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Explorative Studies of an Innovative Superconducting Gantry

The Heavy Ion Therapy Research Integration plus (HITRIplus) is a European project that aims to integrate and propel research and technologies related to cancer treatment with heavy ions beams. Among the ambitious goals of the project, a specific work package includes the design of a gantry for carbo...

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Autores principales: Pullia, M G, Donetti, M, Felcini, E, Frisella, G, Mereghetti, A, Mirandola, A, Pella, A, Savazzi, S, Dassa, L, Karppinen, M, Perini, D, Tommasini, D, Vretenar, M, Kurfürst, C, Pivi, M T F, Stock, M, De Matteis, E, Mariotto, S, Prioli, M, Rossi, L, Sabbatini, L, Vannozzi, A, Piacentini, L, Ratkus, A, Torims, T, Vilcans, J, Benedetto, E, Uberti, S
Lenguaje:eng
Publicado: 2022
Materias:
Acceso en línea:https://dx.doi.org/10.18429/JACoW-IPAC2022-THPOMS012
http://cds.cern.ch/record/2845825
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author Pullia, M G
Donetti, M
Felcini, E
Frisella, G
Mereghetti, A
Mirandola, A
Pella, A
Savazzi, S
Dassa, L
Karppinen, M
Perini, D
Tommasini, D
Vretenar, M
Kurfürst, C
Pivi, M T F
Stock, M
De Matteis, E
Mariotto, S
Prioli, M
Rossi, L
Sabbatini, L
Vannozzi, A
Piacentini, L
Ratkus, A
Torims, T
Vilcans, J
Benedetto, E
Uberti, S
author_facet Pullia, M G
Donetti, M
Felcini, E
Frisella, G
Mereghetti, A
Mirandola, A
Pella, A
Savazzi, S
Dassa, L
Karppinen, M
Perini, D
Tommasini, D
Vretenar, M
Kurfürst, C
Pivi, M T F
Stock, M
De Matteis, E
Mariotto, S
Prioli, M
Rossi, L
Sabbatini, L
Vannozzi, A
Piacentini, L
Ratkus, A
Torims, T
Vilcans, J
Benedetto, E
Uberti, S
author_sort Pullia, M G
collection CERN
description The Heavy Ion Therapy Research Integration plus (HITRIplus) is a European project that aims to integrate and propel research and technologies related to cancer treatment with heavy ions beams. Among the ambitious goals of the project, a specific work package includes the design of a gantry for carbon ions, based on superconducting magnets. The first milestone to achieve is the choice of the fundamental gantry parameters, namely the beam optics layout, the superconducting magnet technology, and the main user requirements. Starting from a reference 3T design, the collaboration widely explored dozens of possible gantry configurations at 4T, aiming to find the best compromise in terms of footprint, capital cost, and required R&D.; We present here a summary of these configurations, underlying the initial correlation between the beam optics, the mechanics, and the main superconducting dipoles design: the bending field (up to 4 T), combined function features (integrated quadrupole), magnet aperture (up to 90 mm), and angular length (30°-45°). The resulting main parameters are then listed, compared, and used to drive the choice of the best gantry layout to be developed in HITRIplus.
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institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2022
record_format invenio
spelling cern-28458252023-01-11T21:31:23Zdoi:10.18429/JACoW-IPAC2022-THPOMS012http://cds.cern.ch/record/2845825engPullia, M GDonetti, MFelcini, EFrisella, GMereghetti, AMirandola, APella, ASavazzi, SDassa, LKarppinen, MPerini, DTommasini, DVretenar, MKurfürst, CPivi, M T FStock, MDe Matteis, EMariotto, SPrioli, MRossi, LSabbatini, LVannozzi, APiacentini, LRatkus, ATorims, TVilcans, JBenedetto, EUberti, SExplorative Studies of an Innovative Superconducting GantryAccelerators and Storage RingsThe Heavy Ion Therapy Research Integration plus (HITRIplus) is a European project that aims to integrate and propel research and technologies related to cancer treatment with heavy ions beams. Among the ambitious goals of the project, a specific work package includes the design of a gantry for carbon ions, based on superconducting magnets. The first milestone to achieve is the choice of the fundamental gantry parameters, namely the beam optics layout, the superconducting magnet technology, and the main user requirements. Starting from a reference 3T design, the collaboration widely explored dozens of possible gantry configurations at 4T, aiming to find the best compromise in terms of footprint, capital cost, and required R&D.; We present here a summary of these configurations, underlying the initial correlation between the beam optics, the mechanics, and the main superconducting dipoles design: the bending field (up to 4 T), combined function features (integrated quadrupole), magnet aperture (up to 90 mm), and angular length (30°-45°). The resulting main parameters are then listed, compared, and used to drive the choice of the best gantry layout to be developed in HITRIplus.oai:cds.cern.ch:28458252022
spellingShingle Accelerators and Storage Rings
Pullia, M G
Donetti, M
Felcini, E
Frisella, G
Mereghetti, A
Mirandola, A
Pella, A
Savazzi, S
Dassa, L
Karppinen, M
Perini, D
Tommasini, D
Vretenar, M
Kurfürst, C
Pivi, M T F
Stock, M
De Matteis, E
Mariotto, S
Prioli, M
Rossi, L
Sabbatini, L
Vannozzi, A
Piacentini, L
Ratkus, A
Torims, T
Vilcans, J
Benedetto, E
Uberti, S
Explorative Studies of an Innovative Superconducting Gantry
title Explorative Studies of an Innovative Superconducting Gantry
title_full Explorative Studies of an Innovative Superconducting Gantry
title_fullStr Explorative Studies of an Innovative Superconducting Gantry
title_full_unstemmed Explorative Studies of an Innovative Superconducting Gantry
title_short Explorative Studies of an Innovative Superconducting Gantry
title_sort explorative studies of an innovative superconducting gantry
topic Accelerators and Storage Rings
url https://dx.doi.org/10.18429/JACoW-IPAC2022-THPOMS012
http://cds.cern.ch/record/2845825
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