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Distribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHC

The High Luminosity LHC (HL-LHC) project aims at upgrading the LHC collider to increase its luminosity by about a factor of five. The electrical connection between the magnets in the LHC tunnel and the power converters in a new transverse tunnel will be supplied by a superconducting line (SCLink), c...

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Detalles Bibliográficos
Autores principales: Bailey, W, Pelegrin, J, Falorio, I, Leclercq, Y, Betemps, R, Parma, V, Ballarino, A, Yang, Y
Lenguaje:eng
Publicado: IOP 2020
Materias:
Acceso en línea:https://dx.doi.org/10.1088/1742-6596/1559/1/012076
http://cds.cern.ch/record/2725697
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author Bailey, W
Pelegrin, J
Falorio, I
Leclercq, Y
Betemps, R
Parma, V
Ballarino, A
Yang, Y
author_facet Bailey, W
Pelegrin, J
Falorio, I
Leclercq, Y
Betemps, R
Parma, V
Ballarino, A
Yang, Y
author_sort Bailey, W
collection CERN
description The High Luminosity LHC (HL-LHC) project aims at upgrading the LHC collider to increase its luminosity by about a factor of five. The electrical connection between the magnets in the LHC tunnel and the power converters in a new transverse tunnel will be supplied by a superconducting line (SCLink), consisting of ten MgB$_2$ cables housed into a 140 metre long flexible cryostat. This paper presents the detailed design for one of two types of distribution feedbox, (DFX) located between the magnet and the distribution feedbox. The vacuum barrier required to separate the vacuums of the upper SCLink and lower DFX sections; is to be integrated in the middle of the vertical section of DFX. A detailed study was performed, given the complexity of installing a vacuum barrier with a large diameter within a restricted height. Eccentric loading on the barrier is created by the “L-shape” vessel, necessary to accommodate the transition of the cable from vertical-to-horizontal. The solution considers a vacuum barrier assembly consisting of a flexible corrugated membrane (bellows) and deploys a lightweight “supporting cage” around the barrier and restraining rods in the horizontal section to ensure the barrier bares no substantial load or torque, and suffers no lateral or column type instability during operating and accidental conditions. The current design satisfies the mechanical and thermal design criteria outlined in the DFX specification.
id oai-inspirehep.net-1803469
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2020
publisher IOP
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spelling oai-inspirehep.net-18034692022-08-17T12:59:42Zdoi:10.1088/1742-6596/1559/1/012076http://cds.cern.ch/record/2725697engBailey, WPelegrin, JFalorio, ILeclercq, YBetemps, RParma, VBallarino, AYang, YDistribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHCAccelerators and Storage RingsThe High Luminosity LHC (HL-LHC) project aims at upgrading the LHC collider to increase its luminosity by about a factor of five. The electrical connection between the magnets in the LHC tunnel and the power converters in a new transverse tunnel will be supplied by a superconducting line (SCLink), consisting of ten MgB$_2$ cables housed into a 140 metre long flexible cryostat. This paper presents the detailed design for one of two types of distribution feedbox, (DFX) located between the magnet and the distribution feedbox. The vacuum barrier required to separate the vacuums of the upper SCLink and lower DFX sections; is to be integrated in the middle of the vertical section of DFX. A detailed study was performed, given the complexity of installing a vacuum barrier with a large diameter within a restricted height. Eccentric loading on the barrier is created by the “L-shape” vessel, necessary to accommodate the transition of the cable from vertical-to-horizontal. The solution considers a vacuum barrier assembly consisting of a flexible corrugated membrane (bellows) and deploys a lightweight “supporting cage” around the barrier and restraining rods in the horizontal section to ensure the barrier bares no substantial load or torque, and suffers no lateral or column type instability during operating and accidental conditions. The current design satisfies the mechanical and thermal design criteria outlined in the DFX specification.IOPoai:inspirehep.net:18034692020
spellingShingle Accelerators and Storage Rings
Bailey, W
Pelegrin, J
Falorio, I
Leclercq, Y
Betemps, R
Parma, V
Ballarino, A
Yang, Y
Distribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHC
title Distribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHC
title_full Distribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHC
title_fullStr Distribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHC
title_full_unstemmed Distribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHC
title_short Distribution Feedbox for the Superconducting Link (SCLink) and Magnets of HL-LHC
title_sort distribution feedbox for the superconducting link (sclink) and magnets of hl-lhc
topic Accelerators and Storage Rings
url https://dx.doi.org/10.1088/1742-6596/1559/1/012076
http://cds.cern.ch/record/2725697
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AT pelegrinj distributionfeedboxforthesuperconductinglinksclinkandmagnetsofhllhc
AT falorioi distributionfeedboxforthesuperconductinglinksclinkandmagnetsofhllhc
AT leclercqy distributionfeedboxforthesuperconductinglinksclinkandmagnetsofhllhc
AT betempsr distributionfeedboxforthesuperconductinglinksclinkandmagnetsofhllhc
AT parmav distributionfeedboxforthesuperconductinglinksclinkandmagnetsofhllhc
AT ballarinoa distributionfeedboxforthesuperconductinglinksclinkandmagnetsofhllhc
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