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A Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25m

The paper presents a triplet layout option with long (about 100m total triplet length), low gradient (45T/m to 70T/m) quadrupole magnets. Assuming a maximum magnet diameter of 200mm, the peak coil field at the magnet coils still remains below 7T which is still compatible with conventional NbTi magne...

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Detalles Bibliográficos
Autores principales: Brüning, Oliver Sim, De Maria, Riccardo
Lenguaje:eng
Publicado: 2006
Materias:
Acceso en línea:http://cds.cern.ch/record/972659
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author Brüning, Oliver Sim
De Maria, Riccardo
author_facet Brüning, Oliver Sim
De Maria, Riccardo
author_sort Brüning, Oliver Sim
collection CERN
description The paper presents a triplet layout option with long (about 100m total triplet length), low gradient (45T/m to 70T/m) quadrupole magnets. Assuming a maximum magnet diameter of 200mm, the peak coil field at the magnet coils still remains below 7T which is still compatible with conventional NbTi magnet technology. The peak beta function inside the triplet magnets reaches 22km and the configuration therefore requires an additional chromaticity correction scheme similar to a dipole first layout option. However, at the same time, the presented solution provides an interesting alternative to a high gradient triplet layout which requires the new Nb3Ti magnet technology.
id cern-972659
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2006
record_format invenio
spelling cern-9726592023-05-31T13:24:27Zhttp://cds.cern.ch/record/972659engBrüning, Oliver SimDe Maria, RiccardoA Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25mAccelerators and Storage RingsThe paper presents a triplet layout option with long (about 100m total triplet length), low gradient (45T/m to 70T/m) quadrupole magnets. Assuming a maximum magnet diameter of 200mm, the peak coil field at the magnet coils still remains below 7T which is still compatible with conventional NbTi magnet technology. The peak beta function inside the triplet magnets reaches 22km and the configuration therefore requires an additional chromaticity correction scheme similar to a dipole first layout option. However, at the same time, the presented solution provides an interesting alternative to a high gradient triplet layout which requires the new Nb3Ti magnet technology.LHC-PROJECT-Report-933CERN-LHC-Project-Report-933CARE-Conf-06-046-HHHCARE-Conf-2006-046-HHHoai:cds.cern.ch:9726592006-07-13
spellingShingle Accelerators and Storage Rings
Brüning, Oliver Sim
De Maria, Riccardo
A Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25m
title A Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25m
title_full A Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25m
title_fullStr A Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25m
title_full_unstemmed A Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25m
title_short A Lowgradient Triplet Quadrupole Layout Compatible with NbTi Magnet Technology and $\Beta^{*}$ = 0.25m
title_sort lowgradient triplet quadrupole layout compatible with nbti magnet technology and $\beta^{*}$ = 0.25m
topic Accelerators and Storage Rings
url http://cds.cern.ch/record/972659
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AT demariariccardo alowgradienttripletquadrupolelayoutcompatiblewithnbtimagnettechnologyandbeta025m
AT bruningoliversim lowgradienttripletquadrupolelayoutcompatiblewithnbtimagnettechnologyandbeta025m
AT demariariccardo lowgradienttripletquadrupolelayoutcompatiblewithnbtimagnettechnologyandbeta025m