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A small scale remote cooling system for a superconducting cyclotron magnet
Through a technology transfer program CERN is involved in the R&D; of a compact superconducting cyclotron for future clinical radioisotope production, a project led by the Spanish research institute CIEMAT. For the remote cooling of the LTc superconducting magnet operating at 4.5 K, CERN has des...
Autores principales: | , , , , , , , , , , , |
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Lenguaje: | eng |
Publicado: |
2017
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Materias: | |
Acceso en línea: | https://dx.doi.org/10.1088/1757-899X/171/1/012038 http://cds.cern.ch/record/2621308 |
_version_ | 1780958552494440448 |
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author | Haug, F Berkowitz Zamorra, D Michels, M Gomez Bosch, R Schmid, J Striebel, A Krueger, A Diez, M Jakob, M Keh, M Herberger, W Oesterle, D |
author_facet | Haug, F Berkowitz Zamorra, D Michels, M Gomez Bosch, R Schmid, J Striebel, A Krueger, A Diez, M Jakob, M Keh, M Herberger, W Oesterle, D |
author_sort | Haug, F |
collection | CERN |
description | Through a technology transfer program CERN is involved in the R&D; of a compact superconducting cyclotron for future clinical radioisotope production, a project led by the Spanish research institute CIEMAT. For the remote cooling of the LTc superconducting magnet operating at 4.5 K, CERN has designed a small scale refrigeration system, the Cryogenic Supply System (CSS). This refrigeration system consists of a commercial two-stage 1.5 W @ 4.2 K GM cryocooler and a separate forced flow circuit. The forced flow circuit extracts the cooling power of the first and the second stage cold tips, respectively. Both units are installed in a common vacuum vessel and, at the final configuration, a low loss transfer line will provide the link to the magnet cryostat for the cooling of the thermal shield with helium at 40 K and the two superconducting coils with two-phase helium at 4.5 K. Currently the CSS is in the testing phase at CERN in stand-alone mode without the magnet and the transfer line. We have added a "validation unit" housed in the vacuum vessel of the CSS representing the thermo-hydraulic part of the cyclotron magnet. It is equipped with electrical heaters which allow the simulation of the thermal loads of the magnet cryostat. A cooling power of 1.4 W at 4.5 K and 25 W at the thermal shield temperature level has been measured. The data produced confirm the design principle of the CSS which could be validated. |
id | oai-inspirehep.net-1625037 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2017 |
record_format | invenio |
spelling | oai-inspirehep.net-16250372019-10-15T15:19:52Zdoi:10.1088/1757-899X/171/1/012038http://cds.cern.ch/record/2621308engHaug, FBerkowitz Zamorra, DMichels, MGomez Bosch, RSchmid, JStriebel, AKrueger, ADiez, MJakob, MKeh, MHerberger, WOesterle, DA small scale remote cooling system for a superconducting cyclotron magnetAccelerators and Storage RingsThrough a technology transfer program CERN is involved in the R&D; of a compact superconducting cyclotron for future clinical radioisotope production, a project led by the Spanish research institute CIEMAT. For the remote cooling of the LTc superconducting magnet operating at 4.5 K, CERN has designed a small scale refrigeration system, the Cryogenic Supply System (CSS). This refrigeration system consists of a commercial two-stage 1.5 W @ 4.2 K GM cryocooler and a separate forced flow circuit. The forced flow circuit extracts the cooling power of the first and the second stage cold tips, respectively. Both units are installed in a common vacuum vessel and, at the final configuration, a low loss transfer line will provide the link to the magnet cryostat for the cooling of the thermal shield with helium at 40 K and the two superconducting coils with two-phase helium at 4.5 K. Currently the CSS is in the testing phase at CERN in stand-alone mode without the magnet and the transfer line. We have added a "validation unit" housed in the vacuum vessel of the CSS representing the thermo-hydraulic part of the cyclotron magnet. It is equipped with electrical heaters which allow the simulation of the thermal loads of the magnet cryostat. A cooling power of 1.4 W at 4.5 K and 25 W at the thermal shield temperature level has been measured. The data produced confirm the design principle of the CSS which could be validated.oai:inspirehep.net:16250372017 |
spellingShingle | Accelerators and Storage Rings Haug, F Berkowitz Zamorra, D Michels, M Gomez Bosch, R Schmid, J Striebel, A Krueger, A Diez, M Jakob, M Keh, M Herberger, W Oesterle, D A small scale remote cooling system for a superconducting cyclotron magnet |
title | A small scale remote cooling system for a superconducting cyclotron magnet |
title_full | A small scale remote cooling system for a superconducting cyclotron magnet |
title_fullStr | A small scale remote cooling system for a superconducting cyclotron magnet |
title_full_unstemmed | A small scale remote cooling system for a superconducting cyclotron magnet |
title_short | A small scale remote cooling system for a superconducting cyclotron magnet |
title_sort | small scale remote cooling system for a superconducting cyclotron magnet |
topic | Accelerators and Storage Rings |
url | https://dx.doi.org/10.1088/1757-899X/171/1/012038 http://cds.cern.ch/record/2621308 |
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