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Progress in the Design of a Damped and Tapered Accelerating Structure for CLIC

Two of the main requirements for CLIC 30 GHz accelerating structures are an average accelerating gradient of 150 MV/m and features which suppress long-range transverse and longitudinal wakefields. The main effects that constrain the design of a copper structure are a surface electric field limit of...

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Detalles Bibliográficos
Autores principales: Raguin, J Y, Wilson, Ian H, Wuensch, Walter
Lenguaje:eng
Publicado: 2003
Materias:
Acceso en línea:http://cds.cern.ch/record/619615
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author Raguin, J Y
Wilson, Ian H
Wuensch, Walter
author_facet Raguin, J Y
Wilson, Ian H
Wuensch, Walter
author_sort Raguin, J Y
collection CERN
description Two of the main requirements for CLIC 30 GHz accelerating structures are an average accelerating gradient of 150 MV/m and features which suppress long-range transverse and longitudinal wakefields. The main effects that constrain the design of a copper structure are a surface electric field limit of about 300 MV/m, from evidence produced by the CLIC high-gradient testing program, and a pulsed surface heating temperature rise limit estimated to be of the order of 100 K. The interplay between maximum surface electric field, maximum surface magnetic field, transverse-wakefield suppression and RF-to-beam efficiency has been studied in detail. Several structures with a 110° phase advance and rather constant peak surface field distributions have been designed. Different damping-waveguide geometries and waveguide-to-cavity couplings are compared.
id cern-619615
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2003
record_format invenio
spelling cern-6196152023-08-17T09:45:22Zhttp://cds.cern.ch/record/619615engRaguin, J YWilson, Ian HWuensch, WalterProgress in the Design of a Damped and Tapered Accelerating Structure for CLICAccelerators and Storage RingsTwo of the main requirements for CLIC 30 GHz accelerating structures are an average accelerating gradient of 150 MV/m and features which suppress long-range transverse and longitudinal wakefields. The main effects that constrain the design of a copper structure are a surface electric field limit of about 300 MV/m, from evidence produced by the CLIC high-gradient testing program, and a pulsed surface heating temperature rise limit estimated to be of the order of 100 K. The interplay between maximum surface electric field, maximum surface magnetic field, transverse-wakefield suppression and RF-to-beam efficiency has been studied in detail. Several structures with a 110° phase advance and rather constant peak surface field distributions have been designed. Different damping-waveguide geometries and waveguide-to-cavity couplings are compared.CERN-AB-2003-045-RFCLIC-Note-567oai:cds.cern.ch:6196152003-05-22
spellingShingle Accelerators and Storage Rings
Raguin, J Y
Wilson, Ian H
Wuensch, Walter
Progress in the Design of a Damped and Tapered Accelerating Structure for CLIC
title Progress in the Design of a Damped and Tapered Accelerating Structure for CLIC
title_full Progress in the Design of a Damped and Tapered Accelerating Structure for CLIC
title_fullStr Progress in the Design of a Damped and Tapered Accelerating Structure for CLIC
title_full_unstemmed Progress in the Design of a Damped and Tapered Accelerating Structure for CLIC
title_short Progress in the Design of a Damped and Tapered Accelerating Structure for CLIC
title_sort progress in the design of a damped and tapered accelerating structure for clic
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/619615
work_keys_str_mv AT raguinjy progressinthedesignofadampedandtaperedacceleratingstructureforclic
AT wilsonianh progressinthedesignofadampedandtaperedacceleratingstructureforclic
AT wuenschwalter progressinthedesignofadampedandtaperedacceleratingstructureforclic