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Integrated circuits for particle physics experiments

High energy particle physics experiments investigate the nature of matter through the identification of subatomic particles produced in collisions of protons, electrons, or heavy ions which have been accelerated to very high energies. Future experiments will have hundreds of millions of detector cha...

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Detalles Bibliográficos
Autores principales: Snoeys, W, Anelli, G, Campbell, M, Cantatore, E, Faccio, F, Heijne, Erik H M, Jarron, Pierre, Kloukinas, Kostas C, Marchioro, A, Moreira, P, Toifl, Thomas H, Wyllie, Ken H
Lenguaje:eng
Publicado: 2000
Materias:
Acceso en línea:https://dx.doi.org/10.1109/4.890318
http://cds.cern.ch/record/445011
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author Snoeys, W
Anelli, G
Campbell, M
Cantatore, E
Faccio, F
Heijne, Erik H M
Jarron, Pierre
Kloukinas, Kostas C
Marchioro, A
Moreira, P
Toifl, Thomas H
Wyllie, Ken H
author_facet Snoeys, W
Anelli, G
Campbell, M
Cantatore, E
Faccio, F
Heijne, Erik H M
Jarron, Pierre
Kloukinas, Kostas C
Marchioro, A
Moreira, P
Toifl, Thomas H
Wyllie, Ken H
author_sort Snoeys, W
collection CERN
description High energy particle physics experiments investigate the nature of matter through the identification of subatomic particles produced in collisions of protons, electrons, or heavy ions which have been accelerated to very high energies. Future experiments will have hundreds of millions of detector channels to observe the interaction region where collisions take place at a 40 MHz rate. This paper gives an overview of the electronics requirements for such experiments and explains how data reduction, timing distribution, and radiation tolerance in commercial CMOS circuits are achieved for these big systems. As a detailed example, the electronics for the innermost layers of the future tracking detector, the pixel vertex detector, is discussed with special attention to system aspects. A small-scale prototype (130 channels) implemented in standard 0.25 mu m CMOS remains fully functional after a 30 Mrad(SiO/sub 2/) irradiation. A full-scale pixel readout chip containing 8000 readout channels in a 14 by 16 mm/sup 2/ area has been designed. (24 refs). The Large Hadron Collider (LHC) under construction at CERN (Geneva, Switzerland) will be operational in the year 2005. The LHC will host four detectors, ATLAS, ALICE, CMS and LHCb. They each will have tens of millions of sensor channels and will be the "electronic eyes" looking at the intersection regions where collisions of protons of 7 TeV energy will take place at a frequency of 40 MHz, each producing a spray of several thousand particles. As the newly created particles fly away from the collision point, they traverse several detector layers: the tracker, the calorimeter and finally the muon detector. The authors discuss the electronics required for such detectors in high-energy physics experiments. They conclude that modern commercial deep submicron CMOS technology offers the required density and performance for the electronics, and provides through special layout techniques the radiation tolerance essential for the experiments at LHC. (5 refs).
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institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2000
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spelling cern-4450112019-09-30T06:29:59Zdoi:10.1109/4.890318http://cds.cern.ch/record/445011engSnoeys, WAnelli, GCampbell, MCantatore, EFaccio, FHeijne, Erik H MJarron, PierreKloukinas, Kostas CMarchioro, AMoreira, PToifl, Thomas HWyllie, Ken HIntegrated circuits for particle physics experimentsDetectors and Experimental TechniquesHigh energy particle physics experiments investigate the nature of matter through the identification of subatomic particles produced in collisions of protons, electrons, or heavy ions which have been accelerated to very high energies. Future experiments will have hundreds of millions of detector channels to observe the interaction region where collisions take place at a 40 MHz rate. This paper gives an overview of the electronics requirements for such experiments and explains how data reduction, timing distribution, and radiation tolerance in commercial CMOS circuits are achieved for these big systems. As a detailed example, the electronics for the innermost layers of the future tracking detector, the pixel vertex detector, is discussed with special attention to system aspects. A small-scale prototype (130 channels) implemented in standard 0.25 mu m CMOS remains fully functional after a 30 Mrad(SiO/sub 2/) irradiation. A full-scale pixel readout chip containing 8000 readout channels in a 14 by 16 mm/sup 2/ area has been designed. (24 refs). The Large Hadron Collider (LHC) under construction at CERN (Geneva, Switzerland) will be operational in the year 2005. The LHC will host four detectors, ATLAS, ALICE, CMS and LHCb. They each will have tens of millions of sensor channels and will be the "electronic eyes" looking at the intersection regions where collisions of protons of 7 TeV energy will take place at a frequency of 40 MHz, each producing a spray of several thousand particles. As the newly created particles fly away from the collision point, they traverse several detector layers: the tracker, the calorimeter and finally the muon detector. The authors discuss the electronics required for such detectors in high-energy physics experiments. They conclude that modern commercial deep submicron CMOS technology offers the required density and performance for the electronics, and provides through special layout techniques the radiation tolerance essential for the experiments at LHC. (5 refs).oai:cds.cern.ch:4450112000
spellingShingle Detectors and Experimental Techniques
Snoeys, W
Anelli, G
Campbell, M
Cantatore, E
Faccio, F
Heijne, Erik H M
Jarron, Pierre
Kloukinas, Kostas C
Marchioro, A
Moreira, P
Toifl, Thomas H
Wyllie, Ken H
Integrated circuits for particle physics experiments
title Integrated circuits for particle physics experiments
title_full Integrated circuits for particle physics experiments
title_fullStr Integrated circuits for particle physics experiments
title_full_unstemmed Integrated circuits for particle physics experiments
title_short Integrated circuits for particle physics experiments
title_sort integrated circuits for particle physics experiments
topic Detectors and Experimental Techniques
url https://dx.doi.org/10.1109/4.890318
http://cds.cern.ch/record/445011
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