Muutke küpsiste eelistusi

Mathematical Theory Of Permanent Progressive Water-waves, The [Pehme köide]

(Japan Women's Univ, Japan), (Kyoto Univ, Japan)
  • Formaat: Paperback / softback, 244 pages
  • Sari: Advanced Series in Nonlinear Dynamics 20
  • Ilmumisaeg: 08-Oct-2001
  • Kirjastus: World Scientific Publishing Co Pte Ltd
  • ISBN-10: 9810244509
  • ISBN-13: 9789810244507
  • Formaat: Paperback / softback, 244 pages
  • Sari: Advanced Series in Nonlinear Dynamics 20
  • Ilmumisaeg: 08-Oct-2001
  • Kirjastus: World Scientific Publishing Co Pte Ltd
  • ISBN-10: 9810244509
  • ISBN-13: 9789810244507
This book is a self-contained introduction to the theory of periodic, progressive, permanent waves on the surface of incompressible inviscid fluid. The problem of permanent water-waves has attracted a large number of physicists and mathematicians since Stokes' pioneering papers appeared in 1847 and 1880. Among many aspects of the problem, the authors focus on periodic progressive waves, which mean waves traveling at a constant speed with no change of shape. As a consequence, everything about standing waves are excluded and solitary waves are studied only partly. However, even for this restricted problem, quite a number of papers and books, in physics and mathematics, have appeared and more will continue to appear, showing the richness of the subject. In fact, there remain many open questions to be answered.The present book consists of two parts: numerical experiments and normal form analysis of the bifurcation equations. Prerequisite for reading it is an elementary knowledge of the Euler equations for incompressible inviscid fluid and of bifurcation theory. Readers are also expected to know functional analysis at an elementary level. Numerical experiments are reported so that any reader can re-examine the results with minimal labor: the methods used in this book are well-known and are described as clearly as possible. Thus, the reader with an elementary knowledge of numerical computation will have little difficulty in the re-examination.
Preface vii
Introduction
1(30)
Formulation of the problem
1(9)
Waves on fluid of finite depth
10(3)
Primary bifurcation from the trivial flow
13(5)
Analyticity of the free boundary
18(2)
The case where bottom is not flat
20(1)
Three dimensional waves
21(1)
Remarks on equilibrium capillary surface
22(1)
Types of bifurcation
23(2)
Proof of Proposition 1.1
25(3)
List of Symbols
28(3)
Pure Capillary Waves
31(18)
Pure capillary waves on water of infinite depth
31(5)
Uniqueness of Crapper's wave
36(6)
Pure capillary waves in fluid of finite depth
42(7)
Gravity Waves
49(34)
Gravity waves of infinite depth
49(3)
Stokes' highest wave
52(7)
Method of H. Yamada
59(4)
Implementation of Yamada's iteration
62(1)
Global branch
63(3)
Stokes Expansion
66(1)
Longuet-Higgins' method
67(4)
Babenko's method
71(2)
A remark on the secondary bifurcation
73(1)
Garabedian's theorem
74(5)
A remark on nonsymmetric waves
79(1)
A remark on non-flat bottom
80(3)
Capillary-Gravity Waves
83(36)
Numerical solutions of mode (1,2)
83(3)
Structure of the set of capillary-gravity waves
86(5)
O(2)-equivariance
91(4)
Bifurcation equation of mode (1,2)
95(9)
Numerical results for mode (1,3)
104(1)
Bifurcation equation of mode (1,3)
104(10)
Remarks on the waves on water of finite depth
114(1)
Nonsymmetric wave
115(2)
Numerical method
117(2)
Numerical Solutions of Mode (1,4) and (2,3)
119(18)
Bifurcation of mode (1,4)
119(9)
Solutions when p is small
128(1)
Bifurcations of mode (2,3)
129(3)
Concluding remark
132(5)
Waves of Negative Parameters
137(10)
Negative surface tension
137(1)
Numerical experiment
138(1)
Limit wave
139(3)
Secondary bifurcation
142(1)
Negative p
142(1)
Conclusion
143(4)
Rotational Wave
147(24)
Introduction
147(2)
Physical meaning of the equations
149(1)
Pseudo-potential
150(2)
Differential equations
152(2)
Change of variables
154(1)
Trivial flows
155(1)
The case where the depth is finite
156(1)
Gerstner's trochoidal waves
156(2)
The case where the vorticity is constant
158(4)
Numerical results
162(9)
Interfacial Progressive Waves
171(26)
Introduction
171(1)
The fundamental equation
172(6)
Function spaces
178(2)
Bifurcation equation
180(5)
Bifurcation equation of mode (1,2)
185(1)
Existence of Degenerate Bifurcation Point
186(5)
The triple bifurcation point
191(1)
The case where εδ = 0
192(1)
Numerical experiment
193(4)
Solitary Waves
197(20)
Solitary wave
197(5)
Yamada's equation for solitary waves
202(2)
Yamada's unified equation
204(4)
Solitary gravity waves
208(3)
Solitary waves on deep water
211(2)
Interfacial solitary waves
213(4)
Bibliography 217(12)
Index 229