DocumentCode :
1390179
Title :
1-D Electromagnetic and Thermal-Hydraulic Analysis of the Superconducting Proposal for the CS Magnets of FAST
Author :
Polli, G.M. ; Muzzi, L. ; Pompeo, N. ; della Corte, A. ; Di Zenobio, A. ; Turtu, S. ; Crisanti, F. ; Cucchiaro, A.
Author_Institution :
ENEA-Frascati Res. Centre, ENEA-EURATOM Assoc., Frascati, Italy
Volume :
22
Issue :
3
fYear :
2012
fDate :
6/1/2012 12:00:00 AM
Firstpage :
4902704
Lastpage :
4902704
Abstract :
FAST (Fusion Advanced Studies Torus), the Italian proposal of a Satellite Facility to ITER, has been the object of an intense re-design activity aimed at verifying the feasibility of a superconducting solution for its magnet system. One of the most difficult and critical obstacles is represented by the central solenoid (CS) magnet, due to the rapid variation of the current and magnetic field (up to 40 T/s) foreseen so far in the reference scenario. The associated losses induced in the CS magnets should be dissipated by the flow of helium that cools the conductors. Nonetheless, even the losses depend on the conductor design, therefore, not only the thermal-hydraulics of the Cable-in-Conduit Conductors (CICCs) but also the strand properties, should be considered to identify the best design capable to sustain the transient in the CS magnets, keeping the scenario originally foreseen for the resistive configuration of the machine unaltered. The present paper discusses the electromagnetic and thermal-hydraulic behavior of the CICC design envisaged for the FAST CS magnet in the H-mode scenario, and identifies the possible strategies to make a superconducting solution sustainable.
Keywords :
Tokamak devices; electromagnetism; superconducting magnets; 1D electromagnetic analysis; CS magnets; Fusion Advanced Studies Torus; cable-in-conduit conductors; central solenoid magnet; magnet system; magnetic field; strand properties; superconducting proposal; thermal-hydraulic analysis; Conductors; Heating; Helium; Load modeling; Superconducting magnets; Toroidal magnetic fields; AC losses; cryogenics; superconducting magnets; tokamak devices;
fLanguage :
English
Journal_Title :
Applied Superconductivity, IEEE Transactions on
Publisher :
ieee
ISSN :
1051-8223
Type :
jour
DOI :
10.1109/TASC.2011.2177793
Filename :
6095603
Link To Document :
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