Development of readout electronics for a digital tracking calorimeter

Ola Grøttvik; J. Alme; Rene Barthel; Tea Bodova; Viatcheslav Borshchov; Anthony van den Brink; Viljar Eikeland; Alf Herland; Naomi van der Kolk; Simon Voigt Nesbø; Thomas Peitzmann; Dieter Röhrich; Ganesh Tambave; Ihor Tymchuk; Kjetil Ullaland; Shiming Yang

Development of readout electronics for a digital tracking calorimeter

Ola Grøttvik^*, J. Alme, Rene Barthel, Tea Bodova, Viatcheslav Borshchov, Anthony van den Brink, Viljar Eikeland, Alf Herland, Naomi van der Kolk, Simon Voigt Nesbø, Thomas Peitzmann, Dieter Röhrich, Ganesh Tambave, Ihor Tymchuk, Kjetil Ullaland, Shiming Yang

^*Corresponding author for this work

Subatomic Physics

Research output: Contribution to journal › Conference article › Academic › peer-review

Abstract

Highly segmented digital tracking calorimeters consist of multiple layers of high-granularity pixel detector CMOS sensors and absorption/conversion layers. Two separate prototypes are being developed: (1) an electromagnetic calorimeter for a proposed ALICE upgrade (during Long Shutdown 3) and (2) a hadronic calorimeter for medical proton computed tomography imaging. These prototypes employ the ALPIDE detector chip developed for the ALICE Inner Tracking System. The ALPIDE chips are mounted on intermediate aluminum/polyimide flexible circuits with ultrasonic welding. This contribution presents findings and solutions to the challenging design of high-speed readout electronics with efficient use of FPGA resources for these prototypes.

Original language	English
Article number	90
Number of pages	4
Journal	Proceedings of Science
Volume	370
Publication status	Published - 21 Apr 2020
Event	2019 Topical Workshop on Electronics for Particle Physics, TWEPP 2019 - Santiago de Compostela, Spain Duration: 2 Sept 2019 → 6 Sept 2019

Cite this

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title = "Development of readout electronics for a digital tracking calorimeter",

abstract = "Highly segmented digital tracking calorimeters consist of multiple layers of high-granularity pixel detector CMOS sensors and absorption/conversion layers. Two separate prototypes are being developed: (1) an electromagnetic calorimeter for a proposed ALICE upgrade (during Long Shutdown 3) and (2) a hadronic calorimeter for medical proton computed tomography imaging. These prototypes employ the ALPIDE detector chip developed for the ALICE Inner Tracking System. The ALPIDE chips are mounted on intermediate aluminum/polyimide flexible circuits with ultrasonic welding. This contribution presents findings and solutions to the challenging design of high-speed readout electronics with efficient use of FPGA resources for these prototypes.",

author = "Ola Gr{\o}ttvik and J. Alme and Rene Barthel and Tea Bodova and Viatcheslav Borshchov and {van den Brink}, Anthony and Viljar Eikeland and Alf Herland and {van der Kolk}, Naomi and Nesb{\o}, {Simon Voigt} and Thomas Peitzmann and Dieter R{\"o}hrich and Ganesh Tambave and Ihor Tymchuk and Kjetil Ullaland and Shiming Yang",

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T1 - Development of readout electronics for a digital tracking calorimeter

AU - Grøttvik, Ola

AU - Alme, J.

AU - Barthel, Rene

AU - Bodova, Tea

AU - Borshchov, Viatcheslav

AU - van den Brink, Anthony

AU - Eikeland, Viljar

AU - Herland, Alf

AU - van der Kolk, Naomi

AU - Nesbø, Simon Voigt

AU - Peitzmann, Thomas

AU - Röhrich, Dieter

AU - Tambave, Ganesh

AU - Tymchuk, Ihor

AU - Ullaland, Kjetil

AU - Yang, Shiming

N1 - Publisher Copyright: © Copyright owned by the author(s) under the terms of the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License (CC BY-NC-ND 4.0).

PY - 2020/4/21

Y1 - 2020/4/21

N2 - Highly segmented digital tracking calorimeters consist of multiple layers of high-granularity pixel detector CMOS sensors and absorption/conversion layers. Two separate prototypes are being developed: (1) an electromagnetic calorimeter for a proposed ALICE upgrade (during Long Shutdown 3) and (2) a hadronic calorimeter for medical proton computed tomography imaging. These prototypes employ the ALPIDE detector chip developed for the ALICE Inner Tracking System. The ALPIDE chips are mounted on intermediate aluminum/polyimide flexible circuits with ultrasonic welding. This contribution presents findings and solutions to the challenging design of high-speed readout electronics with efficient use of FPGA resources for these prototypes.

AB - Highly segmented digital tracking calorimeters consist of multiple layers of high-granularity pixel detector CMOS sensors and absorption/conversion layers. Two separate prototypes are being developed: (1) an electromagnetic calorimeter for a proposed ALICE upgrade (during Long Shutdown 3) and (2) a hadronic calorimeter for medical proton computed tomography imaging. These prototypes employ the ALPIDE detector chip developed for the ALICE Inner Tracking System. The ALPIDE chips are mounted on intermediate aluminum/polyimide flexible circuits with ultrasonic welding. This contribution presents findings and solutions to the challenging design of high-speed readout electronics with efficient use of FPGA resources for these prototypes.

UR - http://www.scopus.com/inward/record.url?scp=85086017409&partnerID=8YFLogxK

M3 - Conference article

AN - SCOPUS:85086017409

SN - 1824-8039

VL - 370

JO - Proceedings of Science

JF - Proceedings of Science

M1 - 90

T2 - 2019 Topical Workshop on Electronics for Particle Physics, TWEPP 2019

Y2 - 2 September 2019 through 6 September 2019

ER -

Development of readout electronics for a digital tracking calorimeter

Abstract

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