Nuclear Fusion · 2015 · 64 citations · 7 references
EngineeringNuclear EngineeringPhysicsFusion EngineeringNuclear MaterialsPlasma PhysicsFusion PlasmasMagnetic Confinement FusionNuclear FusionPlasma ConfinementReactor DesignTokamak EngineeringFusion NeutronicsFusion Reactor EngineeringSteady-state Tokamak OperationTokamak DesignTokamak Physics
The history of fusion–fission hybrid systems based on a tokamak device as an extremely efficient DT-fusion neutron source has passed through several periods of ample research activity in the world since the very beginning of fusion research in the 1950s. Recently, a new roadmap of the hybrid program has been proposed with the goal to build a pilot hybrid plant (PHP) in Russia by 2030. Development of the DEMO-FNS tokamak for fusion and hybrid technologies, which is planned to be built by 2023, is the key milestone on the path to the PHP. This facility is in the phase of conceptual design aimed at providing feasibility studies for a full set of steady state tokamak technologies at a fusion energy gain factor Q ∼ 1, fusion power of ∼40 MW and opportunities for testing a wide range of hybrid technologies with the emphasis on continuous nuclide processing in molten salts. This paper describes the project motivations, its current status and the key issues of the design.
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Fusion Breeding for Mid-Century Sustainable Power
Wallace M. Manheimer · Journal of Fusion Energy · 2014 · 24 citations · Full text