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Construction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity Upgrade

INFN is developing at LASA lab (INFN Milano, Italy) the prototypes of five corrector magnets, from skew quadrupole to dodecapole, which will equip the high-luminosity interaction regions of the High Luminosity-LHC. These magnets are based on a superferric design, which allows a relatively simple, mo...

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Autores principales: Statera, Marco, Volpini, Giovanni, Alessandria, Franco, Bellomo, Giovanni, Broggi, Francesco, Paccalini, Antonio, Pedrini, Danilo, Leone, Augusto, Marinozzi, Vittorio, Quadrio, Mauro, Sorbi, Massimo, Todero, Maurizio, Uva, Carlo, Fessia, Paolo, Musso, Andrea, Todesco, Ezio, Toral, Fernando
Lenguaje:eng
Publicado: 2017
Materias:
Acceso en línea:https://dx.doi.org/10.1109/TASC.2017.2650957
http://cds.cern.ch/record/2276067
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author Statera, Marco
Volpini, Giovanni
Alessandria, Franco
Bellomo, Giovanni
Broggi, Francesco
Paccalini, Antonio
Pedrini, Danilo
Leone, Augusto
Marinozzi, Vittorio
Quadrio, Mauro
Sorbi, Massimo
Todero, Maurizio
Uva, Carlo
Fessia, Paolo
Musso, Andrea
Todesco, Ezio
Toral, Fernando
author_facet Statera, Marco
Volpini, Giovanni
Alessandria, Franco
Bellomo, Giovanni
Broggi, Francesco
Paccalini, Antonio
Pedrini, Danilo
Leone, Augusto
Marinozzi, Vittorio
Quadrio, Mauro
Sorbi, Massimo
Todero, Maurizio
Uva, Carlo
Fessia, Paolo
Musso, Andrea
Todesco, Ezio
Toral, Fernando
author_sort Statera, Marco
collection CERN
description INFN is developing at LASA lab (INFN Milano, Italy) the prototypes of five corrector magnets, from skew quadrupole to dodecapole, which will equip the high-luminosity interaction regions of the High Luminosity-LHC. These magnets are based on a superferric design, which allows a relatively simple, modular, and easy to construct magnet. This activity takes place within the framework of a collaboration agreement between CERN and INFN. The first prototype, a sextupole, has been assembled in early 2016. We present here the results of the cold test, including the training performed at 4.2 K and the qualification at 2.2 K. We report also on the overall experience gained during its construction and test. An important aspect is represented by the analysis of the manufacturing tolerances of the mechanical pieces and the alignment accuracy achieved. These results will serve as a basis for the design of the next magnets, the octupole, and the decapole. Other important results concern the cold performance of the coil-to-coil electrical joints (especially critical in a magnet with a large number of coils), dynamic inductance measurements and quench studies.
id oai-inspirehep.net-1611383
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2017
record_format invenio
spelling oai-inspirehep.net-16113832019-09-30T06:29:59Zdoi:10.1109/TASC.2017.2650957http://cds.cern.ch/record/2276067engStatera, MarcoVolpini, GiovanniAlessandria, FrancoBellomo, GiovanniBroggi, FrancescoPaccalini, AntonioPedrini, DaniloLeone, AugustoMarinozzi, VittorioQuadrio, MauroSorbi, MassimoTodero, MaurizioUva, CarloFessia, PaoloMusso, AndreaTodesco, EzioToral, FernandoConstruction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity UpgradeAccelerators and Storage RingsINFN is developing at LASA lab (INFN Milano, Italy) the prototypes of five corrector magnets, from skew quadrupole to dodecapole, which will equip the high-luminosity interaction regions of the High Luminosity-LHC. These magnets are based on a superferric design, which allows a relatively simple, modular, and easy to construct magnet. This activity takes place within the framework of a collaboration agreement between CERN and INFN. The first prototype, a sextupole, has been assembled in early 2016. We present here the results of the cold test, including the training performed at 4.2 K and the qualification at 2.2 K. We report also on the overall experience gained during its construction and test. An important aspect is represented by the analysis of the manufacturing tolerances of the mechanical pieces and the alignment accuracy achieved. These results will serve as a basis for the design of the next magnets, the octupole, and the decapole. Other important results concern the cold performance of the coil-to-coil electrical joints (especially critical in a magnet with a large number of coils), dynamic inductance measurements and quench studies.oai:inspirehep.net:16113832017
spellingShingle Accelerators and Storage Rings
Statera, Marco
Volpini, Giovanni
Alessandria, Franco
Bellomo, Giovanni
Broggi, Francesco
Paccalini, Antonio
Pedrini, Danilo
Leone, Augusto
Marinozzi, Vittorio
Quadrio, Mauro
Sorbi, Massimo
Todero, Maurizio
Uva, Carlo
Fessia, Paolo
Musso, Andrea
Todesco, Ezio
Toral, Fernando
Construction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity Upgrade
title Construction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity Upgrade
title_full Construction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity Upgrade
title_fullStr Construction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity Upgrade
title_full_unstemmed Construction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity Upgrade
title_short Construction and Cold Test of the First Superferric Corrector Magnet for the LHC Luminosity Upgrade
title_sort construction and cold test of the first superferric corrector magnet for the lhc luminosity upgrade
topic Accelerators and Storage Rings
url https://dx.doi.org/10.1109/TASC.2017.2650957
http://cds.cern.ch/record/2276067
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