Further development of the sextupole and decapole spool corrector magnets for the LHC

Allitt, M.; Ijspeert, A.; Karppinen, M.; Mazet, J.; Perez, J. Garcia; Salminen, J.; Bapna, S.C.; Karmarkar, M.G.; Puntambekar, A.; Ruwali, Kailash; Thipsay, A.

doi:10.1109/77.828201

Cited by 4 publications

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“…1), packed in a layer of pre-preg insulation, slipped into iron yoke laminations and pre-stressed by means of aluminum shrink-rings. The usual number of coils per magnet is " " but for the magnets of an order higher than sextupole the magnets have been constructed with only " " coils [1], [2].…”

Section: A Construction Principles and Number Of Coilsmentioning

confidence: 99%

Principles developed for the construction of the high performance, low-cost superconducting LHC corrector magnets

Ijspeert¹,

Allitt²,

Hilaire³

et al. 2002

IEEE Trans. Appl. Supercond.

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Abstract-The Large Hadron Collider (LHC) needs more than 6000 superconducting corrector magnets. These must be sufficiently powerful, have enough margin, be compact and of low cost. The development of the 11 types of magnets was spread over several years and included the magnetic and mechanical design as well as prototype building and testing. It gradually led to the systematic application of a number of interesting construction principles that allow to realize the above mentioned goals. The paper describes the techniques developed and presently used in practically all the LHC corrector magnets ranging from dipoles to dodecapoles.

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Section: A Construction Principles and Number Of Coilsmentioning

confidence: 99%

Principles developed for the construction of the high performance, low-cost superconducting LHC corrector magnets

Ijspeert¹,

Allitt²,

Hilaire³

et al. 2002

IEEE Trans. Appl. Supercond.

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Turn, layer and ground insulation for superconducting magnets

Evans

2001

Physica C: Superconductivity

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The Large Hadron Collider-present status and prospects

Evans

2000

IEEE Trans. Appl. Supercond.

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AbdmctTlie Large Hadron Collider (LIIC), due to he commissioncd in 2005, will provide particle physics with the first laboratoiy tool to access thc energy frontier above 1 TcV. In order to achieve this, protons must be accelerated and stored at 7 TcV, colliding with an unprecedented luminosity of loM cm.' s-'. The 8.3 Tesla guidc field is obtained using conventional Nb'l'i tcchnology cooled to below thc lambdn paint of helium, Considerable modification of the infrastructure around the exisling Largc Elcctron Positron collider (LEP) tunnel is needed to liousc the LlIC machine and dctcctors. The project is advancing according to schedule with most of the major Iiardwere systems including cryogenics and magnets under Construction. A brief statiis report is given and futurc prospects arc discussed.

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Further development of the sextupole and decapole spool corrector magnets for the LHC

Cited by 4 publications

References 0 publications

Principles developed for the construction of the high performance, low-cost superconducting LHC corrector magnets

Principles developed for the construction of the high performance, low-cost superconducting LHC corrector magnets

Turn, layer and ground insulation for superconducting magnets

The Large Hadron Collider-present status and prospects

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