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Silicon vertex and tracking detector R&D for CLIC

The physics aims at the proposed future high-energy linear e+e- collider CLIC pose challenging demands on the performance of the detector system. In particular, the vertex and tracking detectors have to combine a spatial resolution of a few micrometres and a low material budget with a time-stamping...

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Autor principal: Dort, Katharina
Lenguaje:eng
Publicado: SISSA 2021
Materias:
Acceso en línea:https://dx.doi.org/10.22323/1.390.0836
http://cds.cern.ch/record/2742319
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author Dort, Katharina
Dort, Katharina
author_facet Dort, Katharina
Dort, Katharina
author_sort Dort, Katharina
collection CERN
description The physics aims at the proposed future high-energy linear e+e- collider CLIC pose challenging demands on the performance of the detector system. In particular, the vertex and tracking detectors have to combine a spatial resolution of a few micrometres and a low material budget with a time-stamping accuracy of a few nanoseconds. For the vertex detector, fine-pitch sensors, dedicated 65nm readout ASICs, fine-pitch bonding techniques using solder bumps or anisotropic conductive films as well as monolithic devices based on Silicon-On-Insulator technology are explored. Fully monolithic CMOS sensors with large and small collection electrodes are under investigation for the large surface CLIC tracker. This contribution gives an overview of the CLIC vertex and tracking detector R&D, focusing on recent results from test-beam campaigns and simulation-based sensor optimisation studies.
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institution Organización Europea para la Investigación Nuclear
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publishDate 2021
publisher SISSA
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spelling cern-27423192023-06-13T15:06:33Zdoi:10.22323/1.390.0836http://cds.cern.ch/record/2742319engDort, KatharinaDort, KatharinaSilicon vertex and tracking detector R&D for CLIChep-exParticle Physics - Experimentphysics.ins-detDetectors and Experimental TechniquesThe physics aims at the proposed future high-energy linear e+e- collider CLIC pose challenging demands on the performance of the detector system. In particular, the vertex and tracking detectors have to combine a spatial resolution of a few micrometres and a low material budget with a time-stamping accuracy of a few nanoseconds. For the vertex detector, fine-pitch sensors, dedicated 65nm readout ASICs, fine-pitch bonding techniques using solder bumps or anisotropic conductive films as well as monolithic devices based on Silicon-On-Insulator technology are explored. Fully monolithic CMOS sensors with large and small collection electrodes are under investigation for the large surface CLIC tracker. This contribution gives an overview of the CLIC vertex and tracking detector R&D, focusing on recent results from test-beam campaigns and simulation-based sensor optimisation studies.The physics aims at the proposed future high-energy linear e+e- collider CLIC pose challenging demands on the performance of the detector system. In particular, the vertex and tracking detectors have to combine a spatial resolution of a few micrometres and a low material budget with a time-stamping accuracy of a few nanoseconds. For the vertex detector, fine-pitch sensors, dedicated 65nm readout ASICs, fine-pitch bonding techniques using solder bumps or anisotropic conductive films as well as monolithic devices based on Silicon-On-Insulator technology are explored. Fully monolithic CMOS sensors with large and small collection electrodes are under investigation for the large surface CLIC tracker. This contribution gives an overview of the CLIC vertex and tracking detector R&D, focusing on recent results from test-beam campaigns and simulation-based sensor optimisation studies.The physics aims at the proposed future high-energy linear $e^+e^-$ collider CLIC pose challenging demands on the performance of the detector system. In particular, the vertex and tracking detectors have to combine a spatial resolution of a few micrometres and a low material budget with a time-stamping accuracy of a few nanoseconds. For the vertex detector, fine-pitch sensors, dedicated 65nm readout ASICs, fine-pitch bonding techniques using solder bumps or anisotropic conductive films as well as monolithic devices based on Silicon-On-Insulator technology are explored. Fully monolithic CMOS sensors with large and small collection electrodes are under investigation for the large surface CLIC tracker. This contribution gives an overview of the CLIC vertex and tracking detector R&D, focusing on recent results from test-beam campaigns and simulation-based sensor optimisation studies.SISSAarXiv:2010.10837CLICdp-Conf-2020-006oai:cds.cern.ch:27423192021
spellingShingle hep-ex
Particle Physics - Experiment
physics.ins-det
Detectors and Experimental Techniques
Dort, Katharina
Dort, Katharina
Silicon vertex and tracking detector R&D for CLIC
title Silicon vertex and tracking detector R&D for CLIC
title_full Silicon vertex and tracking detector R&D for CLIC
title_fullStr Silicon vertex and tracking detector R&D for CLIC
title_full_unstemmed Silicon vertex and tracking detector R&D for CLIC
title_short Silicon vertex and tracking detector R&D for CLIC
title_sort silicon vertex and tracking detector r&d for clic
topic hep-ex
Particle Physics - Experiment
physics.ins-det
Detectors and Experimental Techniques
url https://dx.doi.org/10.22323/1.390.0836
http://cds.cern.ch/record/2742319
work_keys_str_mv AT dortkatharina siliconvertexandtrackingdetectorrdforclic
AT dortkatharina siliconvertexandtrackingdetectorrdforclic