Design and Characterization of the Interlayer Joint Between Low-Field Nb3Sn Conductors of a Layer Wound DEMO TF Coil

In the frame of the conceptual design studies for the Toroidal Field (TF) coils of DEMO, a solution based on a layer-wound magnet, rectangular-shaped Cable-in-Conduit conductors and W&R manufacturing approach, is being developed. The feasibility and performance of a large-size Nb 3 Sn conductor...

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Veröffentlicht in:IEEE transactions on applied superconductivity 2021-08, Vol.31 (5), p.1-7
Hauptverfasser: Muzzi, Luigi, Affinito, Luigi, Chiarelli, Sandro, Corato, Valentina, della Corte, Antonio, De Marzi, Gianluca, Di Zenobio, Aldo, Zignani, Chiarasole Fiamozzi, Freda, Rosa, Turtu, Simonetta, Anemona, Alessandro, Formichetti, Andrea, Righetti, Riccardo, Arabi, Mohammed, Bragagni, Albano, Seri, Massimo, Roveta, Guido, Roveta, Marco, Galignano, Stefano, Merli, Lucio, Molino, G., Bruzzone, Pierluigi, Kumar, Mithlesh, Sedlak, Kamil, Stepanov, Boris
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container_title IEEE transactions on applied superconductivity
container_volume 31
creator Muzzi, Luigi
Affinito, Luigi
Chiarelli, Sandro
Corato, Valentina
della Corte, Antonio
De Marzi, Gianluca
Di Zenobio, Aldo
Zignani, Chiarasole Fiamozzi
Freda, Rosa
Turtu, Simonetta
Anemona, Alessandro
Formichetti, Andrea
Righetti, Riccardo
Arabi, Mohammed
Bragagni, Albano
Seri, Massimo
Roveta, Guido
Roveta, Marco
Galignano, Stefano
Merli, Lucio
Molino, G.
Bruzzone, Pierluigi
Kumar, Mithlesh
Sedlak, Kamil
Stepanov, Boris
description In the frame of the conceptual design studies for the Toroidal Field (TF) coils of DEMO, a solution based on a layer-wound magnet, rectangular-shaped Cable-in-Conduit conductors and W&R manufacturing approach, is being developed. The feasibility and performance of a large-size Nb 3 Sn conductor operating at about 82 kA in a 13 T field has been proven in the past. Another key technology to be demonstrated for a layer-wound TF coil, is that of a joint between two different conductor grades, to be possibly manufactured in-line during winding. The proposed joint solution would provide the minimum room occupancy, with the joint embedded within the winding pack volume. A joint between two low-field conductor grades, i.e., constituted of a small number of superconducting strands and a high number of stabilization copper wires, has been designed and manufactured. The two conductor lengths are characterized by a different number of superconducting wires and different outer dimensions. A joint sample has been assembled and instrumented, in the configuration allowing testing at the SULTAN facility of the Swiss Plasma Center. Both DC and AC performance of the joint has been characterized at the DEMO TF operating conditions. The present paper reports the main manufacturing steps for the joint and its main test results. The implications on the performance and design approach of the TF coil are also discussed, based on the outcome of such tests.
doi_str_mv 10.1109/TASC.2021.3062785
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subjects AC loss
Cable-in-Conduit-Conductor
Coils (windings)
Conductors
Copper wire
DEMO
Fusion Magnets
Interlayers
Joint Resistance
Niobium-tin
Occupancy
Steel
Superconducting magnet
Superconducting magnets
Superconductivity
Winding
Wires
title Design and Characterization of the Interlayer Joint Between Low-Field Nb3Sn Conductors of a Layer Wound DEMO TF Coil
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