Turbulent Transport in Magnetized Plasmas

Content: Foreword
 Contents
 1. Basic Concepts and Historical Background
 1.1 Space and Astrophysics
 1.2 World War II, Teller 1952
 1.3 Controlled Nuclear Fusion
 1.4 Magnetic Confinement Conditions for Nuclear Fusion
 1.5 Nature of Plasma Turbulence
 1.6 Breakthrough with Tokamak Confinement
 1.7 Confinement Records Set in Early Tokamaks
 1.7.1 First generation tokamaks: Ormak, PLT, Alcator, ATC and TFR
 1.7.2 TFTR and the D-T fusion plasmas
 1.7.3 Third-generation tokamaks with international growth
 1.8 JET Record Fusion Power Experiments
 References
 2. Alfven and Drift Waves in Plasmas. 2.1 Low-Frequency Wave Dispersion Relations2.2 Reduction of the Kinetic Dispersion Relation
 2.3 Drift Waves
 2.4 Kinetic Alfven Waves
 2.5 Coupling of the Drift Wave, Ion-Acoustic and Shear Alfven Waves
 2.5.1 Electrostatic drift waves
 2.6 Drift Wave Eigenmodes in a Sheared Magnetic Field
 2.7 Symmetries of the Drift Wave Eigenmodes
 2.8 Outgoing Wave Boundary Conditions
 2.8.1 Localized ion drift modes
 2.9 Ion Acoustic Wave Turbulence
 2.9.1 Electromagnetic scattering measurements of ion acoustic waves
 2.9.2 Laser scattering experiment in Helium plasma. 2.9.3 Probe measurements of the two-point correlation functions2.9.4 Probe measurements of the spectrum and anomalous resistivity
 2.9.5 Drift wave spectral distributions
 2.9.6 Microwave scattering experiments in PLT
 2.10 Drift Waves and Transport in the TEXT Tokamak
 2.11 Drift Waves in Stellarators
 References
 3. Mechanisms for Drift Waves
 3.1 Drift Wave Turbulence
 3.2 Drift Wave Mechanism
 3.3 Energy Bounds for Turbulence Amplitudes
 3.3.1 Density gradients
 3.3.2 Temperature gradients
 3.3.3 Drift wave eigenmodes in toroidal geometry. 3.3.4 The effect of magnetic and Er shear on drift waves3.4 Weak Turbulence Theory for Drift Waves
 3.5 Ion Temperature Gradient Mode
 3.6 Drift Waves Paradigms: Hasegawa-Mima and Hasegawa-Wakatani Models
 References
 4. Two-Component Magnetohydrodynamics
 4.1 Collisional Transport Equations
 4.2 Current, Density and Temperature Gradient Driven Drift Modes
 4.2.1 Ion acoustic waves and the thermal mode
 4.2.2 Ion temperature gradient instability
 4.3 Closure Models for Coupled Chain of Fluid Moments
 4.3.1 Closure models for the chain of the fluid moments. 4.3.1.1 Examples of heat flux problem in fluid closures4.4 Pressure Gradient Driven Instabilities
 4.4.1 Scale invariance properties arising from an Ohm's law with electron inertia
 4.4.2 Scaling of correlation length and time
 4.4.3 Magnetic fiutter thermal transport
 4.4.4 Electron inertia Ohm's law
 4.5 Momentum Stress Tensor Stability Analysis
 4.6 Kinetic Ballooning Mode Instability
 References
 5. Laboratory Experiments for Drift Waves
 5.1 Basic Laboratory Experiments for Drift Waves with Uniform Temperature Profiles
 5.2 Discovery of Drift Waves in Early Q-Machine Experiments.