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Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet

The Short Model Coil (SMC) working group was set in February 2007 to complement the Next European Dipole (NED) program, in order to develop a short-scale model of a Nb$_{3}$Sn dipole magnet. In 2009, the EuCARD/HFM (High Field Magnets) program took over these programs. The SMC group comprises four l...

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Autores principales: Manil, P, Regis, F, Rochford, J, Fessia, P, Canfer, S, Baynham, E, Nunio, F, de Rijk, G, Védrine, P
Formato: info:eu-repo/semantics/article
Lenguaje:eng
Publicado: IEEE Trans. Appl. Supercond. 2010
Materias:
Acceso en línea:https://dx.doi.org/10.1109/TASC.2009.2039343
http://cds.cern.ch/record/1229432
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author Manil, P
Regis, F
Rochford, J
Fessia, P
Canfer, S
Baynham, E
Nunio, F
de Rijk, G
Védrine, P
author_facet Manil, P
Regis, F
Rochford, J
Fessia, P
Canfer, S
Baynham, E
Nunio, F
de Rijk, G
Védrine, P
author_sort Manil, P
collection CERN
description The Short Model Coil (SMC) working group was set in February 2007 to complement the Next European Dipole (NED) program, in order to develop a short-scale model of a Nb$_{3}$Sn dipole magnet. In 2009, the EuCARD/HFM (High Field Magnets) program took over these programs. The SMC group comprises four laboratories: CERN/TE-MSC group (CH), CEA/IRFU (FR), RAL (UK) and LBNL (US). The SMC magnet is designed to reach a peak field of about 13 Tesla (T) on conductor, using a 2500 A/mm2 Powder-In-Tube (PIT) strand. The aim of this magnet device is to study the degradation of the magnetic properties of the Nb$_{3}$Sn cable, by applying different levels of pre-stress. To fully satisfy this purpose, a versatile and easy-to-assemble structure has been realized. The design of the SMC magnet has been developed from an existing dipole magnet, the SD01, designed, built and tested at LBNL with support from CEA. The goal of the magnetic design presented in this paper is to match the high field region with the high stress region, located along the dipole straight section. For this purpose, three-dimensional nonlinear parametric models have been implemented using three codes (CAST3M, ANSYS™, and OPERA™). This optimization process has been an opportunity to cross-check the codes. The results of this benchmarking are presented here, along with the final design which incorporates the use of end spacers and a surrounding iron structure to deliver a nominal field of 13 T uniformly distributed along the cable straight section.
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spelling cern-12294322019-09-30T06:29:59Z doi:10.1109/TASC.2009.2039343 http://cds.cern.ch/record/1229432 eng Manil, P Regis, F Rochford, J Fessia, P Canfer, S Baynham, E Nunio, F de Rijk, G Védrine, P Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet Accelerators and Storage Rings 7: Super-conducting High Field Magnets for higher luminosities and energies The Short Model Coil (SMC) working group was set in February 2007 to complement the Next European Dipole (NED) program, in order to develop a short-scale model of a Nb$_{3}$Sn dipole magnet. In 2009, the EuCARD/HFM (High Field Magnets) program took over these programs. The SMC group comprises four laboratories: CERN/TE-MSC group (CH), CEA/IRFU (FR), RAL (UK) and LBNL (US). The SMC magnet is designed to reach a peak field of about 13 Tesla (T) on conductor, using a 2500 A/mm2 Powder-In-Tube (PIT) strand. The aim of this magnet device is to study the degradation of the magnetic properties of the Nb$_{3}$Sn cable, by applying different levels of pre-stress. To fully satisfy this purpose, a versatile and easy-to-assemble structure has been realized. The design of the SMC magnet has been developed from an existing dipole magnet, the SD01, designed, built and tested at LBNL with support from CEA. The goal of the magnetic design presented in this paper is to match the high field region with the high stress region, located along the dipole straight section. For this purpose, three-dimensional nonlinear parametric models have been implemented using three codes (CAST3M, ANSYS™, and OPERA™). This optimization process has been an opportunity to cross-check the codes. The results of this benchmarking are presented here, along with the final design which incorporates the use of end spacers and a surrounding iron structure to deliver a nominal field of 13 T uniformly distributed along the cable straight section. info:eu-repo/grantAgreement/EC/FP7/227579 info:eu-repo/semantics/openAccess Education Level info:eu-repo/semantics/article http://cds.cern.ch/record/1229432 IEEE Trans. Appl. Supercond. IEEE Trans. Appl. Supercond., 3 (2010) pp. 184 2010
spellingShingle Accelerators and Storage Rings
7: Super-conducting High Field Magnets for higher luminosities and energies
Manil, P
Regis, F
Rochford, J
Fessia, P
Canfer, S
Baynham, E
Nunio, F
de Rijk, G
Védrine, P
Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet
title Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet
title_full Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet
title_fullStr Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet
title_full_unstemmed Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet
title_short Magnetic Design and Code Benchmarking of the SMC (Short Model Coil) Dipole Magnet
title_sort magnetic design and code benchmarking of the smc (short model coil) dipole magnet
topic Accelerators and Storage Rings
7: Super-conducting High Field Magnets for higher luminosities and energies
url https://dx.doi.org/10.1109/TASC.2009.2039343
http://cds.cern.ch/record/1229432
http://cds.cern.ch/record/1229432
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