Plasma Physics: Collisions and Resistivity

Related lectures (32)

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Covers the derivation of the one-fluid model for Magneto-hydro dynamics (MHD) by introducing one-fluid variables.

Explores the forced harmonic oscillator, damping, and resonance phenomenon, focusing on the amplitude of oscillations in resonance.

Explores the kinetic model of gases, Maxwell's law, diffusion, effusion, Graham's law, and gas pressure.

Surveys plasmas in industry and medicine, emphasizing industrial applications and plasma medicine uses.

Explores collisions in line, emphasizing momentum and kinetic energy conservation, and the coefficient of restitution.

Explores the study of collisions, emphasizing conservation laws and their broad applications beyond mechanics.

Explores the action-reaction law, collisions, and conservation of momentum through various experiments and mathematical models.

Explores the limitations of ohmic heating in plasma and the advantages and drawbacks of neutral beam injection for additional plasma heating.

Covers exercises on plasma waves, collisions, and Faraday rotation phenomenon.

Covers diffusive transport in tokamak plasmas, including classical and neo-classical diffusion, ambipolar diffusion, and turbulent transport.