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Engineering Magnetohydrodynamics

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ISBN-10: 0486450325

ISBN-13: 9780486450322

Edition: 2006

Authors: George W. Sutton, Arthur Sherman

List price: $29.95
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The first section of this three-part treatment deals mainly with properties of ionized gases in magnetic and electric fields, essentially following the microscopic viewpoint. Part II addresses macroscopic motion of electrically conducting compressible fluids. Part III draws upon the material developed in previous sections to explore applications of magnetohydrodynamics. 1965 edition.
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Book details

List price: $29.95
Copyright year: 2006
Publisher: Dover Publications, Incorporated
Publication date: 7/7/2006
Binding: Paperback
Pages: 576
Size: 7.52" wide x 7.76" long x 1.14" tall
Weight: 1.298
Language: English

Preface
Symbols
Basic Principles
Introduction
Definitions
Characteristic Numbers
Magnetohydrodynamic Regimes
The Electromagnetic Field
Introduction-Units
Electrostatics
Magnetostatics
The Electromagnetic Field
Electromagnetic Forces and Energy
Electromagnetic Waves
Transformation to Moving Coordinates-Special Relativity
Motion of Charged Particles
Introduction
Motion in a Uniform Magnetic Field
Motion in Uniform Electric and Magnetic Fields
Motion in Uniform Magnetic Field-Time-varying Electric Field
Motion in an Inhomogeneous Magnetic Field
Magnetic Moment
Adiabatic Invariants
Specific Heats
Motion in the Direction of the Magnetic Field-"Magnetic Mirror"
Hamiltonian Formulation
Electric Currents in an Ionized Gas
Magnetic Field Pressure
Statistical Behavior of Plasmas
Introduction
Distribution Functions
Averages
Fluxes
Isotropic Equilibrium Distribution Function
Properties of the Isotropic Distribution Function
Knudsen Diffusion
Collision Frequency
Mean Free Path
Boltzmann's Equation
Filling of a Vacuum by a Collisionless Neutral Gas
Equilibrium Distribution Function in an Electric Field
Debye Shielding Length
Plasma Probes
Child's Law
Distribution Function in a Magnetic Field
Classical Pinch
Conservation Equations
Conduction and Diffusion in Ionized Gases
Introduction
Collision Term in Boltzmann's Equation
Lorentz Approximation in a Uniform Gas
Collision Cross Sections
Electron Temperature-Lorentz Approximation
Electrical Conductivity-Lorentz Approximation
Thermal Conduction and Diffusion-Lorentz Approximation
Electrical Conduction and Diffusion in Partially Ionized Gases
Large Electron Velocities and Runaway Electrons
Species-conservation Equations
Ambipolar Diffusion
Fokker-Planck Equation
Quantum Statistics and Ionization Equilibrium
Introduction
Quantum Mechanics
Statistics
Partition Function
Relation to Thermodynamics
Properties of the Partition Function
Chemical and Ionization Equilibrium
Effect of Debye Shielding on Ionization
Nonequilibrium Ionization
Thermionic Emission
Electromagnetic Waves and Radiation in Plasmas
Introduction
Radiation from Hot Plasmas
Forced Plasma Oscillations
Free Longitudinal Plasma Oscillations
Propagation of Transverse Waves
Damping in Collision-free Plasmas
Magnetohydrodynamic Flows
Magnetohydrodynamic Equations
Introduction
Continuum Model and Flow Equations
The Magnetohydrodynamic Approximation
Simplified Equations
Similarity Parameters
Alfven and Shock Waves
Introduction
Magnetohydrodynamic Waves
The Magnetohydrodynamic Discontinuity
General Shock Relations
Rankine-Hugoniot Equation
Entropy Jumps
Friedrichs's Shock Equations
Fast and Slow Shocks
Shocks with B[subscript x] = 0
Alfven Shocks
Friedrichs's Diagram
Other Discontinuities
Shocks in Perfect Gases
Summary
Exact Solutions for Magnetohydrodynamic Channel Flows
Introduction
Hartmann Flow
Couette Flow
Transient Couette Flow
The Hall Effect-Tensor Conductivity
The Modified Hartmann Flow
Secondary Flows
Inviscid Two-dimensional Channel Flows
Channel Flows-Quasi-One-Dimensional Approximation
Introduction
The Quasi-one-dimensional Approximation
Flow Equations
General Nature of Perfect-gas Flows
Exact Solutions
The Isentropic Approximation
Numerical Solutions for Real-gas Flows
Boundary Layers
Introduction
The Rayleigh Problem
Formulation of Boundary-layer Equations
Incompressible Boundary Layers
Compressible Boundary Layers
Magnetic Boundary Layers
Applications
Magnetohydrodynamic Propulsion
Introduction
Crossed-field Accelerators
Hall Current Accelerator
Pulsed Accelerators Using Electrodes
Electrodeless Accelerators
Magnetohydrodynamic Power Generation
Introduction
MHD Generator Geometries
Local Inviscid Analyses of Linear MHD Generators
Seeding and Ionization in MHD Generators
Conversion Efficiency of MHD Generators
Electrical Losses in MHD Generators
Compressible Flow in Faradaycurrent MHD Generators
MHD Power Generation Systems
MHD Generator Experiments
Problems
Index