Cargando…
Beam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environment
The superconducting magnets used in high energy particle accelerators such as CERN’s LHC can be impacted by the circulating beam in case of specific failure cases. This leads to interaction of the beam particles with the magnet components, like the superconducting coils, directly or via secondary pa...
Autores principales: | , , , , , , , , , , , , , , , , , , , |
---|---|
Lenguaje: | eng |
Publicado: |
2019
|
Materias: | |
Acceso en línea: | https://dx.doi.org/10.18429/JACoW-IPAC2019-THPTS066 http://cds.cern.ch/record/2690322 |
_version_ | 1780963829998419968 |
---|---|
author | Will, Andreas Bastian, Yan Bernhard, Axel Bonura, Marco Bordini, Bernardo Bortot, Lorenzo Favre, Mathieu Lindstrom, Bjorn Mentink, Matthijs Monteuuis, Arnaud Müller, Anke-Susanne Oslandsbotn, Andreas Schmidt, Ruediger Senatore, Carmine Siemko, Andrzej Stachon, Krzysztof Usoskin, Alexander Vaananen, Mika Verweij, Arjan Wollmann, Daniel |
author_facet | Will, Andreas Bastian, Yan Bernhard, Axel Bonura, Marco Bordini, Bernardo Bortot, Lorenzo Favre, Mathieu Lindstrom, Bjorn Mentink, Matthijs Monteuuis, Arnaud Müller, Anke-Susanne Oslandsbotn, Andreas Schmidt, Ruediger Senatore, Carmine Siemko, Andrzej Stachon, Krzysztof Usoskin, Alexander Vaananen, Mika Verweij, Arjan Wollmann, Daniel |
author_sort | Will, Andreas |
collection | CERN |
description | The superconducting magnets used in high energy particle accelerators such as CERN’s LHC can be impacted by the circulating beam in case of specific failure cases. This leads to interaction of the beam particles with the magnet components, like the superconducting coils, directly or via secondary particle showers. The interaction leads to energy deposition in the timescale of microseconds and induces large thermal gradients within the superconductors in the order of 100 K/mm. To investigate the effect on the superconductors, an experiment at CERN’s HiRadMat facility was designed and executed, exposing short samples of Nb-Ti and Nb$_3$Sn strands as well as YBCO tape in a cryogenic environment to microsecond 440 GeV/p proton beams. The irradiated samples were extracted and are being analyzed for their superconducting properties, such as the critical transport current. This paper describes the experimental setup as well as the first results of the visual inspection of the samples. |
id | oai-inspirehep.net-1745826 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2019 |
record_format | invenio |
spelling | oai-inspirehep.net-17458262022-04-08T08:16:41Zdoi:10.18429/JACoW-IPAC2019-THPTS066http://cds.cern.ch/record/2690322engWill, AndreasBastian, YanBernhard, AxelBonura, MarcoBordini, BernardoBortot, LorenzoFavre, MathieuLindstrom, BjornMentink, MatthijsMonteuuis, ArnaudMüller, Anke-SusanneOslandsbotn, AndreasSchmidt, RuedigerSenatore, CarmineSiemko, AndrzejStachon, KrzysztofUsoskin, AlexanderVaananen, MikaVerweij, ArjanWollmann, DanielBeam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environmentAccelerators and Storage RingsThe superconducting magnets used in high energy particle accelerators such as CERN’s LHC can be impacted by the circulating beam in case of specific failure cases. This leads to interaction of the beam particles with the magnet components, like the superconducting coils, directly or via secondary particle showers. The interaction leads to energy deposition in the timescale of microseconds and induces large thermal gradients within the superconductors in the order of 100 K/mm. To investigate the effect on the superconductors, an experiment at CERN’s HiRadMat facility was designed and executed, exposing short samples of Nb-Ti and Nb$_3$Sn strands as well as YBCO tape in a cryogenic environment to microsecond 440 GeV/p proton beams. The irradiated samples were extracted and are being analyzed for their superconducting properties, such as the critical transport current. This paper describes the experimental setup as well as the first results of the visual inspection of the samples.CERN-ACC-2019-266oai:inspirehep.net:17458262019 |
spellingShingle | Accelerators and Storage Rings Will, Andreas Bastian, Yan Bernhard, Axel Bonura, Marco Bordini, Bernardo Bortot, Lorenzo Favre, Mathieu Lindstrom, Bjorn Mentink, Matthijs Monteuuis, Arnaud Müller, Anke-Susanne Oslandsbotn, Andreas Schmidt, Ruediger Senatore, Carmine Siemko, Andrzej Stachon, Krzysztof Usoskin, Alexander Vaananen, Mika Verweij, Arjan Wollmann, Daniel Beam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environment |
title | Beam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environment |
title_full | Beam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environment |
title_fullStr | Beam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environment |
title_full_unstemmed | Beam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environment |
title_short | Beam impact experiment of 440 GeV/p protons on superconducting wires and tapes in a cryogenic environment |
title_sort | beam impact experiment of 440 gev/p protons on superconducting wires and tapes in a cryogenic environment |
topic | Accelerators and Storage Rings |
url | https://dx.doi.org/10.18429/JACoW-IPAC2019-THPTS066 http://cds.cern.ch/record/2690322 |
work_keys_str_mv | AT willandreas beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT bastianyan beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT bernhardaxel beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT bonuramarco beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT bordinibernardo beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT bortotlorenzo beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT favremathieu beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT lindstrombjorn beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT mentinkmatthijs beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT monteuuisarnaud beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT mullerankesusanne beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT oslandsbotnandreas beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT schmidtruediger beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT senatorecarmine beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT siemkoandrzej beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT stachonkrzysztof beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT usoskinalexander beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT vaananenmika beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT verweijarjan beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment AT wollmanndaniel beamimpactexperimentof440gevpprotonsonsuperconductingwiresandtapesinacryogenicenvironment |