The Divertor Tokamak Test (DTT) facility will be equipped with in-vessel divertor coils able to locally modify the flux surfaces in the divertor region. When the first DTT divertor had not been selected, four in-vessel divertor coils were considered, with 10 turns each, fed by independent 4-quadrant SCR (thyristor) 0.5 kV – 5 kA – power supplies. This configuration was able to meet the design criteria in terms of requested performance and operational constraints, but one of the coils is not compatible with the geometry of the first DTT divertor, and another coil, scarcely efficient, can be removed. This paper discusses the design criteria, illustrates the possible revised layout, and illustrates the performance that can be achieved.
Conceptual design of in-vessel divertor coils in DTT
Acampora E.; Albanese R.; Ambrosino R.; Castaldo A.; Innocente P.; Loschiavo V.P.
Journal:
Fusion engineering and design (Print) 193 pp. 113651-1 - 113651-4
Year:
2023
ISTP Authors: Paolo Innocente
Keywords: divertor, DTT tokamak, Plasma magnetic control, In-vessel coils
Research Activitie: JOURNAL ARTICLES
Related products
-
Review of scientific instruments 92 (4), pp. 043556-1 - 043556-6 Year: 2021 DOI: 10.1063/5.0043669
Design of JT-60SA core Thomson scattering diagnostic system
Tojo H.; Pasqualotto R.; Fassina A.; Giudicotti L.; Sasao H.; Homma H.; Oyama N.
-
Applied geochemistry 128 pp. 104929-1 - 104929-55 Year: 2021 DOI: 10.1016/j.apgeochem.2021.104929
Laser-Induced Breakdown Spectroscopy – A geochemical tool for the 21st century
Harmon R.S.; Senesi G.S.
-
The astrophysical journal. Letters (Online) 922 (1), pp. L18-1 - L18-5 Year: 2021 DOI: 10.3847/2041-8213/ac36cf
Turbulent Magnetogenesis in a Collisionless Plasma
Pucci F.; Viviani M.; Valentini F.; Lapenta G.; Matthaeus W.H.; Servidio S.
English
Italiano