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Extended hybrid kinetic-magnetohydrodynamic model for ignited burning plasmas

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arxiv 1911.01741 v1 pith:B3CUN466 submitted 2019-11-05 physics.plasm-ph

Extended hybrid kinetic-magnetohydrodynamic model for ignited burning plasmas

classification physics.plasm-ph
keywords alphamodelburningplasmaschemehybridparticlescurrent-coupling
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A brief review of the existing kinetic-magnetohydrodynamic(MHD) hybrid models for the alpha particle physics in burning plasma demonstrates that the pressure-coupling scheme is equivalent to the current-coupling scheme only in a specific dynamic regime where the alpha particle density is much lower than the background ion and electron. A more comprehensive kinetic-multifluid model is proposed for a proper account of the dynamical regime of the burning plasma where both the energetic alpha and the helium ash particles are present. The Kinetic-multifluid model is further simplified into an extended hybrid kinetic-MHD model in the MHD limit. This reduction process demonstrates that the existing pressure-coupling scheme is more extensive than the current-coupling scheme and sufficient for the wide range of dynamical regimes. This analysis further shows a significant change in the model equations mainly the generalized Ohm's law due to the contributions of a significant amount of alpha particles in the system. These models can be used for studies of the impact of the alpha particles present in ignited burning plasma and space plasma.

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