Physics design requirements for the Tokamak Physics Experiment (TPX)
G.H. Neilson, R.J. Goldston, S.C. Jardin, W. M. Nevins, M. Porkoláb, W. Reiersen, M. Ulrickson
Abstract
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G.H. Neilson, R.J. Goldston, S.C. Jardin, W. M. Nevins, M. Porkoláb, W. Reiersen, M. Ulrickson
Abstract
Open-access reader
The design of TPX is driven by physics requirements that follow from its mission. The tokamak and heating systems provide the performance and profile controls needed to study advanced steady state tokamak operating modes. The magnetic control systems provide substantial flexibility for the study of regimes with high beta and bootstrap current. The divertor is designed for high steady state power and particle exhaust.
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The design of TPX is driven by physics requirements that follow from its mission. The tokamak and heating systems provide the performance and profile controls needed to study advanced steady state tokamak operating modes. The magnetic control systems provide substantial flexibility for the study of regimes with high beta and bootstrap current. The divertor is designed for high steady state power and particle exhaust.
Key concepts: Tokamak, Divertor, Nuclear engineering, Physics, Flexibility (engineering), Steady state (chemistry), Bootstrap current, BETA (programming language)