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The LHC superconducting cavities

The LHC RF system, which must handle high intensity (0.5 A d.c.) beams, makes use of superconducting single-cell cavities, best suited to minimizing the effects of periodic transient beam loading. There will be eight cavities per beam, each capable of delivering 2 MV (5 MV/m accelerating field) at 4...

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Autores principales: Boussard, Daniel, Chiaveri, Enrico, Häbel, E, Kindermann, H P, Losito, R, Marque, S, Rödel, V, Stirbet, M
Lenguaje:eng
Publicado: 1999
Materias:
Acceso en línea:https://dx.doi.org/10.1109/PAC.1999.795409
http://cds.cern.ch/record/386691
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author Boussard, Daniel
Chiaveri, Enrico
Häbel, E
Kindermann, H P
Losito, R
Marque, S
Rödel, V
Stirbet, M
author_facet Boussard, Daniel
Chiaveri, Enrico
Häbel, E
Kindermann, H P
Losito, R
Marque, S
Rödel, V
Stirbet, M
author_sort Boussard, Daniel
collection CERN
description The LHC RF system, which must handle high intensity (0.5 A d.c.) beams, makes use of superconducting single-cell cavities, best suited to minimizing the effects of periodic transient beam loading. There will be eight cavities per beam, each capable of delivering 2 MV (5 MV/m accelerating field) at 400 MHz. The cavities themselves are now being manufactured by industry, using niobium-on-copper technology which gives full satisfaction at LEP. A cavity unit includes a helium tank (4.5 K operating temperature) built around a cavity cell, RF and HOM couplers and a mechanical tuner, all housed in a modular cryostat. Four-unit modules are ultimately foreseen for the LHC (two per beam), while at present a prototype version with two complete units is being extensively tested. In addition to a detailed description of the cavity and its ancillary equipment, the first test results of the prototype will be reported.
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institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1999
record_format invenio
spelling cern-3866912023-05-31T13:24:16Zdoi:10.1109/PAC.1999.795409http://cds.cern.ch/record/386691engBoussard, DanielChiaveri, EnricoHäbel, EKindermann, H PLosito, RMarque, SRödel, VStirbet, MThe LHC superconducting cavitiesAccelerators and Storage RingsThe LHC RF system, which must handle high intensity (0.5 A d.c.) beams, makes use of superconducting single-cell cavities, best suited to minimizing the effects of periodic transient beam loading. There will be eight cavities per beam, each capable of delivering 2 MV (5 MV/m accelerating field) at 400 MHz. The cavities themselves are now being manufactured by industry, using niobium-on-copper technology which gives full satisfaction at LEP. A cavity unit includes a helium tank (4.5 K operating temperature) built around a cavity cell, RF and HOM couplers and a mechanical tuner, all housed in a modular cryostat. Four-unit modules are ultimately foreseen for the LHC (two per beam), while at present a prototype version with two complete units is being extensively tested. In addition to a detailed description of the cavity and its ancillary equipment, the first test results of the prototype will be reported.LHC-Project-Report-301CERN-LHC-Project-Report-301oai:cds.cern.ch:3866911999-04-23
spellingShingle Accelerators and Storage Rings
Boussard, Daniel
Chiaveri, Enrico
Häbel, E
Kindermann, H P
Losito, R
Marque, S
Rödel, V
Stirbet, M
The LHC superconducting cavities
title The LHC superconducting cavities
title_full The LHC superconducting cavities
title_fullStr The LHC superconducting cavities
title_full_unstemmed The LHC superconducting cavities
title_short The LHC superconducting cavities
title_sort lhc superconducting cavities
topic Accelerators and Storage Rings
url https://dx.doi.org/10.1109/PAC.1999.795409
http://cds.cern.ch/record/386691
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