Useful Links
Physics
Applied and Interdisciplinary Physics
Plasma Physics
1. Introduction to Plasma Physics
2. Mathematical Foundations
3. Single Particle Motion in Fields
4. Kinetic Theory of Plasmas
5. Fluid Description of Plasmas
6. Plasma Waves and Oscillations
7. Plasma Equilibrium
8. Plasma Instabilities
9. Transport Phenomena
10. Collisional Processes
11. Nonlinear Plasma Physics
12. Specialized Plasma Types
13. Plasma Boundaries and Sheaths
14. Plasma Applications
15. Plasma Diagnostics
Kinetic Theory of Plasmas
Phase Space and Distribution Functions
Six-Dimensional Phase Space
Single-Particle Distribution Function
Physical Interpretation
Normalization and Moments
Liouville's Theorem
Conservation of Phase Space Density
Application to Plasma Physics
The Vlasov Equation
Derivation from Liouville's Theorem
Collisionless Plasma Assumption
Self-Consistent Field Approach
Vlasov-Maxwell System
The Boltzmann Equation
Collision Integral
H-Theorem and Entropy
Relaxation Time Approximation
BGK Collision Model
Moments of the Distribution Function
Zeroth Moment: Particle Density
First Moment: Mean Velocity
Second Moment: Pressure Tensor
Third Moment: Heat Flux
Higher Order Moments
Equilibrium Distributions
Maxwell-Boltzmann Distribution
Derivation and Properties
Temperature and Thermal Velocity
Relativistic Maxwell-Jüttner Distribution
Degenerate Plasmas
Fermi-Dirac Distribution
Quantum Effects
Non-Equilibrium Distributions
Anisotropic Distributions
Bi-Maxwellian Distributions
Loss-Cone Distributions
Beam Distributions
Kappa Distributions
Kinetic Equations for Multiple Species
Multi-Species Vlasov Equations
Species Coupling
Charge and Current Densities
Previous
3. Single Particle Motion in Fields
Go to top
Next
5. Fluid Description of Plasmas