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Low Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet Technology

The paper presents three different layout and optics solutions for the upgrade of LHC insertions using Nb-Ti superconducting quadrupoles. Each solution is the outcome of different driving design criteria: a) a compact triplet using low gradient quadrupoles; b) a triplet using low gradient quadrupole...

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Detalles Bibliográficos
Autores principales: Brüning, Oliver Sim, de Maria, R, Ostojic, R
Lenguaje:eng
Publicado: 2007
Materias:
Acceso en línea:http://cds.cern.ch/record/1038088
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author Brüning, Oliver Sim
de Maria, R
Ostojic, R
author_facet Brüning, Oliver Sim
de Maria, R
Ostojic, R
author_sort Brüning, Oliver Sim
collection CERN
description The paper presents three different layout and optics solutions for the upgrade of LHC insertions using Nb-Ti superconducting quadrupoles. Each solution is the outcome of different driving design criteria: a) a compact triplet using low gradient quadrupoles; b) a triplet using low gradient quadrupoles of modular design, and c) a layout minimizing the B-max while using modular magnets. The paper discusses the different strategies and design criteria for the three solutions. It also discusses their relative advantages and disadvantages and identifies outstanding studies that need to be addressed in order to develop the solutions further. All cases assume that the first quadrupole magnet requires a smaller minimum aperture and therefore, can feature a slightly larger gradient than the remaining final focus quadrupole magnets.
id cern-1038088
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2007
record_format invenio
spelling cern-10380882023-05-31T13:24:15Zhttp://cds.cern.ch/record/1038088engBrüning, Oliver Simde Maria, ROstojic, RLow Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet TechnologyAccelerators and Storage RingsThe paper presents three different layout and optics solutions for the upgrade of LHC insertions using Nb-Ti superconducting quadrupoles. Each solution is the outcome of different driving design criteria: a) a compact triplet using low gradient quadrupoles; b) a triplet using low gradient quadrupoles of modular design, and c) a layout minimizing the B-max while using modular magnets. The paper discusses the different strategies and design criteria for the three solutions. It also discusses their relative advantages and disadvantages and identifies outstanding studies that need to be addressed in order to develop the solutions further. All cases assume that the first quadrupole magnet requires a smaller minimum aperture and therefore, can feature a slightly larger gradient than the remaining final focus quadrupole magnets.LHC-PROJECT-Report-1008CERN-LHC-PROJECT-Report-1008oai:cds.cern.ch:10380882007-05-04
spellingShingle Accelerators and Storage Rings
Brüning, Oliver Sim
de Maria, R
Ostojic, R
Low Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet Technology
title Low Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet Technology
title_full Low Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet Technology
title_fullStr Low Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet Technology
title_full_unstemmed Low Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet Technology
title_short Low Gradient, Large Aperture IR Upgrade Options for the LHC compatible with Nb-Ti Magnet Technology
title_sort low gradient, large aperture ir upgrade options for the lhc compatible with nb-ti magnet technology
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/1038088
work_keys_str_mv AT bruningoliversim lowgradientlargeapertureirupgradeoptionsforthelhccompatiblewithnbtimagnettechnology
AT demariar lowgradientlargeapertureirupgradeoptionsforthelhccompatiblewithnbtimagnettechnology
AT ostojicr lowgradientlargeapertureirupgradeoptionsforthelhccompatiblewithnbtimagnettechnology