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Development and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker Upgrade

Abstract: The LHCb upgrade requires a new silicon strip tracker detector placed between the vertex locator and the magnet. The new detector will have improved performance in charged particle tracking and triggering. The front-end electronics will be in the active area, close to the sensors: this is...

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Autor principal: Coelli, Simone
Lenguaje:eng
Publicado: 2017
Materias:
Acceso en línea:http://cds.cern.ch/record/2258914
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author Coelli, Simone
author_facet Coelli, Simone
author_sort Coelli, Simone
collection CERN
description Abstract: The LHCb upgrade requires a new silicon strip tracker detector placed between the vertex locator and the magnet. The new detector will have improved performance in charged particle tracking and triggering. The front-end electronics will be in the active area, close to the sensors: this is a key feature driving the mechanical and cooling detector design, together with the requirement to make the sensors work below −5°C, to withstand radiation damage. The new design exploits a cooling system based on $\rm CO_2$ evaporation at temperatures around −25°C. The support structure for the sensor modules is a lightweight carbon fiber mechanical structure embedding a cooling pipe, designed to pass underneath the read-out ASICs, which are the main thermal power sources to be cooled down. Here a description of the detector will be given, with a main focus on the cooling system and on the progress done to its qualification.
id cern-2258914
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2017
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spelling cern-22589142019-09-30T06:29:59Zhttp://cds.cern.ch/record/2258914engCoelli, SimoneDevelopment and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker UpgradeParticle Physics - ExperimentAbstract: The LHCb upgrade requires a new silicon strip tracker detector placed between the vertex locator and the magnet. The new detector will have improved performance in charged particle tracking and triggering. The front-end electronics will be in the active area, close to the sensors: this is a key feature driving the mechanical and cooling detector design, together with the requirement to make the sensors work below −5°C, to withstand radiation damage. The new design exploits a cooling system based on $\rm CO_2$ evaporation at temperatures around −25°C. The support structure for the sensor modules is a lightweight carbon fiber mechanical structure embedding a cooling pipe, designed to pass underneath the read-out ASICs, which are the main thermal power sources to be cooled down. Here a description of the detector will be given, with a main focus on the cooling system and on the progress done to its qualification.LHCb-PROC-2017-011CERN-LHCb-PROC-2017-011oai:cds.cern.ch:22589142017-04-07
spellingShingle Particle Physics - Experiment
Coelli, Simone
Development and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker Upgrade
title Development and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker Upgrade
title_full Development and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker Upgrade
title_fullStr Development and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker Upgrade
title_full_unstemmed Development and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker Upgrade
title_short Development and test of the $\rm CO_2$ evaporative cooling system for the LHCb UT Tracker Upgrade
title_sort development and test of the $\rm co_2$ evaporative cooling system for the lhcb ut tracker upgrade
topic Particle Physics - Experiment
url http://cds.cern.ch/record/2258914
work_keys_str_mv AT coellisimone developmentandtestofthermco2evaporativecoolingsystemforthelhcbuttrackerupgrade