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Your search keyword '"Muzzi, L."' showing total 15 results
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15 results on '"Muzzi, L."'

1. Advance in the conceptual design of the European DEMO magnet system

Author

Sedlak, K, primary, Anvar, V A, additional, Bagrets, N, additional, Biancolini, M E, additional, Bonifetto, R, additional, Bonne, F, additional, Boso, D, additional, Brighenti, A, additional, Bruzzone, P, additional, Celentano, G, additional, Chiappa, A, additional, D’Auria, V, additional, Dan, M, additional, Decool, P, additional, della Corte, A, additional, Dembkowska, A, additional, Dicuonzo, O, additional, Duran, I, additional, Eisterer, M, additional, Ferro, A, additional, Fiamozzi Zignani, C, additional, Fietz, W H, additional, Frittitta, C, additional, Gaio, E, additional, Giannini, L, additional, Giorgetti, F, additional, Gömöry, F, additional, Granados, X, additional, Guarino, R, additional, Heller, R, additional, Hoa, C, additional, Ivashov, I, additional, Jiolat, G, additional, Jirsa, M, additional, Jose, B, additional, Kembleton, R, additional, Kumar, M, additional, Lacroix, B, additional, Le Coz, Q, additional, Lewandowska, M, additional, Maistrello, A, additional, Misiara, N, additional, Morici, L, additional, Muzzi, L, additional, Nicollet, S, additional, Nijhuis, A, additional, Nunio, F, additional, Portafaix, C, additional, Romanelli, G, additional, Sarasola, X, additional, Savoldi, L, additional, Stepanov, B, additional, Tiseanu, I, additional, Tomassetti, G, additional, Torre, A, additional, Turtù, S, additional, Uglietti, D, additional, Vallcorba, R, additional, Viererbl, L, additional, Vojenciak, M, additional, Vorpahl, C, additional, Weiss, K-P, additional, Wesche, R, additional, Wolf, M J, additional, Zani, L, additional, Zanino, R, additional, Zappatore, A, additional, and Corato, V, additional

Published
2020
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5. Detailed design of the large-bore 8 T superconducting magnet for the NAFASSY test facility

Author

Corato, V, primary, Affinito, L, additional, Anemona, A, additional, Vetrella, U Besi, additional, Zenobio, A Di, additional, Zignani, C Fiamozzi, additional, Freda, R, additional, Messina, G, additional, Muzzi, L, additional, Perrella, M, additional, Reccia, L, additional, Tomassetti, G, additional, Turtù, S, additional, and Corte, A della, additional

Published
2015
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14. Magnetization loss for stacks of ReBCO tapes

Author

G. De Marzi, Pierluigi Bruzzone, N. Bykovsky, Davide Uglietti, Luigi Muzzi, Muzzi, L., and Marzi, G. D.

Subjects
AC losses, Work (thermodynamics), Materials science, High-temperature superconductivity, Field (physics), Magnetometer, tack of HTS tape, magnetization, AC losse, 01 natural sciences, law.invention, Magnetization, Nuclear magnetic resonance, law, Condensed Matter::Superconductivity, 0103 physical sciences, Materials Chemistry, coated conductors, stack of HTS tapes, VSM, numerical model, Electrical and Electronic Engineering, 010306 general physics, 010302 applied physics, coated conductor, Condensed matter physics, Metals and Alloys, Plasma, Condensed Matter Physics, Conductor, Magnetic field, Ceramics and Composites
Abstract

The AC loss measurements of the high temperature superconductor (HTS) cable prototype in the EDIPO test facility motivated detailed investigations of the loss contributions from the tape, strand and cable stages of the HTS fusion conductor design proposed at the Swiss Plasma Center. As an initial step of the task, magnetization tests of soldered stacks of HTS tapes were carried out at temperatures of 5 and 77 K and magnetic fields up to 12 T using the vibrating sample magnetometer technique. The influence on the magnetization loss of the number of tapes, width of the tape, field's orientation and tape's manufacturer is studied experimentally performing both the major and minor magnetization loops with different ramp rates of the applied magnetic field. In order to validate the test results, a numerical model is developed and presented in this work. From the numerical model we also deduced an analytical approach for the magnetization loss in the stacks of tapes with arbitrary number of tapes in the critical state model. Comparison between the measured and estimated magnetization loss of the cable prototypes is reported as well.

Published
2016
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15. Detailed design of the large-bore 8 T superconducting magnet for the NAFASSY test facility

Author

Giuseppe Messina, A. della Corte, Luigi Muzzi, L. Reccia, A. Anemona, V. Corato, M. Perrella, R. Freda, C. Fiamozzi Zignani, Giuseppe Tomassetti, Simonetta Turtu, L. Affinito, A. Di Zenobio, U. Besi Vetrella, Corte, A. D., Turtù, S., Tomassetti, G., Reccia, L., Muzzi, L., Messina, G., Freda, R., Zignani, C. F., Zenobio, A. D., Vetrella, U. B., Affinito, L., Corato, V., Anemona, A., Vetrella, U Besi, Zenobio, A Di, Zignani, C Fiamozzi, Perrella, M., and Corte, A Della

Subjects
Materials Chemistry2506 Metals and Alloys, large bore test facility, Mechanical engineering, Ceramics and Composite, Solenoid, Condensed Matter Physic, Superconducting magnet, Nb3Sn cable in conduit conductor, superconducting magnet, Ceramics and Composites, Condensed Matter Physics, 2506, Electrical and Electronic Engineering, law.invention, law, Electrical equipment, Materials Chemistry, Electrical conductor, Materials Chemistry2506 Metals and Alloy, Physics, Electromagnet, Metals and Alloys, Conductor, Electromagnetic coil, Magnet
Abstract

The 'NAFASSY' (NAtional FAcility for Superconducting SYstems) facility is designed to test wound conductor samples under high-field conditions at variable temperatures. Due to its unique features, it is reasonable to assume that in the near future NAFASSY will have a preeminent role at the international level in the qualification of long coiled cables in operative conditions. The magnetic system consists of a large warm bore background solenoid, made up of three series-connected grading sections obtained by winding three different Nb3Sn Cable-in-Conduit Conductors. Thanks to the financial support of the Italian Ministry for University and Research the low-field coil is currently under production. The design has been properly modified to allow the system to operate also as a stand-alone facility, with an inner bore diameter of 1144 mm. This magnet is able to provide about 7 T on its axis and about 8 T close to the insert inner radius, giving the possibility of performing a test relevant for large-sized NbTi or medium-field Nb3Sn conductors. The detailed design of the 8 T magnet, including the electro-magnetic, structural and thermo-hydraulic analysis, is here reported, as well as the production status. © 2015 IOP Publishing Ltd.

Published
2015
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