Design of an Accelerating Structure for a 500 GeV CLIC using ACE3P

An optimized design of the main linac accelerating structure for a 500 GeV first stage of CLIC is presented. A similar long-range wakefield suppression scheme as for 3 TeV CLIC based on heavy waveguide damping is adopted. The accelerating gradient for the lower energy machine is 80 MV/m. The 500 GeV...

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Detalles Bibliográficos
Autores principales: Sjobak, K N, Adli, E, Grudiev, A, Wuensch, W
Lenguaje:eng
Publicado: 2012
Materias:
Accelerators and Storage Rings
Acceso en línea:http://cds.cern.ch/record/1459614
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author Sjobak, K N
Adli, E
Grudiev, A
Wuensch, W
author_facet Sjobak, K N
Adli, E
Grudiev, A
Wuensch, W
author_sort Sjobak, K N
collection CERN
description An optimized design of the main linac accelerating structure for a 500 GeV first stage of CLIC is presented. A similar long-range wakefield suppression scheme as for 3 TeV CLIC based on heavy waveguide damping is adopted. The accelerating gradient for the lower energy machine is 80 MV/m. The 500 GeV design has larger aperture radius in order to increase the maximum bunch charge and length which is limited by the short-range wakefields. The cell geometries have been optimized using a new parametric optimizer for Ace3P and details of the RF cell design are described. Field parameters for the full structure are calculated using a power flow equation.
id cern-1459614
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2012
record_format invenio
spelling cern-14596142023-07-20T15:05:48Zhttp://cds.cern.ch/record/1459614engSjobak, K NAdli, EGrudiev, AWuensch, WDesign of an Accelerating Structure for a 500 GeV CLIC using ACE3PAccelerators and Storage RingsAn optimized design of the main linac accelerating structure for a 500 GeV first stage of CLIC is presented. A similar long-range wakefield suppression scheme as for 3 TeV CLIC based on heavy waveguide damping is adopted. The accelerating gradient for the lower energy machine is 80 MV/m. The 500 GeV design has larger aperture radius in order to increase the maximum bunch charge and length which is limited by the short-range wakefields. The cell geometries have been optimized using a new parametric optimizer for Ace3P and details of the RF cell design are described. Field parameters for the full structure are calculated using a power flow equation.CERN-ATS-2012-122CLIC-Note-970oai:cds.cern.ch:14596142012-05-20
spellingShingle Accelerators and Storage Rings
Sjobak, K N
Adli, E
Grudiev, A
Wuensch, W
Design of an Accelerating Structure for a 500 GeV CLIC using ACE3P
title Design of an Accelerating Structure for a 500 GeV CLIC using ACE3P
title_full Design of an Accelerating Structure for a 500 GeV CLIC using ACE3P
title_fullStr Design of an Accelerating Structure for a 500 GeV CLIC using ACE3P
title_full_unstemmed Design of an Accelerating Structure for a 500 GeV CLIC using ACE3P
title_short Design of an Accelerating Structure for a 500 GeV CLIC using ACE3P
title_sort design of an accelerating structure for a 500 gev clic using ace3p
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/1459614
work_keys_str_mv AT sjobakkn designofanacceleratingstructurefora500gevclicusingace3p
AT adlie designofanacceleratingstructurefora500gevclicusingace3p
AT grudieva designofanacceleratingstructurefora500gevclicusingace3p
AT wuenschw designofanacceleratingstructurefora500gevclicusingace3p

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