Quasi-linear theory of plasma waves.
Plasma wave quasi-linear theory, noting nonlinear effect treatment via distribution function, electric field, Fourier component decay, etc
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Plasma wave quasi-linear theory, noting nonlinear effect treatment via distribution function, electric field, Fourier component decay, etc
Kinetic theory of surface wave in plasma wave guide
Plasma wave theory and experiments, emphasizing stable Maxwellian plasmas and transverse and longitudinal wave modes in zero and nonzero magnetic fields
Longitudinal plasma waves collision damping calculations using Rostoker test particle method
Plasma wave echo, observing oscillatory behavior of perturbed distribution with different phases and amplitudes
Transverse and longitudinal plasma wave instabilities for two counterstreaming neutral hydrogen plasmas without external fields
Very low frequency electric and magnetic wave measurements for Mariner Venus Mercury 1973 mission
Transformation of electric field at propagation of acoustic waves and their transition into plasma waves
Stable Maxwellian plasma wave modes, theoretical and experimental treatment
Supraluminous longitudinal plasma wave scattering by localized inhomogeneity in thermal plasma density, calculating far field electromagnetic radiation production
Interstellar plasma wave damping by relativistic suprathermal particles, noting magnetosonic and Alfven waves
A high-order physics-informed meshless finite difference numerical technique is introduced for solving the time-harmonic cold plasma wave equation in toroidal geometries, presenting a novel application of the generalized finite difference (GFD) method to plasma wave simulations. The algorithm employs an irregular distribution of computational points, with local point density informed by the shortest wavelength derived from the cold plasma dispersion relation. Numerical stability and robustness are addressed using regularization techniques. The algorithm, implemented for two spatial dimensions, solves for the wave electric field and is demonstrated to achieve convergence rates of $\mathcal{O}$($\mathcal{h}$ $\mathcal{P}$ ). Verification tests reproduce plane wave solutions, and example simulations of ion cyclotron resonance heating and electron cyclotron resonance heating demonstrate its capability, approaching realistic tokamak plasma scenarios. This work contributes to laying a foundation for the GFD method to be used in more sophisticated, optimized, and physically realistic full-wave simulations in time-harmonic plasma wave research.
Ionospheric E region irregularities produced by nonlinear coupling of unstable plasma waves
Optimum length for traveling magnetic wave plasma accelerator that maximizes kinetic efficiency
Propagation of electrostatic plasma waves in inhomogeneous electric fields
Oscillations observed from acoustical helium plasma wave in cylindrical hollow cathode attributed to radial shock wave initiated by energy pulse
Damping of interstellar plasma waves by cosmic radiation fluxes due to suprathermal particles - Magnetosonic and Alfven waves