Conceptual design of a low-temperature radiation-hard tracker detector

Silicon sensors have about ten times improved radiation hardness around 130 K temperature, compared with the state-of-art sensors close to room temperature. This is based on the Lazarus effect studied by the RD39 Collaboration of CERN. Other benefits of low temperatures will also be discussed. We sh...

Descripción completa

Detalles Bibliográficos
Autores principales: Niinikoski, T O, Grohmann, S, Perea-Solano, B
Lenguaje:eng
Publicado: 2003
Materias:
Detectors and Experimental Techniques
Acceso en línea:http://cds.cern.ch/record/725883
_version_ 1780903719176503296
author Niinikoski, T O
Grohmann, S
Perea-Solano, B
author_facet Niinikoski, T O
Grohmann, S
Perea-Solano, B
author_sort Niinikoski, T O
collection CERN
description Silicon sensors have about ten times improved radiation hardness around 130 K temperature, compared with the state-of-art sensors close to room temperature. This is based on the Lazarus effect studied by the RD39 Collaboration of CERN. Other benefits of low temperatures will also be discussed. We shall describe the conceptual design of low-mass detector modules cooled using two-phase flow of argon in miniature cooling pipes integrated in the module structure between the sensors and the readout hybrid circuit. The main engineering features of the cooling system and mechanical support structures are discussed, as well as the benefits arising from the operation of the tracker under cryogenic vacuum. 4 Refs.
id cern-725883
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2003
record_format invenio
spelling cern-7258832019-09-30T06:29:59Zhttp://cds.cern.ch/record/725883engNiinikoski, T OGrohmann, SPerea-Solano, BConceptual design of a low-temperature radiation-hard tracker detectorDetectors and Experimental TechniquesSilicon sensors have about ten times improved radiation hardness around 130 K temperature, compared with the state-of-art sensors close to room temperature. This is based on the Lazarus effect studied by the RD39 Collaboration of CERN. Other benefits of low temperatures will also be discussed. We shall describe the conceptual design of low-mass detector modules cooled using two-phase flow of argon in miniature cooling pipes integrated in the module structure between the sensors and the readout hybrid circuit. The main engineering features of the cooling system and mechanical support structures are discussed, as well as the benefits arising from the operation of the tracker under cryogenic vacuum. 4 Refs.oai:cds.cern.ch:7258832003
spellingShingle Detectors and Experimental Techniques
Niinikoski, T O
Grohmann, S
Perea-Solano, B
Conceptual design of a low-temperature radiation-hard tracker detector
title Conceptual design of a low-temperature radiation-hard tracker detector
title_full Conceptual design of a low-temperature radiation-hard tracker detector
title_fullStr Conceptual design of a low-temperature radiation-hard tracker detector
title_full_unstemmed Conceptual design of a low-temperature radiation-hard tracker detector
title_short Conceptual design of a low-temperature radiation-hard tracker detector
title_sort conceptual design of a low-temperature radiation-hard tracker detector
topic Detectors and Experimental Techniques
url http://cds.cern.ch/record/725883
work_keys_str_mv AT niinikoskito conceptualdesignofalowtemperatureradiationhardtrackerdetector
AT grohmanns conceptualdesignofalowtemperatureradiationhardtrackerdetector
AT pereasolanob conceptualdesignofalowtemperatureradiationhardtrackerdetector

Ejemplares similares