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Silicon Microstrip Detector for Studying Fast Processes on a Synchrotron Beam. / Aulchenko, V. M.; Glushak, A. A.; Zhulanov, V. V. и др.

в: Journal of Surface Investigation, Том 17, № 6, 12.2023, стр. 1356-1363.

Результаты исследований: Научные публикации в периодических изданияхстатьяРецензирование

Harvard

Aulchenko, VM, Glushak, AA, Zhulanov, VV, Zhuravlev, AN, Kiselev, VA, Kudryavtsev, VN, Piminov, PA, Titov, VM & Shekhtman, LI 2023, 'Silicon Microstrip Detector for Studying Fast Processes on a Synchrotron Beam', Journal of Surface Investigation, Том. 17, № 6, стр. 1356-1363. https://doi.org/10.1134/S1027451023060253

APA

Aulchenko, V. M., Glushak, A. A., Zhulanov, V. V., Zhuravlev, A. N., Kiselev, V. A., Kudryavtsev, V. N., Piminov, P. A., Titov, V. M., & Shekhtman, L. I. (2023). Silicon Microstrip Detector for Studying Fast Processes on a Synchrotron Beam. Journal of Surface Investigation, 17(6), 1356-1363. https://doi.org/10.1134/S1027451023060253

Vancouver

Aulchenko VM, Glushak AA, Zhulanov VV, Zhuravlev AN, Kiselev VA, Kudryavtsev VN и др. Silicon Microstrip Detector for Studying Fast Processes on a Synchrotron Beam. Journal of Surface Investigation. 2023 дек.;17(6):1356-1363. doi: 10.1134/S1027451023060253

Author

Aulchenko, V. M. ; Glushak, A. A. ; Zhulanov, V. V. и др. / Silicon Microstrip Detector for Studying Fast Processes on a Synchrotron Beam. в: Journal of Surface Investigation. 2023 ; Том 17, № 6. стр. 1356-1363.

BibTeX

@article{327a4a3e0331459ba06c7dddae52ee0f,
title = "Silicon Microstrip Detector for Studying Fast Processes on a Synchrotron Beam",
abstract = "In this paper, we describe the current state of development of a prototype detector for the study of fast processes (DIMEX) based on a silicon microstrip sensor. The silicon microstrip sensor is made of n-type silicon with p-type implants in the form of strips. Aluminum contacts with microwelding pads at the ends are applied to the strips along the entire length. The signals from the strips are read using a DMXS6A integrated circuit specially designed for this project, which contains six recording electronic channels with a dark-current compensation circuit at the input, four integrators, 32 analog memory cells, and an analog shift register. Each sensor strip is connected to the guard ring through a 400-Ω resistor and to the recording-channel input through a 100-kΩ resistor. This resistive divider at the input of the recording channel makes it possible to adapt the dynamic range of the recording microcircuit integrator to the full range of photon-flux changes in synchrotron-radiation output channel no. 8 of the VEPP-4M storage ring equipped with a nine-pole wiggler with a field of 1.95 T as the source of synchrotron radiation. Measurements of the dynamic range of the DIMEX-Si prototype show that the maximal flux that can be recorded in the linear mode exceeds 105 photons/channel from each electron bunch in the storage ring. The ability of the detector to detect signals from bunches following after 55 ns in the multi-bunch mode, which simulates the operation of the 4+-generation synchrotron-radiation source Siberian Circular Photon Source (SKIF) under construction in the Novosibirsk region, on which such a detector is planned to be used, is also demonstrated.",
keywords = "coordinate detectors, detonation processes, electronic recording channel, fast processes, microstrip silicon detector, specialized integrated circuit, synchrotron radiation, time-resolved detectors",
author = "Aulchenko, {V. M.} and Glushak, {A. A.} and Zhulanov, {V. V.} and Zhuravlev, {A. N.} and Kiselev, {V. A.} and Kudryavtsev, {V. N.} and Piminov, {P. A.} and Titov, {V. M.} and Shekhtman, {L. I.}",
note = "The work on measuring the characteristics of the DIMEX-Si detector was partially supported by the Government of the Russian Federation, agreement no. 075-15-2022-1132 in accordance with Decree 220 of April 9, 2010. Публикация для корректировки.",
year = "2023",
month = dec,
doi = "10.1134/S1027451023060253",
language = "English",
volume = "17",
pages = "1356--1363",
journal = "Journal of Surface Investigation",
issn = "1027-4510",
publisher = "Maik Nauka Publishing / Springer SBM",
number = "6",

}

RIS

TY - JOUR

T1 - Silicon Microstrip Detector for Studying Fast Processes on a Synchrotron Beam

AU - Aulchenko, V. M.

AU - Glushak, A. A.

AU - Zhulanov, V. V.

AU - Zhuravlev, A. N.

AU - Kiselev, V. A.

AU - Kudryavtsev, V. N.

AU - Piminov, P. A.

AU - Titov, V. M.

AU - Shekhtman, L. I.

N1 - The work on measuring the characteristics of the DIMEX-Si detector was partially supported by the Government of the Russian Federation, agreement no. 075-15-2022-1132 in accordance with Decree 220 of April 9, 2010. Публикация для корректировки.

PY - 2023/12

Y1 - 2023/12

N2 - In this paper, we describe the current state of development of a prototype detector for the study of fast processes (DIMEX) based on a silicon microstrip sensor. The silicon microstrip sensor is made of n-type silicon with p-type implants in the form of strips. Aluminum contacts with microwelding pads at the ends are applied to the strips along the entire length. The signals from the strips are read using a DMXS6A integrated circuit specially designed for this project, which contains six recording electronic channels with a dark-current compensation circuit at the input, four integrators, 32 analog memory cells, and an analog shift register. Each sensor strip is connected to the guard ring through a 400-Ω resistor and to the recording-channel input through a 100-kΩ resistor. This resistive divider at the input of the recording channel makes it possible to adapt the dynamic range of the recording microcircuit integrator to the full range of photon-flux changes in synchrotron-radiation output channel no. 8 of the VEPP-4M storage ring equipped with a nine-pole wiggler with a field of 1.95 T as the source of synchrotron radiation. Measurements of the dynamic range of the DIMEX-Si prototype show that the maximal flux that can be recorded in the linear mode exceeds 105 photons/channel from each electron bunch in the storage ring. The ability of the detector to detect signals from bunches following after 55 ns in the multi-bunch mode, which simulates the operation of the 4+-generation synchrotron-radiation source Siberian Circular Photon Source (SKIF) under construction in the Novosibirsk region, on which such a detector is planned to be used, is also demonstrated.

AB - In this paper, we describe the current state of development of a prototype detector for the study of fast processes (DIMEX) based on a silicon microstrip sensor. The silicon microstrip sensor is made of n-type silicon with p-type implants in the form of strips. Aluminum contacts with microwelding pads at the ends are applied to the strips along the entire length. The signals from the strips are read using a DMXS6A integrated circuit specially designed for this project, which contains six recording electronic channels with a dark-current compensation circuit at the input, four integrators, 32 analog memory cells, and an analog shift register. Each sensor strip is connected to the guard ring through a 400-Ω resistor and to the recording-channel input through a 100-kΩ resistor. This resistive divider at the input of the recording channel makes it possible to adapt the dynamic range of the recording microcircuit integrator to the full range of photon-flux changes in synchrotron-radiation output channel no. 8 of the VEPP-4M storage ring equipped with a nine-pole wiggler with a field of 1.95 T as the source of synchrotron radiation. Measurements of the dynamic range of the DIMEX-Si prototype show that the maximal flux that can be recorded in the linear mode exceeds 105 photons/channel from each electron bunch in the storage ring. The ability of the detector to detect signals from bunches following after 55 ns in the multi-bunch mode, which simulates the operation of the 4+-generation synchrotron-radiation source Siberian Circular Photon Source (SKIF) under construction in the Novosibirsk region, on which such a detector is planned to be used, is also demonstrated.

KW - coordinate detectors

KW - detonation processes

KW - electronic recording channel

KW - fast processes

KW - microstrip silicon detector

KW - specialized integrated circuit

KW - synchrotron radiation

KW - time-resolved detectors

UR - https://www.scopus.com/record/display.uri?eid=2-s2.0-85178934242&origin=inward&txGid=c1dc0d0e5c6e9990abc92aafa5eb88f2

UR - https://www.mendeley.com/catalogue/c4e90ca2-3a33-3340-9d5c-33e15a4a74f9/

U2 - 10.1134/S1027451023060253

DO - 10.1134/S1027451023060253

M3 - Article

VL - 17

SP - 1356

EP - 1363

JO - Journal of Surface Investigation

JF - Journal of Surface Investigation

SN - 1027-4510

IS - 6

ER -

ID: 59543076