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Introduction to Hamiltonian Fluid Dynamics and Stability Theory [Kõva köide]

(University of Alberta, Edmonton, Canada)
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Swaters (mathematical sciences and Director of the Applied Mathematics Institute, U. of Alberta, Canada) provides an introduction to Hamiltonian fluid dynamics and describes aspects of hydrodynamic stability theory within the context of Hamiltonian formalism. He uses the example of the nonlinear pendulum to introduce many of the ideas associated with the mathematical argument required in infinite dimension Hamiltonian theory needed for fluid mechanics. Topics include Andrew' Theorem, derivation and development of the Charney-Hasegawa-Mima (CMH) equation, an account of the Hamiltonian structure of the Korteweg de Vries (KdV) equation, and discussion of the stability theory associated with the KdV soliton. Adopts a tutorial approach and makes use of plentiful exercises. Annotation c. Book News, Inc., Portland, OR (booknews.com)

Hamiltonian fluid dynamics and stability theory work hand-in-hand in a variety of engineering, physics, and physical science fields. Until now, however, no single reference addressed and provided background in both of these closely linked subjects. Introduction to Hamiltonian Fluid Dynamics and Stability Theory does just that-offers a comprehensive introduction to Hamiltonian fluid dynamics and describes aspects of hydrodynamic stability theory within the context of the Hamiltonian formalism.
The author uses the example of the nonlinear pendulum-giving a thorough linear and nonlinear stability analysis of its equilibrium solutions-to introduce many of the ideas associated with the mathematical argument required in infinite dimensional Hamiltonian theory needed for fluid mechanics. He examines Andrews' Theorem, derives and develops the Charney-Hasegawa-Mima (CMH) equation, presents an account of the Hamiltonian structure of the Korteweg-de Vries (KdV) equation, and discusses the stability theory associated with the KdV soliton.
The book's tutorial approach and plentiful exercises combine with its thorough presentations of both subjects to make Introduction to Hamiltonian Fluid Dynamics and Stability Theory an ideal reference, self-study text, and upper level course book.

Arvustused

"a refreshingly non-technical stylethis is a well-written introduction to Hamiltonian fluid dynamics and basic stability results." --S. Reich, Edinburgh Mathematical Society, Vol. 44

Introduction
1(8)
The nonlinear pendulum
9(34)
Model formulation
9(1)
Canonical Hamiltonian formulation
10(2)
Least Action Principle
12(2)
Symplectic Hamiltonian formulation
14(2)
Mathematical properties of the J matrix
16(2)
Poisson bracket formulation
18(8)
Steady solutions of a canonical Hamiltonian system
26(2)
Linear stability of a steady solution
28(7)
Nonlinear stability of a steady solution
35(8)
The two dimensional Euler equations
43(50)
Vorticity equation formulation
43(7)
Hamiltonian structure for partial differential equations
50(6)
Hamiltonian structure of the Euler equations
56(13)
Reduction of the canonical Poisson bracket
69(11)
Casimir functionals
80(3)
Noether's Theorem
83(8)
Exercises
91(2)
Stability of steady Euler flows
93(50)
Steady solutions of the vorticity equation
93(7)
Linear stability problem
100(1)
Normal mode equations for parallel shear flows
101(4)
Linear stability theorems
105(9)
Nonlinear stability theorems
114(9)
Andrews's Theorem
123(4)
Flows with special symmetries
127(14)
Exercises
141(2)
The Charney-Hasegawa-Mima equation
143(62)
A derivation of the CHM equation
145(6)
Hamiltonian structure
151(4)
Steady solutions
155(3)
Stability of steady solutions
158(23)
Steadily-travelling solutions
181(21)
Exercises
202(3)
The KdV equation
205(58)
A derivation of the KdV equation
205(7)
Hamiltonian structure
212(8)
Periodic and soliton solutions
220(4)
Variational principles
224(3)
Linear stability
227(12)
Nonlinear stability
239(21)
Exercises
260(3)
References 263(6)
Index 269
Swaters, Gordon E