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Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facility
A quality assurance and performance qualification laboratory was built at McGill University for the Canadian-made small-strip Thin Gap Chamber (sTGC) muon detectors produced for the 2019–2020 ATLAS experiment muon spectrometer upgrade. The facility uses cosmic rays as a muon source to ionise the que...
Autores principales: | , , , , , , , , , , , , |
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Lenguaje: | eng |
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2017
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Materias: | |
Acceso en línea: | https://dx.doi.org/10.1088/1748-0221/12/04/P04027 http://cds.cern.ch/record/2287507 |
_version_ | 1780956073407021056 |
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author | Keyes, R. Johnson, K.A. Pepin, L. Léger, F. Qin, C. Webster, S. Robichaud-Véronneau, A. Bélanger-Champagne, C. Lefebvre, B. Robertson, S.H. Warburton, A. Vachon, B. Corriveau, F. |
author_facet | Keyes, R. Johnson, K.A. Pepin, L. Léger, F. Qin, C. Webster, S. Robichaud-Véronneau, A. Bélanger-Champagne, C. Lefebvre, B. Robertson, S.H. Warburton, A. Vachon, B. Corriveau, F. |
author_sort | Keyes, R. |
collection | CERN |
description | A quality assurance and performance qualification laboratory was built at McGill University for the Canadian-made small-strip Thin Gap Chamber (sTGC) muon detectors produced for the 2019–2020 ATLAS experiment muon spectrometer upgrade. The facility uses cosmic rays as a muon source to ionise the quenching gas mixture of pentane and CO(2) flowing through the sTGC detector. A gas system was developed and characterised for this purpose, with a simple and efficient gas condenser design utilizing a Peltier thermoelectric cooler (TEC). The gas system was tested to provide the desired 45 vol% pentane concentration. For continuous operations, a state-machine system was implemented with alerting and remote monitoring features to run all cosmic-ray data-acquisition associated slow-control systems, such as high/low voltage, gas system and environmental monitoring, in a safe and continuous mode, even in the absence of an operator. |
id | cern-2287507 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2017 |
record_format | invenio |
spelling | cern-22875072021-07-15T17:31:51Zdoi:10.1088/1748-0221/12/04/P04027http://cds.cern.ch/record/2287507engKeyes, R.Johnson, K.A.Pepin, L.Léger, F.Qin, C.Webster, S.Robichaud-Véronneau, A.Bélanger-Champagne, C.Lefebvre, B.Robertson, S.H.Warburton, A.Vachon, B.Corriveau, F.Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facilityhep-exParticle Physics - Experimentphysics.ins-detDetectors and Experimental TechniquesA quality assurance and performance qualification laboratory was built at McGill University for the Canadian-made small-strip Thin Gap Chamber (sTGC) muon detectors produced for the 2019–2020 ATLAS experiment muon spectrometer upgrade. The facility uses cosmic rays as a muon source to ionise the quenching gas mixture of pentane and CO(2) flowing through the sTGC detector. A gas system was developed and characterised for this purpose, with a simple and efficient gas condenser design utilizing a Peltier thermoelectric cooler (TEC). The gas system was tested to provide the desired 45 vol% pentane concentration. For continuous operations, a state-machine system was implemented with alerting and remote monitoring features to run all cosmic-ray data-acquisition associated slow-control systems, such as high/low voltage, gas system and environmental monitoring, in a safe and continuous mode, even in the absence of an operator.A quality assurance and performance qualification laboratory was built at McGill University for the Canadian-made small-strip Thin Gap Chamber (sTGC) muon detectors produced for the 2019-2020 ATLAS experiment muon spectrometer upgrade. The facility uses cosmic rays as a muon source to ionise the quenching gas mixture of pentane and carbon dioxide flowing through the sTGC detector. A gas system was developed and characterised for this purpose, with a simple and efficient gas condenser design utilizing a Peltier thermoelectric cooler (TEC). The gas system was tested to provide the desired 45 vol% pentane concentration. For continuous operations, a state-machine system was implemented with alerting and remote monitoring features to run all cosmic-ray data-acquisition associated slow-control systems, such as high/low voltage, gas system and environmental monitoring, in a safe and continuous mode, even in the absence of an operator.arXiv:1702.01240oai:cds.cern.ch:22875072017-02-04 |
spellingShingle | hep-ex Particle Physics - Experiment physics.ins-det Detectors and Experimental Techniques Keyes, R. Johnson, K.A. Pepin, L. Léger, F. Qin, C. Webster, S. Robichaud-Véronneau, A. Bélanger-Champagne, C. Lefebvre, B. Robertson, S.H. Warburton, A. Vachon, B. Corriveau, F. Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facility |
title | Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facility |
title_full | Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facility |
title_fullStr | Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facility |
title_full_unstemmed | Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facility |
title_short | Development and Characterisation of a Gas System and its Associated Slow-Control System for an ATLAS Small-Strip Thin Gap Chamber Testing Facility |
title_sort | development and characterisation of a gas system and its associated slow-control system for an atlas small-strip thin gap chamber testing facility |
topic | hep-ex Particle Physics - Experiment physics.ins-det Detectors and Experimental Techniques |
url | https://dx.doi.org/10.1088/1748-0221/12/04/P04027 http://cds.cern.ch/record/2287507 |
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