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Thermal Properties of the Silicon Microstrip Endcap Detector

Irradiated silicon detectors must be cooled in order to guarantee stable short and long term operation. Using the SiF1 milestone prototype we have performed a detailed analysis of the thermal properties of the silicon microstrip endcap detector. The strongest constraint on the cooling system is show...

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Detalles Bibliográficos
Autores principales: Feld, Lutz, Glessing, William, Hammarström, R
Lenguaje:eng
Publicado: 1998
Materias:
Acceso en línea:http://cds.cern.ch/record/687023
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author Feld, Lutz
Glessing, William
Hammarström, R
author_facet Feld, Lutz
Glessing, William
Hammarström, R
author_sort Feld, Lutz
collection CERN
description Irradiated silicon detectors must be cooled in order to guarantee stable short and long term operation. Using the SiF1 milestone prototype we have performed a detailed analysis of the thermal properties of the silicon microstrip endcap detector. The strongest constraint on the cooling system is shown to be set by the need to avoid thermal runaway of the silicon detectors. We show that, taking into account the radiation damage to the silicon after 10 years of LHC operation and including some safety margin, the detector will need a cooling fluid temperature of around -20 C. The highest temperature on the silicon will then be in the range -15 C to -10 C. This sets an upper limit on the ambient temperature in the tracker volume.
id cern-687023
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1998
record_format invenio
spelling cern-6870232019-09-30T06:29:59Zhttp://cds.cern.ch/record/687023engFeld, LutzGlessing, WilliamHammarström, RThermal Properties of the Silicon Microstrip Endcap DetectorDetectors and Experimental TechniquesIrradiated silicon detectors must be cooled in order to guarantee stable short and long term operation. Using the SiF1 milestone prototype we have performed a detailed analysis of the thermal properties of the silicon microstrip endcap detector. The strongest constraint on the cooling system is shown to be set by the need to avoid thermal runaway of the silicon detectors. We show that, taking into account the radiation damage to the silicon after 10 years of LHC operation and including some safety margin, the detector will need a cooling fluid temperature of around -20 C. The highest temperature on the silicon will then be in the range -15 C to -10 C. This sets an upper limit on the ambient temperature in the tracker volume.CMS-NOTE-1998-018oai:cds.cern.ch:6870231998-03-03
spellingShingle Detectors and Experimental Techniques
Feld, Lutz
Glessing, William
Hammarström, R
Thermal Properties of the Silicon Microstrip Endcap Detector
title Thermal Properties of the Silicon Microstrip Endcap Detector
title_full Thermal Properties of the Silicon Microstrip Endcap Detector
title_fullStr Thermal Properties of the Silicon Microstrip Endcap Detector
title_full_unstemmed Thermal Properties of the Silicon Microstrip Endcap Detector
title_short Thermal Properties of the Silicon Microstrip Endcap Detector
title_sort thermal properties of the silicon microstrip endcap detector
topic Detectors and Experimental Techniques
url http://cds.cern.ch/record/687023
work_keys_str_mv AT feldlutz thermalpropertiesofthesiliconmicrostripendcapdetector
AT glessingwilliam thermalpropertiesofthesiliconmicrostripendcapdetector
AT hammarstromr thermalpropertiesofthesiliconmicrostripendcapdetector