2021
DOI: 10.48550/arxiv.2104.02267
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Finite-amplitude RF heating rates for magnetized electrons in neutral plasma

John M Guthrie,
Jacob L Roberts
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“…A prominent laboratory example is non-neutral plasmas 32 , such as the plasmas in antimatter traps 33 , which can reach very strongly magnetized conditions. A host of other experiments may reach strongly magnetized conditions in the near future, including ultracold neutral plasmas [34][35][36][37] , dusty plasmas [38][39][40] , plasmas in highly compressed magnetized inertial confinement fusion experiments 41,42 , and in intense laser-matter interaction experiments 43 . Regimes in which electrons reach a marginal level of strong magnetization (β e ∼ 1) are more common, including electrons in tokamak experiments 44 .…”
Section: Introductionmentioning
confidence: 99%
“…A prominent laboratory example is non-neutral plasmas 32 , such as the plasmas in antimatter traps 33 , which can reach very strongly magnetized conditions. A host of other experiments may reach strongly magnetized conditions in the near future, including ultracold neutral plasmas [34][35][36][37] , dusty plasmas [38][39][40] , plasmas in highly compressed magnetized inertial confinement fusion experiments 41,42 , and in intense laser-matter interaction experiments 43 . Regimes in which electrons reach a marginal level of strong magnetization (β e ∼ 1) are more common, including electrons in tokamak experiments 44 .…”
Section: Introductionmentioning
confidence: 99%