Journal of Geophysical Research Atmospheres · 1979 · 33 citations · 24 references
Natural SciencesPhysicsElectromagneticsElectromagnetismPlasma PhysicsElectromagnetic WavesMagnetized PlasmaPlanetary MagnetospheresPlasma InstabilitiesPlasma WavesSpace PlasmasAnisotropyElectromagnetic Plasma WavesElectrostatic Field StrengthMagnetized Plasma WavesPlasma Dispersion RelationsPlasma Wave PropagationWave Propagation In Magnetized PlasmasWhistler Waves
A dispersion relation for the whistler mode wave propagation in an anisotropic warm magnetoplasma in the presence of a weak parallel electrostatic field has been derived from linearized coupled Boltzmann‐Maxwell equations with collision frequency independent of particle velocity. An expression for the growth rate has been derived in the presence of an electric field and for small temperature anisotropy ( A <1) for the whistler mode wave. Under suitable approximation we recover the earlier known results. The modifications introduced in the growth rate by the electric field and temperature anisotropy have been discussed using observed plasma parameters at 6.6 R E . It is observed that growth (damping) of whistler mode waves is possible when the wave vector is parallel (antiparallel) to the static electric field. The effect of the electric field is more pronounced at low frequency (higher wave number) wave spectrum.
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Limit on stably trapped particle fluxes
C. F. Kennel, H. E. Petschek · Journal of Geophysical Research Atmospheres · 1966 · 2.9K citations · Full text
Electron and Ion Runaway in a Fully Ionized Gas. I
H. Dreicer · Physical Review · 1959 · 802 citations
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Collective Behavior in Solid-State Plasmas
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