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E-raamat: Instabilities in a Confined Plasma

(Kurchatov Institute of Atomic Energy, Moscow, Russia)
  • Formaat: 462 pages
  • Sari: Series in Plasma Physics
  • Ilmumisaeg: 05-Oct-2017
  • Kirjastus: Institute of Physics Publishing
  • ISBN-13: 9781351438162
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  • Formaat: 462 pages
  • Sari: Series in Plasma Physics
  • Ilmumisaeg: 05-Oct-2017
  • Kirjastus: Institute of Physics Publishing
  • ISBN-13: 9781351438162
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Presents a unified approach to the theory of those electromagnetic instabilities which are inherent in plasmas within toroidal confinement systems such as tokamaks. Starts with treatment of the equilibrium theory of plasmas and the theory of internal magentohydrodynamic (MHD) modes in cylindrical plasmas, then goes on to deal with the effects of toroidicity and high plasma pressures, and relates these effects to a variety of ideal and resistive MHD modes. Also considers MHD modes in the presence of effects lying beyond MHD theory, such as plasma pressure anisotopy and trapped particles. Also covers systems other than tokamaks, such as stellerators. Annotation c. by Book News, Inc., Portland, Or.

Instabilities in a Confined Plasma is entirely devoted to a theoretical exposition of the subject of plasma instabilities in confined systems. The book is an important contribution to the study of plasma instabilities, not only in fusion devices such as the Tokamak but also in astrophysical phenomena. It covers toroidal confinement systems, internal MHD modes, small-scale MHD instabilities, MHD internal kink modes, MHD modes in collisionless and neoclassical regimes, drift-MHD modes, external kink modes, and Alfven eigenmodes.
Preface xiii
Introduction xv
PART 1 Equilibrium of a Plasma in Toroidal Confinement Systems 1(64)
General Results of Equilibrium Theory
3(15)
Starting equilibrium equations
5(1)
Equilibrium of a circular cylinder
5(3)
Curvilinear coordinates associated with the magnetic surfaces
8(4)
General description of an isotropic-plasma equilibrium
12(4)
General expressions for a magnetic well and shear
16(2)
Equilibrium of a Plasma in Axisymmetric Systems
18(21)
Starting equations for the metric tensor
20(1)
General equations of equilibrium in axisymmetric systems
21(1)
Large-aspect-ratio approximation for axisymmetric systems
22(2)
Equilibrium of a low- and a finite-pressure plasma in a circular tokamak
24(4)
Elliptic tokamak
28(3)
Tokamak of a circular or almost circular cross-section with a high βp
31(8)
Appendix: Effect of current gradient on ellipticity and triangularity of magnetic surfaces in tokamaks
37(2)
Equilibrium of a Plasma in Systems without Axial Symmetry
39(26)
Equilibrium in helical systems with circular cross-sections
41(5)
Helical systems with elliptic cross-sections
46(3)
Systems with an arbitrary form of the magnetic axis
49(2)
Systems with an axially inhomogeneous magnetic field
51(3)
Equilibrium in Drakon
54(2)
Stellarators with helical windings
56(9)
PART 2 Internal Magnetohydrodynamic Modes in the Cylindrical Approximation 65(44)
Description of Magnetohydrodynamic Perturbations in a Cylindrical Plasma
67(9)
Starting equations
68(1)
Ideal perturbations at the stability boundary
69(3)
Allowance for inertia
72(1)
Allowance for finite resistivity
73(3)
Ideal Magnetohydrodynamic Internal Modes in a Cylindrical Plasma
76(20)
The Suydam modes
79(6)
General dispersion relation for a plasma with parabolic profiles of the pressure and the longitudinal current
85(2)
Non-local modes with m > 1
87(3)
The m = 1 ideal internal kink mode
90(3)
Appendix: Ideal asymptotics of precise solutions for kink modes
93(3)
Resistive Magnetohydrodynamic Modes in a Cylindrical Plasma
96(13)
Solving the magnetohydrodynamic equations in the inertial-resistive layer
97(3)
Modes with m >> 1
100(1)
General dispersion relation for resistive kink modes
101(1)
Modes with finite m > 1
102(4)
Modes with m = 1
106(3)
PART 3 Small-Scale Magnetohydrodynamic Instabilities in Toroidal Confinement Systems 109(84)
Description of Marginally Stable Small-Scale Ideal Perturbations
111(17)
Starting equations for small-scale ideal perturbations
114(4)
Perturbations localized near a rational magnetic surface
118(3)
The Mercier modes
121(2)
Local modes with finite n/kx
123(2)
Ideal ballooning modes in the weak-ballooning approximation
125(3)
Small-Scale Magnetohydrodynamic Stability of a Plasma in Tokamaks
128(18)
Circular tokamak with a low- and a finite-pressure plasma
131(2)
Non-circular tokamak
133(2)
Stabilization of the Mercier modes in a circular tokamak at β > (a/R)4/3
135(1)
Self-stabilization of a plasma in the central region of a tokamak
136(1)
Shear-driven instability of local and ballooning modes
137(9)
Appendix A: Starting equations of localized and ballooning modes in a circular tokamak with β *** (a/R)4/3
141(4)
Appendix B: Qualitative stability criterion of ideal ballooning modes
145(1)
Ideal Small-Scale Magnetohydrodynamic Stability of a Plasma in Complex Magnetic Systems
146(15)
Systems homogeneous along the magnetic axis with a low- and a finite-pressure plasma
149(2)
Self-stabilization of a high-pressure plasma in helical systems
151(2)
Stability of localized and ballooning modes in the helical column without a longitudinal current
153(1)
Systems with a magnetic field inhomogeneous along the magnetic axis
153(4)
Stellarator with helical windings
157(4)
Growth Rates of Ideal Small-Scale Modes
161(11)
Description of ideal small-scale modes in the inertial region
162(5)
General dispersion relations for the ballooning modes and the Mercier modes
167(1)
Ballooning modes in a plasma stable against the Mercier modes
167(2)
The role of the ballooning character of perturbations in a plasma unstable against the Mercier modes
169(3)
Resistive Small-Scale Magnetohydrodynamic Modes in a Toroidal Geometry
172(21)
Description of perturbations in the inertial-resistive layer
176(4)
Dispersion relations
180(1)
Resistive-interchange instabilities in toroidal geometry
181(3)
Resistive instabilities driven by external (ideal) ballooning
184(1)
Stabilizing effect of the averaged plasma compressibility on resistive-interchange modes
185(1)
Resistive instabilities with a finite and with a large (γqR/cs)2
186(7)
Appendix: Allowance for the averaged plasma compressibility
190(3)
PART 4 Magnetohydrodynamic Internal Kink Modes in Toroidal Geometry 193(62)
Description of Ideal Kink Modes in Toroidal Geometry
195(11)
Starting magnetohydrodynamic equations for the tokamak geometry
197(3)
Equations for the ideal kink modes with γ = 0
200(3)
Equations for the ideal kink modes in the inertial layer
203(1)
Equations for kink modes in a helical column and stellarators with helical windings
204(2)
Ideal Internal Kink Modes in Toroidal Confinement Systems with a Low- and a Finite-Pressure Plasma
206(25)
The m = 1 mode in a circular tokamak with a weakly inhomogeneous longitudinal current
212(5)
General stability criterion of the m = 1 mode in a circular tokamak
217(1)
The growth rate of the m = 1 mode
218(1)
Modes with m > 1 in a circular tokamak
219(3)
Internal kink modes in a non-circular tokamak
222(2)
The m = 1 mode in a helical column with a longitudinal current
224(1)
Internal kink modes in stellarators with helical windings
225(6)
Appendix: Simplification of the potential-energy functional for the m = 1 mode
227(4)
Ideal Internal Kink Modes in Toroidal Systems with a High-Pressure Plasma
231(15)
Equations for kink modes at a high plasma pressure
233(1)
The m = n = 1 mode in a tokamak with a high-pressure plasma
234(1)
The m > 1 modes in a tokamak with a high-pressure plasma
235(2)
The m = 1 mode in a helical column with a high-pressure plasma
237(1)
Appendix A: Description of the m = 1 mode in a circular tokamak with a high-pressure plasma
238(3)
Appendix B: Description of the modes with m > 1 in a circular tokamak with a high-pressure plasma
241(5)
Resistive Internal Kink Modes in Toroidal Systems
246(9)
Equations for kink modes in the inertial-resistive layer
247(4)
Resistive internal kink instabilities with m = 1
251(2)
Tearing modes in tokamaks
253(1)
Tearing modes in stellarators with helical windings
253(2)
PART 5 Magnetohydrodynamic Modes in Collisionless and Neoclassical Regimes 255(62)
Description of Equilibrium and Perturbations in Collisionless and Neoclassical Plasmas
257(15)
Equilibrium particle motion in a collisionless plasma in a curvilinear magnetic field
259(2)
Equilibrium trapped-particle motion in a tokamak
261(2)
Equilibrium distribution function and macroscopic parameters of a collisionless plasma
263(3)
Drift kinetic equation
266(2)
Bounce-averaged perturbed distribution function of trapped particles in the ideal region
268(2)
Starting form of perturbation equations in the ideal region
270(2)
Effect of the plasma pressure anisotropy on magnetohydrodynamic stability
272(10)
Equilibrium of an anisotropic plasma in axisymmetric systems
273(2)
Description of ideal magnetohydrodynamic modes in an anisotropic plasma
275(2)
Qualitative analysis of the role of the plasma pressure anisotropy in the magnetohydrodynamic modes
277(1)
The Mercier and ballooning modes
278(2)
The m = 1 mode in an anisotropic-pressure plasma
280(2)
Effect of Trapped Particles on the Magnetohydrodynamic Stability
282(7)
Perturbed pressure of collisionless trapped particles
283(1)
Description of small-scale modes
284(2)
Stability of small-scale modes
286(1)
Potential energy of kink modes allowing for the trapped-particle contribution
287(1)
Stability of the ideal m = 1 mode in the banana regime
287(2)
Description of the Longitudinal Viscosity in the Magnetohydrodynamic Modes
289(12)
Qualitative notions of viscous effects
290(3)
Allowance method for viscosity effects
293(1)
Calculation of the viscosity coefficient in the Pfirsch-Schluter regime
294(1)
Starting equations for calculation of the viscosity coefficient in the kinetic regimes
295(2)
Viscosity in the plateau regime
297(1)
Viscosity in the banana regime
297(4)
Magnetohydrodynamic Modes in a Viscous Plasma
301(16)
The averaged ballooning equation in the inertial-resistive layer allowing for the viscosity
303(2)
Precise solution of the averaged ballooning equation in the inertial-resistive layer allowing for the viscosity
305(1)
Description of kink modes in the inertial-resistive layer allowing for the viscosity
306(1)
Dispersion relations in the presence of the viscosity
307(1)
Ideal-viscous ballooning and the Mercier modes
307(1)
The ideal-viscous m = 1 kink mode
308(1)
Influence of the viscosity on resistive-interchange modes
309(4)
Viscous-resistive ballooning instability
313(1)
Viscous-resistive kink modes
314(3)
PART 6 Drift-Magnetohydrodynamic Modes 317(64)
Ideal Drift-Magnetohydrodynamic Modes
319(24)
Canonical form of the averaged ballooning equation in the inertial layer allowing for drift effects
321(3)
Drift-magnetohydrodynamic modes in the two-fluid non-viscous approximation
324(4)
Viscous drift-magnetohydrodynamic modes in the Pfirsch-Schluter regime
328(1)
Collisional drift-magnetohydrodynamic modes in the plateau regime and related collisionless modes
329(1)
Collisional drift-magnetohydrodynamic modes in the banana regime
330(2)
Collisionless drift-magnetohydrodynamic modes and their resonant and collisional excitation
332(3)
Two-fluid modes with ω + vti/qr
335(3)
Drift modification of the m = 1 mode
338(5)
Appendix: Collisionless inertia renormalization for ω + ωb
339(4)
Resistive Drift-Magnetohydrodynamic Modes
343(9)
Description of perturbations in the inertial-resistive layer allowing for drift effects
345(2)
Dispersion relations for resistive ballooning and kink modes with ω << cs/qr allowing for drift effects
347(1)
Drift resistive-interchange instability
348(1)
Resistive drift-ballooning modes with ωqr/cs → 0
348(1)
Resistive drift-kink instabilities with m = 1
348(1)
Drift-tearing modes
349(1)
Resistive drift-ballooning modes with a finite and with a large (ωqr/cs)2
350(2)
Neoclassical Resistive Drift-Magnetohydrodynamic Modes
352(11)
Averaged ballooning equation in the inertial-resistive layer allowing for drift and viscosity effects
353(4)
Effect of the longitudinal ion viscosity on resistive drift-magnetohydrodynamic modes
357(2)
Description of modes dependent on both the electron viscosity and the ion viscosity
359(1)
Drift resistive-interchange instability due to the electron viscosity and the ion viscosity
359(2)
Resistive drift-ballooning instability due to the electron viscosity and the ion viscosity
361(1)
Resistive drift-kink modes due to the electron viscosity and the ion viscosity
362(1)
Semicollisional Drift-Magnetohydrodynamic Modes
363(7)
The problem statement and starting equations
364(3)
Derivation of the dispersion relation
367(1)
Low-frequency perturbations
368(2)
Interaction of High-Energy Trapped Particles with Magnetohydrodynamic Modes
370(11)
Description of high-energy trapped particles
371(3)
Interaction of high-energy trapped particles with ideal ballooning modes
374(4)
Interaction of high-energy trapped particles with the ideal internal m = 1 kink mode
378(2)
Influence of high-energy trapped particles on the m = 1 drift-kink mode
380(1)
PART 7 External Kink Modes 381(32)
Ideal External Kink Modes
383(4)
Description of ideal external kink modes in a cylindrical plasma
383(2)
Ideal external kink modes in a cylindrical plasma with a homogeneous longitudinal current and density
385(1)
Ideal external kink modes in a cylindrical plasma with a parabolic distribution of the longitudinal current
385(2)
Resistive-Wall Mode Instability
387(16)
Resistive-wall mode instability in a cylindrical plasma
389(3)
Problem statement and starting equations in the case of toroidal geometry
392(4)
Integral expression for the growth rate
396(1)
Contribution to the growth rate from non-singular side-band harmonics
397(1)
Contribution to the growth rate from singular side-band harmonics
398(3)
The case of the main harmonic with a singular point lying near the plasma boundary
401(2)
Stabilization of Resistive-Wall Mode Instability in a Tokamak with a Rotating Plasma
403(10)
Allowing for modified inertia in equations for singular side-band harmonics
404(1)
Solution of the equation for side-band harmonics in the inertial layer
405(3)
Asymptotics of the ideal solution for singular side-band harmonics
408(1)
Matching the asymptotics of the inertial and ideal solutions
409(1)
Contribution of singular side-band harmonics to the growth rate
410(1)
Analysis of the role of inertia effects
411(2)
PART 8 Alfven Eigenmodes and Their Interaction with High-Energy Particles 413(32)
Toroidicity-Induced Alfven Eigenmodes
415(8)
Description of Alfven modes allowing for metric oscillations
416(2)
Toroidicity-induced Alfven eigenmodes
418(4)
Energy of toroidicity-induced Alfven eigenmodes
422(1)
Kinetic Toroidicity-Induced Alfven Eigenmodes
423(11)
Magnetohydrodynamic approach to studying kinetic Alfven modes
423(3)
Starting equations for kinetic toroidicity-induced Alfven' eigenmodes
426(3)
Inner eigenfunctions and dispersion relations of kinetic toroidicity-induced Alfven eigenmodes
429(3)
Energy of kinetic toroidicity-induced Alfven' eigenmodes
432(2)
Interaction of High-Energy Particles with Toroidicity-Induced Alfven Eigenmodes and Kinetic Toroidicity-Induced Alfven Eigenmodes
434(11)
General expression for the growth rate of toroidicity-induced Alfven eigenmodes and kinetic toroidicity-induced Alfven eigenmodes due to high-energy particles
435(3)
Growth rate of toroidicity-induced Alfven eigenmodes and kinetic toroidicity-induced Alfven eigenmodes due to strongly circulating high-energy particles
438(2)
Growth rate of toroidicity-induced Alfven eigenmodes and kinetic toroidicity-induced Alfven eigenmodes due to trapped high-energy particles
440(5)
References 445(11)
Index 456
Mikhailovskii\, A.B