Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology

Depleted Monolithic Active Pixel Sensors (DMAPS) are monolithic pixel detectors with high-resistivity substrates designed for use in high-rate and high-radiation environments. They are produced in commercial CMOS processes, resulting in relatively low production costs and short turnaround times, and...

Descripción completa

Detalles Bibliográficos
Autores principales: Dingfelder, J, Barbero, M, Barrillon, P, Berdalovic, I, Bespin, C, Breugnon, P, Caicedo, I, Cardella, R, Degerli, Y, Flores Sanz de Acedo, L, Guilloux, F, Habib, A, Hirono, T, Hemperek, T, Hügging, F, Krüger, H, Kugathasan, T, Moustakas, K, Pangaud, P, Pernegger, H, Piro, F, Pohl, D -L, Riedler, P, Rozanov, A, Rymaszewski, P, Schwemling, P, Snoeys, W, Wang, T, Wermes, N, Zhang, S
Lenguaje:eng
Publicado: 2022
Materias:
Detectors and Experimental Techniques
Acceso en línea:https://dx.doi.org/10.1016/j.nima.2022.166747
http://cds.cern.ch/record/2811202
_version_ 1780973265343217664
author Dingfelder, J
Barbero, M
Barrillon, P
Berdalovic, I
Bespin, C
Breugnon, P
Caicedo, I
Cardella, R
Degerli, Y
Flores Sanz de Acedo, L
Guilloux, F
Habib, A
Hirono, T
Hemperek, T
Hügging, F
Krüger, H
Kugathasan, T
Moustakas, K
Pangaud, P
Pernegger, H
Piro, F
Pohl, D -L
Riedler, P
Rozanov, A
Rymaszewski, P
Schwemling, P
Snoeys, W
Wang, T
Wermes, N
Zhang, S
author_facet Dingfelder, J
Barbero, M
Barrillon, P
Berdalovic, I
Bespin, C
Breugnon, P
Caicedo, I
Cardella, R
Degerli, Y
Flores Sanz de Acedo, L
Guilloux, F
Habib, A
Hirono, T
Hemperek, T
Hügging, F
Krüger, H
Kugathasan, T
Moustakas, K
Pangaud, P
Pernegger, H
Piro, F
Pohl, D -L
Riedler, P
Rozanov, A
Rymaszewski, P
Schwemling, P
Snoeys, W
Wang, T
Wermes, N
Zhang, S
author_sort Dingfelder, J
collection CERN
description Depleted Monolithic Active Pixel Sensors (DMAPS) are monolithic pixel detectors with high-resistivity substrates designed for use in high-rate and high-radiation environments. They are produced in commercial CMOS processes, resulting in relatively low production costs and short turnaround times, and offer a low material budget. LF-Monopix1 and TJ-Monopix1 are large DMAPS prototypes produced in 150 nm LFoundry and 180 nm TowerJazz technology, respectively, that follow two different design concepts regarding the charge collection electrode. Prototypes of both development lines have been extensively tested and characterized over the last years. The second-generation Monopix prototypes, Monopix2, were recently produced. They were designed to address the shortcomings of their predecessors, in particular related to radiation hardness and cross talk, and further improve upon their performance. The latest measurements with LF-Monopix1 and TJ-Monopix1 concerning hit efficiency, depletion, and radiation hardness as well as the initial test results of the new Monopix2 prototypes are presented.
id cern-2811202
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2022
record_format invenio
spelling cern-28112022022-12-13T13:48:35Zdoi:10.1016/j.nima.2022.166747http://cds.cern.ch/record/2811202engDingfelder, JBarbero, MBarrillon, PBerdalovic, IBespin, CBreugnon, PCaicedo, ICardella, RDegerli, YFlores Sanz de Acedo, LGuilloux, FHabib, AHirono, THemperek, THügging, FKrüger, HKugathasan, TMoustakas, KPangaud, PPernegger, HPiro, FPohl, D -LRiedler, PRozanov, ARymaszewski, PSchwemling, PSnoeys, WWang, TWermes, NZhang, SProgress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technologyDetectors and Experimental TechniquesDepleted Monolithic Active Pixel Sensors (DMAPS) are monolithic pixel detectors with high-resistivity substrates designed for use in high-rate and high-radiation environments. They are produced in commercial CMOS processes, resulting in relatively low production costs and short turnaround times, and offer a low material budget. LF-Monopix1 and TJ-Monopix1 are large DMAPS prototypes produced in 150 nm LFoundry and 180 nm TowerJazz technology, respectively, that follow two different design concepts regarding the charge collection electrode. Prototypes of both development lines have been extensively tested and characterized over the last years. The second-generation Monopix prototypes, Monopix2, were recently produced. They were designed to address the shortcomings of their predecessors, in particular related to radiation hardness and cross talk, and further improve upon their performance. The latest measurements with LF-Monopix1 and TJ-Monopix1 concerning hit efficiency, depletion, and radiation hardness as well as the initial test results of the new Monopix2 prototypes are presented.oai:cds.cern.ch:28112022022
spellingShingle Detectors and Experimental Techniques
Dingfelder, J
Barbero, M
Barrillon, P
Berdalovic, I
Bespin, C
Breugnon, P
Caicedo, I
Cardella, R
Degerli, Y
Flores Sanz de Acedo, L
Guilloux, F
Habib, A
Hirono, T
Hemperek, T
Hügging, F
Krüger, H
Kugathasan, T
Moustakas, K
Pangaud, P
Pernegger, H
Piro, F
Pohl, D -L
Riedler, P
Rozanov, A
Rymaszewski, P
Schwemling, P
Snoeys, W
Wang, T
Wermes, N
Zhang, S
Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology
title Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology
title_full Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology
title_fullStr Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology
title_full_unstemmed Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology
title_short Progress in DMAPS developments and first tests of the Monopix2 chips in 150 nm LFoundry and 180 nm TowerJazz technology
title_sort progress in dmaps developments and first tests of the monopix2 chips in 150 nm lfoundry and 180 nm towerjazz technology
topic Detectors and Experimental Techniques
url https://dx.doi.org/10.1016/j.nima.2022.166747
http://cds.cern.ch/record/2811202
work_keys_str_mv AT dingfelderj progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT barberom progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT barrillonp progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT berdalovici progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT bespinc progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT breugnonp progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT caicedoi progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT cardellar progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT degerliy progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT floressanzdeacedol progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT guillouxf progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT habiba progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT hironot progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT hemperekt progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT huggingf progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT krugerh progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT kugathasant progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT moustakask progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT pangaudp progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT perneggerh progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT pirof progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT pohldl progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT riedlerp progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT rozanova progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT rymaszewskip progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT schwemlingp progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT snoeysw progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT wangt progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT wermesn progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology
AT zhangs progressindmapsdevelopmentsandfirsttestsofthemonopix2chipsin150nmlfoundryand180nmtowerjazztechnology

Ejemplares similares