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Accurate Calculation of Fringe Fields in the LHC Main Dipoles

The ROXIE program developed at CERN for the design and optimization of the superconducting LHC magnets has been recently extended in a collaboration with the University of Stuttgart, Germany, with a field computation method based on the coupling between the boundary element (BEM) and the finite elem...

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Detalles Bibliográficos
Autores principales: Kurz, S, Russenschuck, Stephan, Siegel, N
Lenguaje:eng
Publicado: 1999
Materias:
Acceso en línea:http://cds.cern.ch/record/411158
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author Kurz, S
Russenschuck, Stephan
Siegel, N
author_facet Kurz, S
Russenschuck, Stephan
Siegel, N
author_sort Kurz, S
collection CERN
description The ROXIE program developed at CERN for the design and optimization of the superconducting LHC magnets has been recently extended in a collaboration with the University of Stuttgart, Germany, with a field computation method based on the coupling between the boundary element (BEM) and the finite element (FEM) technique. This avoids the meshing of the coils and the air regions, and avoids the artificial far field boundary conditions. The method is therefore specially suited for the accurate calculation of fields in the superconducting magnets in which the field is dominated by the coil. We will present the fringe field calculations in both 2d and 3d geometries to evaluate the effect of connections and the cryostat on the field quality and the flux density to which auxiliary bus-bars are exposed.
id cern-411158
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1999
record_format invenio
spelling cern-4111582023-05-31T13:23:42Zhttp://cds.cern.ch/record/411158engKurz, SRussenschuck, StephanSiegel, NAccurate Calculation of Fringe Fields in the LHC Main DipolesAccelerators and Storage RingsThe ROXIE program developed at CERN for the design and optimization of the superconducting LHC magnets has been recently extended in a collaboration with the University of Stuttgart, Germany, with a field computation method based on the coupling between the boundary element (BEM) and the finite element (FEM) technique. This avoids the meshing of the coils and the air regions, and avoids the artificial far field boundary conditions. The method is therefore specially suited for the accurate calculation of fields in the superconducting magnets in which the field is dominated by the coil. We will present the fringe field calculations in both 2d and 3d geometries to evaluate the effect of connections and the cryostat on the field quality and the flux density to which auxiliary bus-bars are exposed.LHC-Project-Report-357CERN-LHC-Project-Report-357oai:cds.cern.ch:4111581999-12-01
spellingShingle Accelerators and Storage Rings
Kurz, S
Russenschuck, Stephan
Siegel, N
Accurate Calculation of Fringe Fields in the LHC Main Dipoles
title Accurate Calculation of Fringe Fields in the LHC Main Dipoles
title_full Accurate Calculation of Fringe Fields in the LHC Main Dipoles
title_fullStr Accurate Calculation of Fringe Fields in the LHC Main Dipoles
title_full_unstemmed Accurate Calculation of Fringe Fields in the LHC Main Dipoles
title_short Accurate Calculation of Fringe Fields in the LHC Main Dipoles
title_sort accurate calculation of fringe fields in the lhc main dipoles
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/411158
work_keys_str_mv AT kurzs accuratecalculationoffringefieldsinthelhcmaindipoles
AT russenschuckstephan accuratecalculationoffringefieldsinthelhcmaindipoles
AT siegeln accuratecalculationoffringefieldsinthelhcmaindipoles