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Test of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror Structure

The US LHC accelerator research program (LARP) is developing a new generation of large - aperture high - field quadrupoles based on Nb 3 Sn conductor for the High luminosity upgrade of Large Hadron Collider (HiLumi - LHC). Tests of the first series of 120 - mm aperture HQ coils revealed the necessit...

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Autores principales: Chlachidze, G, Ambrosio, G, Andreev, N, Anerella, M, Barzi, E, Bossert, R, Caspi, S, Cheng, D, Dietderich, D, Felice, H, Ferracin, P, Ghosh, A, Godeke, A, Hafalia, A R, Kashikhin, V V, Lamm, M, Marchevsky, M, Nobrega, A, Novitski, I, Orris, D, Sabbi, G L, Schmalzle, J, Wanderer, P, Zlobin, A V
Lenguaje:eng
Publicado: 2013
Materias:
Acceso en línea:https://dx.doi.org/10.1109/TASC.2013.2242955
http://cds.cern.ch/record/2009173
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author Chlachidze, G
Ambrosio, G
Andreev, N
Anerella, M
Barzi, E
Bossert, R
Caspi, S
Cheng, D
Dietderich, D
Felice, H
Ferracin, P
Ghosh, A
Godeke, A
Hafalia, A R
Kashikhin, V V
Lamm, M
Marchevsky, M
Nobrega, A
Novitski, I
Orris, D
Sabbi, G L
Schmalzle, J
Wanderer, P
Zlobin, A V
author_facet Chlachidze, G
Ambrosio, G
Andreev, N
Anerella, M
Barzi, E
Bossert, R
Caspi, S
Cheng, D
Dietderich, D
Felice, H
Ferracin, P
Ghosh, A
Godeke, A
Hafalia, A R
Kashikhin, V V
Lamm, M
Marchevsky, M
Nobrega, A
Novitski, I
Orris, D
Sabbi, G L
Schmalzle, J
Wanderer, P
Zlobin, A V
author_sort Chlachidze, G
collection CERN
description The US LHC accelerator research program (LARP) is developing a new generation of large - aperture high - field quadrupoles based on Nb 3 Sn conductor for the High luminosity upgrade of Large Hadron Collider (HiLumi - LHC). Tests of the first series of 120 - mm aperture HQ coils revealed the necessity for further optimization of the coil design and fabrication process. Modifications in coil design were gradually implemented in two HQ coils previously tested at Fermi National Accelerato r Laboratory (Fermilab) using a magnetic mirror structure (HQM01 and HQM02). This paper describes the construction and test of an HQ mirror model with a coil of optimized design and with an interlayer resistive core in the conductor. The cable for this co il was made of a smaller diameter strand, providing more room for coil expansion during reaction. The 0.8 - mm strand, used in all previous HQ coils was replaced with a 0.778 - mm Nb 3 Sn strand of RRP 108/127 sub - element design. The coil was instrumented with voltage taps, heaters, and strain gauges to monitor mechanical and thermal properties and quench performance of the coil.
id cern-2009173
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2013
record_format invenio
spelling cern-20091732019-09-30T06:29:59Zdoi:10.1109/TASC.2013.2242955http://cds.cern.ch/record/2009173engChlachidze, GAmbrosio, GAndreev, NAnerella, MBarzi, EBossert, RCaspi, SCheng, DDietderich, DFelice, HFerracin, PGhosh, AGodeke, AHafalia, A RKashikhin, V VLamm, MMarchevsky, MNobrega, ANovitski, IOrris, DSabbi, G LSchmalzle, JWanderer, PZlobin, A VTest of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror StructureAccelerators and Storage RingsThe US LHC accelerator research program (LARP) is developing a new generation of large - aperture high - field quadrupoles based on Nb 3 Sn conductor for the High luminosity upgrade of Large Hadron Collider (HiLumi - LHC). Tests of the first series of 120 - mm aperture HQ coils revealed the necessity for further optimization of the coil design and fabrication process. Modifications in coil design were gradually implemented in two HQ coils previously tested at Fermi National Accelerato r Laboratory (Fermilab) using a magnetic mirror structure (HQM01 and HQM02). This paper describes the construction and test of an HQ mirror model with a coil of optimized design and with an interlayer resistive core in the conductor. The cable for this co il was made of a smaller diameter strand, providing more room for coil expansion during reaction. The 0.8 - mm strand, used in all previous HQ coils was replaced with a 0.778 - mm Nb 3 Sn strand of RRP 108/127 sub - element design. The coil was instrumented with voltage taps, heaters, and strain gauges to monitor mechanical and thermal properties and quench performance of the coil.FERMILAB-PUB-12-921-TDoai:cds.cern.ch:20091732013
spellingShingle Accelerators and Storage Rings
Chlachidze, G
Ambrosio, G
Andreev, N
Anerella, M
Barzi, E
Bossert, R
Caspi, S
Cheng, D
Dietderich, D
Felice, H
Ferracin, P
Ghosh, A
Godeke, A
Hafalia, A R
Kashikhin, V V
Lamm, M
Marchevsky, M
Nobrega, A
Novitski, I
Orris, D
Sabbi, G L
Schmalzle, J
Wanderer, P
Zlobin, A V
Test of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror Structure
title Test of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror Structure
title_full Test of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror Structure
title_fullStr Test of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror Structure
title_full_unstemmed Test of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror Structure
title_short Test of Optimized 120-mm LARP $Nb_{3}S_n$ Quadrupole Coil Using Magnetic Mirror Structure
title_sort test of optimized 120-mm larp $nb_{3}s_n$ quadrupole coil using magnetic mirror structure
topic Accelerators and Storage Rings
url https://dx.doi.org/10.1109/TASC.2013.2242955
http://cds.cern.ch/record/2009173
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