Controlling a new plasma regime

Author:

Lennholm M.1ORCID,Aleiferis S.1,Bakes S.1,Bardsley O. P.1,van Berkel M.2,Casson F. J.1,Chaudry F.1,Conway N. J.1,Hender T. C.1,Henderson S. S.1,Kool B.2ORCID,Lafferty M.1,Meyer H. F.1ORCID,Mitchell J.1,Mitra A.1,Osawa R.1,Otin R.1,Parrot A.1,Thompson T.1,Xia G.1,the STEP Team

Affiliation:

1. United United Kingdom Atomic Energy Authority, Culham Campus , Abingdon, Oxon OX14 3DB, UK

2. DIFFER—Dutch Institute for Fundamental Energy Research, De Zaale 20 , Eindhoven 5612, Netherlands

Abstract

Success of the UK’s Spherical Tokamak for Energy Production (STEP) programme requires a robust plasma control system. This system has to guide the plasma from initiation to the burning phase, maintain it there, produce the desired fusion power for the desired duration and then terminate the plasma safely. This has to be done in a challenging environment with limited sensors and without overloading plasma-facing components. The plasma parameters and the operational regime in the STEP prototype will be very different from tokamaks, which are presently in operation. During fusion burn, the plasma regime in STEP will be self-organizing, adding further complications to the plasma control system design. This article describes the work to date on the design of individual controllers for plasma shape and position, magneto hydrodynamic instabilities, heat load and fusion power. Having studied ‘normal’ operation, the article discusses the philosophy of how the system will handle exceptions, when things do not go exactly as planned. This article is part of the theme issue ‘Delivering Fusion Energy – The Spherical Tokamak for Energy Production (STEP)’.

Publisher

The Royal Society

Reference57 articles.

1. STEP—on the pathway to fusion commercialization

2. Conceptual design workflow for the STEP Prototype Powerplant

3. Meyer H et al . 2023 The plasma scenarios for the spherical tokamak for energy production (STEP) and their technical implications. In Proceedings 29th IAEA Fusion Energy Conference, London, UK.

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5. Plasma burn—mind the gap

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