Characterisation and simulation of stitched CMOS strip sensors

Fuente: arXiv
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Main Authors: Davis, Naomi, Arling, Jan-Hendrik, Baselga, Marta, Diehl, Leena, Dingfelder, Jochen, Gregor, Ingrid-Maria, Hauser, Marc, Hügging, Fabian, Hemperek, Tomasz, Jakobs, Karl, Karagounis, Michael, Koppenhöfer, Roland, Kröninger, Kevin, Lex, Fabian, Parzefall, Ulrich, Rodriguez, Arturo, Sari, Birkan, Sorgenfrei, Niels, Spannagel, Simon, Sperlich, Dennis, Wang, Tianyang, Weingarten, Jens, Zatocilova, Iveta
Format: Preprint
Published: 2024
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author Davis, Naomi
Arling, Jan-Hendrik
Baselga, Marta
Diehl, Leena
Dingfelder, Jochen
Gregor, Ingrid-Maria
Hauser, Marc
Hügging, Fabian
Hemperek, Tomasz
Jakobs, Karl
Karagounis, Michael
Koppenhöfer, Roland
Kröninger, Kevin
Lex, Fabian
Parzefall, Ulrich
Rodriguez, Arturo
Sari, Birkan
Sorgenfrei, Niels
Spannagel, Simon
Sperlich, Dennis
Wang, Tianyang
Weingarten, Jens
Zatocilova, Iveta
author_facet Davis, Naomi
Arling, Jan-Hendrik
Baselga, Marta
Diehl, Leena
Dingfelder, Jochen
Gregor, Ingrid-Maria
Hauser, Marc
Hügging, Fabian
Hemperek, Tomasz
Jakobs, Karl
Karagounis, Michael
Koppenhöfer, Roland
Kröninger, Kevin
Lex, Fabian
Parzefall, Ulrich
Rodriguez, Arturo
Sari, Birkan
Sorgenfrei, Niels
Spannagel, Simon
Sperlich, Dennis
Wang, Tianyang
Weingarten, Jens
Zatocilova, Iveta
contents In high-energy physics, there is a need to investigate alternative silicon sensor concepts that offer cost-efficient, large-area coverage. Sensors based on CMOS imaging technology present such a silicon sensor concept for tracking detectors. The CMOS Strips project investigates passive CMOS strip sensors fabricated by LFoundry in a 150nm technology. By employing the technique of stitching, two different strip sensor formats have been realised. The sensor performance is characterised based on measurements at the DESY II Test Beam Facility. The sensor response was simulated utilising Monte Carlo methods and electric fields provided by TCAD device simulations. This study shows that employing the stitching technique does not affect the hit detection efficiency. A first look at the electric field within the sensor and its impact on generated charge carriers is being discussed.
format Preprint
id arxiv_https___arxiv_org_abs_2405_08667
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Characterisation and simulation of stitched CMOS strip sensors
Davis, Naomi
Arling, Jan-Hendrik
Baselga, Marta
Diehl, Leena
Dingfelder, Jochen
Gregor, Ingrid-Maria
Hauser, Marc
Hügging, Fabian
Hemperek, Tomasz
Jakobs, Karl
Karagounis, Michael
Koppenhöfer, Roland
Kröninger, Kevin
Lex, Fabian
Parzefall, Ulrich
Rodriguez, Arturo
Sari, Birkan
Sorgenfrei, Niels
Spannagel, Simon
Sperlich, Dennis
Wang, Tianyang
Weingarten, Jens
Zatocilova, Iveta
Instrumentation and Detectors
In high-energy physics, there is a need to investigate alternative silicon sensor concepts that offer cost-efficient, large-area coverage. Sensors based on CMOS imaging technology present such a silicon sensor concept for tracking detectors. The CMOS Strips project investigates passive CMOS strip sensors fabricated by LFoundry in a 150nm technology. By employing the technique of stitching, two different strip sensor formats have been realised. The sensor performance is characterised based on measurements at the DESY II Test Beam Facility. The sensor response was simulated utilising Monte Carlo methods and electric fields provided by TCAD device simulations. This study shows that employing the stitching technique does not affect the hit detection efficiency. A first look at the electric field within the sensor and its impact on generated charge carriers is being discussed.
title Characterisation and simulation of stitched CMOS strip sensors
topic Instrumentation and Detectors
url https://arxiv.org/abs/2405.08667