arrighi and P. Delpierre and Habrard, {M. C.} and Clemens, {J. C.} and T. Mouthuy and Avset, {B. S.} and L. Evensen and A. Hanneborg and Hansen, {T. A.} and D. Bisello and A. Giraldo and A. Paccagnella and L. Kurchaninov and E. Spiriti and R. Apsimon and P. Giubellino and L. Ramello and {Prado da Silva}, {W. L.} and M. Krammer and M. Schuster",

note = "Funding Information: This work has been funded by CERN and several national agencies : Bundesministerium f{\"u}r Wissenschaft and Forschung (Austria), IN2P3 (France), INFN (Italy), NAVF (Norway), KBN, The Polish State Committee for Scientific Research (Poland), SERC (UK) . We should like to thank them all for their support. We should also like to thank those outside the collaboration who have provided access to radiation facilities and assistance with irradiations . These include the ISIS facility at Rutherford Appleton Laboratory, the INFN Laboratori Nazionale di Legnaro, LENA Pavia, SATURNE Saclay, gamma sources at the Instituto Superiore di Sanit{\^a}, Roma, Imperial College, Brunel University, and Cracow, and the AERIEL electron facility in Strasbourg. We also express our gratitude to the technical staff of our institutes, especially those from Imperial College and CERN . Finally, we thank the Central Microstructure Facility at the Rutherford Appleton Laboratory who produced the electron beam masks used in the fabrication of the RD20 test devices.",

year = "1994",

month = feb,

day = "1",

doi = "10.1016/0168-9002(94)90188-0",

language = "English",

volume = "339",

pages = "511--523",

journal = "Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment",

issn = "0168-9002",

publisher = "Elsevier",

number = "3",

}

Holmes-Siedle, A, Robbins, M, Watts, S, Allport, P, Brenner, R, Moser, HG, Roe, S, Straver, J, Weilhammer, P, Chochula, P, Mikulec, I, Moszczynski, S, Turala, M, Dabrowski, W, Grybos, P, Idzik, M, Loukas, D, Misiakos, K, Siotis, I, Zachariadou, K, Dulinski, W, Michele, J, Schaeffer, M, Turchetta, R, Booth, P, Richardson, J, Smith, N, Gill, K, Hall, G, Sachdeva, R, Sotthibandhu, S, Vitè, D, Wheadon, R, Arrighi, C, Delpierre, P, Habrard, MC, Clemens, JC, Mouthuy, T, Avset, BS, Evensen, L, Hanneborg, A, Hansen, TA, Bisello, D, Giraldo, A, Paccagnella, A, Kurchaninov, L, Spiriti, E, Apsimon, R, Giubellino, P, Ramello, L, Prado da Silva, WL, Krammer, M & Schuster, M 1994, 'Radiation tolerance of single-sided silicon microstrips', Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, vol. 339, no. 3, pp. 511-523. https://doi.org/10.1016/0168-9002(94)90188-0

TY - JOUR

T1 - Radiation tolerance of single-sided silicon microstrips

AU - Holmes-Siedle, A.

AU - Robbins, M.

AU - Watts, S.

AU - Allport, P.

AU - Brenner, R.

AU - Moser, H. G.

AU - Roe, S.

AU - Straver, J.

AU - Weilhammer, P.

AU - Chochula, P.

AU - Mikulec, I.

AU - Moszczynski, S.

AU - Turala, M.

AU - Dabrowski, W.

AU - Grybos, P.

AU - Idzik, M.

AU - Loukas, D.

AU - Misiakos, K.

AU - Siotis, I.

AU - Zachariadou, K.

AU - Dulinski, W.

AU - Michele, J.

AU - Schaeffer, M.

AU - Turchetta, R.

AU - Booth, P.

AU - Richardson, J.

AU - Smith, N.

AU - Gill, K.

AU - Hall, G.

AU - Sachdeva, R.

AU - Sotthibandhu, S.

AU - Vitè, D.

AU - Wheadon, R.

AU - Arrighi, C.

AU - Delpierre, P.

AU - Habrard, M. C.

AU - Clemens, J. C.

AU - Mouthuy, T.

AU - Avset, B. S.

AU - Evensen, L.

AU - Hanneborg, A.

AU - Hansen, T. A.

AU - Bisello, D.

AU - Giraldo, A.

AU - Paccagnella, A.

AU - Kurchaninov, L.

AU - Spiriti, E.

AU - Apsimon, R.

AU - Giubellino, P.

AU - Ramello, L.

AU - Prado da Silva, W. L.

AU - Krammer, M.

AU - Schuster, M.

N1 - Funding Information: This work has been funded by CERN and several national agencies : Bundesministerium für Wissenschaft and Forschung (Austria), IN2P3 (France), INFN (Italy), NAVF (Norway), KBN, The Polish State Committee for Scientific Research (Poland), SERC (UK) . We should like to thank them all for their support. We should also like to thank those outside the collaboration who have provided access to radiation facilities and assistance with irradiations . These include the ISIS facility at Rutherford Appleton Laboratory, the INFN Laboratori Nazionale di Legnaro, LENA Pavia, SATURNE Saclay, gamma sources at the Instituto Superiore di Sanitâ, Roma, Imperial College, Brunel University, and Cracow, and the AERIEL electron facility in Strasbourg. We also express our gratitude to the technical staff of our institutes, especially those from Imperial College and CERN . Finally, we thank the Central Microstructure Facility at the Rutherford Appleton Laboratory who produced the electron beam masks used in the fabrication of the RD20 test devices.

PY - 1994/2/1

Y1 - 1994/2/1

N2 - The RD20 collaboration is investigating the design and operation of an LHC inner tracking detector based on silicon microstrips. Measurements have been made on prototype detectors after irradiation with electrons, neutrons, photons, and protons for doses up to 5 Mrad and fluences up to 1015 particles/cm2. The annealing of effective doping changes caused by high neutron fluences, one of the major limits to detector lifetime at the LHC, is shown to be strongly inhibited by cooling below room temperature. Detailed results are presented on the critical issue of microstrip capacitance. We have also investigated bulk damage caused by high-energy protons, interstrip isolation after neutron irradiation, and MOS capacitors irradiated with electrons and photons.

AB - The RD20 collaboration is investigating the design and operation of an LHC inner tracking detector based on silicon microstrips. Measurements have been made on prototype detectors after irradiation with electrons, neutrons, photons, and protons for doses up to 5 Mrad and fluences up to 1015 particles/cm2. The annealing of effective doping changes caused by high neutron fluences, one of the major limits to detector lifetime at the LHC, is shown to be strongly inhibited by cooling below room temperature. Detailed results are presented on the critical issue of microstrip capacitance. We have also investigated bulk damage caused by high-energy protons, interstrip isolation after neutron irradiation, and MOS capacitors irradiated with electrons and photons.

UR - http://www.scopus.com/inward/record.url?scp=0028379831&partnerID=8YFLogxK

U2 - 10.1016/0168-9002(94)90188-0

DO - 10.1016/0168-9002(94)90188-0

M3 - Article

SN - 0168-9002

VL - 339

SP - 511

EP - 523

JO - Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment

JF - Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment

IS - 3

ER -

Radiation tolerance of single-sided silicon microstrips

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