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Initial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear Collider

Nominal operating conditions for the Compact Linear Collider (CLIC) 380 GeV requires 72 MV/m loaded accelerating gradients for a 180 ns flat-top pulse. Achieving this requires extensive RF conditioning which past tests have demonstrated can take several months per structure, when conditioned at the...

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Autores principales: Lucas, Thomas, Boland, Mark, Catalán Lasheras, Nuria, Giansiracusa, Paul, Grudiev, Alexej, Lefèvre, Thibaut, McMonagle, Gerard, Paszkiewicz, Jan, Rassool, Roger, Serpico, Claudio, Syratchev, Igor, Vnuchenko, Anna, Volpi, Matteo, Woolley, Benjamin, Wuensch, Walter, Zennaro, Riccardo, del Pozo Romano, Veronica
Lenguaje:eng
Publicado: 2018
Materias:
Acceso en línea:https://dx.doi.org/10.18429/JACoW-IPAC2018-THPMK103
http://cds.cern.ch/record/2648552
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author Lucas, Thomas
Boland, Mark
Catalán Lasheras, Nuria
Giansiracusa, Paul
Grudiev, Alexej
Lefèvre, Thibaut
McMonagle, Gerard
Paszkiewicz, Jan
Rassool, Roger
Serpico, Claudio
Syratchev, Igor
Vnuchenko, Anna
Volpi, Matteo
Woolley, Benjamin
Wuensch, Walter
Zennaro, Riccardo
del Pozo Romano, Veronica
author_facet Lucas, Thomas
Boland, Mark
Catalán Lasheras, Nuria
Giansiracusa, Paul
Grudiev, Alexej
Lefèvre, Thibaut
McMonagle, Gerard
Paszkiewicz, Jan
Rassool, Roger
Serpico, Claudio
Syratchev, Igor
Vnuchenko, Anna
Volpi, Matteo
Woolley, Benjamin
Wuensch, Walter
Zennaro, Riccardo
del Pozo Romano, Veronica
author_sort Lucas, Thomas
collection CERN
description Nominal operating conditions for the Compact Linear Collider (CLIC) 380 GeV requires 72 MV/m loaded accelerating gradients for a 180 ns flat-top pulse. Achieving this requires extensive RF conditioning which past tests have demonstrated can take several months per structure, when conditioned at the nominal repetition rate of 50 Hz. At CERN there are three individual X-band test stands currently operational, testing up to 6 structures concurrently. For CLIC's 380 GeV design, 28,000 accelerating structures will make up the main linac. For a large scale conditioning programme, it is important to understand the RF conditioning process and to optimise the time taken for conditioning. In this paper, we review recent X-band testing results from CERN's test stands. With these results we investigate how to optimise the conditioning process and demonstrate the feasibility of pre-conditioning the structures at a higher repetition rate before installation into the main linac.
id oai-inspirehep.net-1690023
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2018
record_format invenio
spelling oai-inspirehep.net-16900232023-07-20T15:03:53Zdoi:10.18429/JACoW-IPAC2018-THPMK103http://cds.cern.ch/record/2648552engLucas, ThomasBoland, MarkCatalán Lasheras, NuriaGiansiracusa, PaulGrudiev, AlexejLefèvre, ThibautMcMonagle, GerardPaszkiewicz, JanRassool, RogerSerpico, ClaudioSyratchev, IgorVnuchenko, AnnaVolpi, MatteoWoolley, BenjaminWuensch, WalterZennaro, Riccardodel Pozo Romano, VeronicaInitial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear ColliderAccelerators and Storage RingsNominal operating conditions for the Compact Linear Collider (CLIC) 380 GeV requires 72 MV/m loaded accelerating gradients for a 180 ns flat-top pulse. Achieving this requires extensive RF conditioning which past tests have demonstrated can take several months per structure, when conditioned at the nominal repetition rate of 50 Hz. At CERN there are three individual X-band test stands currently operational, testing up to 6 structures concurrently. For CLIC's 380 GeV design, 28,000 accelerating structures will make up the main linac. For a large scale conditioning programme, it is important to understand the RF conditioning process and to optimise the time taken for conditioning. In this paper, we review recent X-band testing results from CERN's test stands. With these results we investigate how to optimise the conditioning process and demonstrate the feasibility of pre-conditioning the structures at a higher repetition rate before installation into the main linac.CERN-ACC-2018-137CLIC-Note-1144oai:inspirehep.net:16900232018
spellingShingle Accelerators and Storage Rings
Lucas, Thomas
Boland, Mark
Catalán Lasheras, Nuria
Giansiracusa, Paul
Grudiev, Alexej
Lefèvre, Thibaut
McMonagle, Gerard
Paszkiewicz, Jan
Rassool, Roger
Serpico, Claudio
Syratchev, Igor
Vnuchenko, Anna
Volpi, Matteo
Woolley, Benjamin
Wuensch, Walter
Zennaro, Riccardo
del Pozo Romano, Veronica
Initial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear Collider
title Initial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear Collider
title_full Initial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear Collider
title_fullStr Initial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear Collider
title_full_unstemmed Initial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear Collider
title_short Initial Testing of Techniques for Large Scale Rf Conditioning for the Compact Linear Collider
title_sort initial testing of techniques for large scale rf conditioning for the compact linear collider
topic Accelerators and Storage Rings
url https://dx.doi.org/10.18429/JACoW-IPAC2018-THPMK103
http://cds.cern.ch/record/2648552
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