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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
Fluid Description of Plasmas
Moment Equations
Derivation from Kinetic Theory
Hierarchy of Moment Equations
Closure Problem
Two-Fluid Model
Separate Ion and Electron Fluids
Continuity Equations
Ion Continuity
Electron Continuity
Momentum Equations
Ion Momentum Balance
Electron Momentum Balance
Pressure Forces
Electromagnetic Forces
Energy Equations
Internal Energy Evolution
Heat Conduction
Energy Exchange
Generalized Ohm's Law
Derivation from Electron Momentum
Hall Effect
Electron Pressure Gradient
Electron Inertia
Single-Fluid Magnetohydrodynamics
MHD Approximations
Charge Neutrality
Single Fluid Limit
Low Frequency Assumption
MHD Equations
Mass Conservation
Momentum Conservation
Energy Conservation
Magnetic Field Evolution
Ohm's Law in MHD
Perfect Conductivity Limit
Resistive Effects
Equation of State
Ideal MHD
Perfect Conductivity Assumption
Frozen-in Flux Theorem
Magnetic Field Line Motion
Conservation Laws
Mass Conservation
Momentum Conservation
Energy Conservation
Magnetic Flux Conservation
Resistive MHD
Finite Resistivity Effects
Magnetic Diffusion
Magnetic Reynolds Number
Magnetic Reconnection
Sweet-Parker Model
Petschek Model
Fast Reconnection Mechanisms
Extended MHD Models
Hall MHD
Two-Fluid Effects
Finite Larmor Radius Effects
Gyrofluid Models
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4. Kinetic Theory of Plasmas
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6. Plasma Waves and Oscillations