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9780521459129

The Physics of Plasmas

by
  • ISBN13:

    9780521459129

  • ISBN10:

    0521459125

  • Format: Paperback
  • Copyright: 2003-02-03
  • Publisher: Cambridge University Press

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Summary

The Physics of Plasmas provides a comprehensive introduction to the subject, illustrating the basic theory with examples drawn from fusion, space and astrophysical plasmas. Various aspects of plasma physics are discussed, beginning with particle orbit theory, and including fluid equations, a variety of magnetohydrodynamic (MHD) models, wave equations and kinetic theory. The relationships between these distinct approaches are discussed. In this way, the reader gains a firm grounding in the fundamentals, leading to an understanding of some of the more specialized topics. Throughout the text, there is an emphasis on the physical interpretation of plasma phenomena; Exercises are included.

Table of Contents

Preface xi
Introduction
1(11)
Introduction
1(1)
Thermonuclear fusion
2(4)
The Lawson criterion
3(1)
Plasma containment
4(2)
Plasmas in space
6(1)
Plasma characteristics
7(5)
Collisions and the plasma parameter
10(2)
Particle orbit theory
12(36)
Introduction
12(2)
Constant homogeneous magnetic field
14(2)
Magnetic moment and plasma diamagnetism
16(1)
Constant homogeneous electric and magnetic fields
16(3)
Constant non-electromagnetic forces
18(1)
Inhomogeneous magnetic field
19(3)
Gradient drift
19(2)
Curvature drift
21(1)
Particle drifts and plasma currents
22(2)
Time-varying magnetic field and adiabatic invariance
24(2)
Invariance of the magnetic moment in an inhomogeneous field
25(1)
Magnetic mirrors
26(2)
The longitudinal adiabatic invariant
28(3)
Mirror traps
30(1)
Magnetic flux as an adiabatic invariant
31(2)
Particle orbits in tokamaks
33(2)
Adiabatic invariance and particle acceleration
35(2)
Polarization drift
37(1)
Particle motion at relativistic energies
38(2)
Motion in a monochromatic plane-polarized electromagnetic wave
38(2)
The ponderomotive force
40(1)
The guiding centre approximation: a postscript
41(7)
Exercises
43(5)
Macroscopic equations
48(29)
Introduction
48(1)
Fluid description of a plasma
49(9)
The MHD equations
58(3)
Resistive MHD
59(1)
Ideal MHD
60(1)
Applicability of the MHD equations
61(10)
Anisotropic plasmas
67(2)
Collisionless MHD
69(2)
Plasma wave equations
71(3)
Generalized Ohm's law
73(1)
Boundary conditions
74(3)
Exercises
76(1)
Ideal magnetohydrodynamics
77(63)
Introduction
77(1)
Conservation relations
78(4)
Static equilibria
82(23)
Cylindrical configurations
85(4)
Toroidal configurations
89(11)
Numerical solution of the Grad--Shafranov equation
100(2)
Force-free fields and magnetic helicity
102(3)
Solar MHD equilibria
105(3)
Magnetic buoyancy
106(2)
Stability of ideal MHD equilibria
108(11)
Stability of a cylindrical plasma column
111(8)
The energy principle
119(5)
Finite element analysis of ideal MHD stability
123(1)
Interchange instabilities
124(6)
Rayleigh--Taylor instability
124(4)
Pressure-driven instabilities
128(2)
Ideal MHD waves
130(10)
Exercises
133(7)
Resistive magnetohydrodynamics
140(57)
Introduction
140(2)
Magnetic relaxation and reconnection
142(6)
Driven reconnection
145(3)
Resistive instabilities
148(14)
Tearing instability
151(4)
Driven resistive instabilities
155(2)
Tokamak instabilities
157(5)
Magnetic field generation
162(7)
The kinematic dynamo
163(6)
The solar wind
169(10)
Interaction with the geomagnetic field
177(2)
MHD shocks
179(18)
Shock equations
182(4)
Parallel shocks
186(2)
Perpendicular shocks
188(1)
Oblique shocks
189(1)
Shock thickness
190(3)
Exercises
193(4)
Waves in unbounded homogeneous plasmas
197(55)
Introduction
197(1)
Some basic wave concepts
198(4)
Energy flux
200(1)
Dispersive media
200(2)
Waves in cold plasmas
202(25)
Field-free plasma (B0 = 0)
209(1)
Parallel propagation (k || B0)
210(4)
Perpendicular propagation (k T B0)
214(3)
Wave normal surfaces
217(5)
Dispersion relations for oblique propagation
222(5)
Waves in warm plasmas
227(11)
Longitudinal waves
228(2)
General dispersion relation
230(8)
Instabilities in beam--plasma systems
238(6)
Two-stream instability
240(1)
Beam--plasma instability
241(3)
Absolute and convective instabilities
244(8)
Absolute and convective instabilities in systems with weakly coupled modes
245(3)
Exercises
248(4)
Collisionless kinetic theory
252(44)
Introduction
252(2)
Vlasov equation
254(2)
Landau damping
256(12)
Experimental verification of Landau damping
263(2)
Landau damping of ion acoustic waves
265(3)
Micro-instabilities
268(8)
Kinetic beam--plasma and bump-on-tail instabilities
273(1)
Ion acoustic instability in a current-carrying plasma
274(2)
Amplifying waves
276(1)
The Bernstein modes
277(6)
Inhomogeneous plasma
283(4)
Test particle in a Vlasov plasma
287(9)
Fluctuations in thermal equilibrium
288(1)
Exercises
289(7)
Collisional kinetic theory
296(28)
Introduction
296(1)
Simple transport coefficients
297(7)
Ambipolar diffusion
300(1)
Diffusion in a magnetic field
301(3)
Neoclassical transport
304(3)
Fokker--Planck equation
307(6)
Collisional parameters
313(4)
Collisional relaxation
317(7)
Exercises
321(3)
Plasma radiation
324(52)
Introduction
324(1)
Electrodynamics of radiation fields
325(5)
Power radiated by an accelerated charge
326(2)
Frequency spectrum of radiation from an accelerated charge
328(2)
Radiation transport in a plasma
330(4)
Plasma bremsstrahlung
334(10)
Plasma bremsstrahlung spectrum: classical picture
336(2)
Plasma bremsstrahlung spectrum: quantum mechanical picture
338(1)
Recombination radiation
339(2)
Inverse bremsstrahlung: free--free absorption
341(1)
Plasma corrections to bremsstrahlung
342(1)
Bremsstrahlung as plasma diagnostic
343(1)
Electron cyclotron radiation
344(4)
Plasma cyclotron emissivity
346(1)
ECE as tokamak diagnostic
347(1)
Synchrotron radiation
348(7)
Synchrotron radiation from hot plasmas
348(3)
Synchrotron emission by ultra-relativistic electrons
351(4)
Scattering of radiation by plasmas
355(6)
Incoherent Thomson scattering
355(3)
Electron temperature measurements from Thomson scattering
358(2)
Effect of a magnetic field on the spectrum of scattered light
360(1)
Coherent Thomson scattering
361(4)
Dressed test particle approach to collective scattering
361(4)
Coherent Thomson scattering: experimental verification
365(11)
Deviations from the Salpeter form factor for the ion feature: impurity ions
366(3)
Deviations from the Salpeter form factor for the ion feature: collisions
369(1)
Exercises
370(6)
Non-linear plasma physics
376(49)
Introduction
376(1)
Non-linear Landau theory
377(12)
Quasi-linear theory
377(5)
Particle trapping
382(2)
Particle trapping in the beam--plasma instability
384(4)
Plasma echoes
388(1)
Wave--wave interactions
389(8)
Parametric instabilities
392(5)
Zakharov equations
397(8)
Modulational instability
402(3)
Collisionless shocks
405(20)
Shock classification
408(3)
Perpendicular, laminar shocks
411(10)
Particle acceleration at shocks
421(2)
Exercises
423(2)
Aspects of inhomogeneous plasmas
425(39)
Introduction
425(1)
WKBJ model of inhomogeneous plasma
426(7)
Behaviour near a cut-off
429(3)
Plasma reflectometry
432(1)
Behaviour near a resonance
433(2)
Linear mode conversion
435(6)
Radiofrequency heating of tokamak plasma
439(2)
Stimulated Raman scattering
441(9)
SRS in homogeneous plasmas
441(1)
SRS in inhomogeneous plasmas
442(5)
Numerical solution of the SRS equations
447(3)
Radiation from Langmuir waves
450(3)
Effects in bounded plasmas
453(11)
Plasma sheaths
453(3)
Langmuir probe characteristics
456(2)
Exercises
458(6)
The classical theory of plasmas
464(43)
Introduction
464(1)
Dynamics of a many-body system
465(7)
Cluster expansion
469(3)
Equilibrium pair correlation function
472(4)
The Landau equation
476(4)
Moment equations
480(7)
One-fluid variables
485(2)
Classical transport theory
487(14)
Closure of the moment equations
488(3)
Derivation of the transport equations
491(4)
Classical transport coefficients
495(6)
MHD equations
501(6)
Resistive MHD
503(2)
Exercises
505(2)
Appendix 1 Numerical values of physical constants and plasma parameters 507(2)
Appendix 2 List of symbols 509(8)
References 517(6)
Index 523

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