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Cover image for Water wave scattering by barriers
Title:
Water wave scattering by barriers
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Publication Information:
Boston, FL : WIT Press, 2000
Physical Description:
390 p. : ill. ; 24 cm.
ISBN:
9781853126239
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Item Category 1
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30000010197387 QA927 M94 2000 Open Access Book Book
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Summary

Summary

In this unique volume the authors review the development of the subject, virtually from its inception. Details of much of the research work carded out in the linearized theory of water waves concerning problems of water wave scattering by barriers is incorporated.


Table of Contents

Prefacep. ix
1 Introductionp. 1
2 The basic equationsp. 9
2.1 Linearized theory of water wavesp. 9
2.2 Solutions for water wave potentialp. 13
2.3 Two superposed fluidsp. 17
2.4 The surface water waves and the scattering problemsp. 22
2.5 Source potentialsp. 26
3 Some important mathematical concepts and resultsp. 37
3.1 Fourier analysisp. 37
3.2 Complex function theoryp. 58
3.3 Riemann Hilbert problemsp. 59
3.4 Some aspects of the Wiener-Hopf techniquep. 62
3.5 Some aspects of linear singular integral equationsp. 68
3.6 Hypersingular integral equationp. 78
3.7 Solutions of dual integral equationsp. 85
3.8 Galerkin's methodp. 98
3.9 Values of certain definite integralsp. 104
4 Explicit solutions to some barrier problemsp. 109
4.1 Description of the physical problemsp. 109
4.2 Method based on Havelock's expansion of water wave potentialp. 111
4.3 Water wave scattering by a partially immersed platep. 115
4.4 Water wave scattering by a submerged barrierp. 120
4.5 Water wave scattering by a submerged platep. 124
4.6 Water wave scattering by a thin vertical wall with a submerged gapp. 131
4.7 Method based on the use of Green's integral theoremp. 138
4.8 Reduction methodp. 142
4.9 Method based on complex variable theoryp. 146
5 Vertical wall with a narrow gap, approximate solutionp. 153
5.1 Description of the problemp. 153
5.2 Method of matched asymptotic expansionp. 154
5.3 Method based on approximate solution of integral equationp. 160
6 Oblique wave scattering by barriersp. 165
6.1 Description of the physical problemsp. 165
6.2 Use of Wiener-Hopf techniquep. 167
6.3 Perturbation about normal incidencep. 176
6.4 Single-term Galerkin approximationp. 192
7 Nearly vertical barriers and special boundary value problemsp. 207
7.1 Description of the physical problemsp. 207
7.2 Integro-differential equation formulationp. 209
7.3 Solution by a perturbational analysisp. 215
7.4 Use of Havelock's expansion to evaluate R[subscript 1]p. 221
7.5 Special boundary value problems and integral identitiesp. 224
7.6 Method based on Havelock's expansionp. 224
7.7 Method based on Riemann Hilbert problemp. 236
8 Thin vertical barriers in finite depth waterp. 247
8.1 Single barrier problemsp. 247
8.2 Basis functions in multi-term Galerkin approximations for barrier problemsp. 261
8.3 Double barrier problemsp. 264
9 Thick rectangular barriers in finite depth waterp. 287
9.1 Water wave scattering problems involving thick barriersp. 287
9.2 Expressions for M[superscript s,a](y, u)p. 297
9.3 The basis functionsp. 299
9.4 Expressions for [characters not reproducible] etc.p. 304
9.5 Numerical resultsp. 308
10 Interface wave scattering by barrierp. 319
10.1 Vertical barrier submerged in lower fluidp. 320
10.2 Inclined plate submerged in lower fluidp. 334
11 Incoming water waves against a vertical cliffp. 343
11.1 Normally incident wavesp. 344
11.2 Obliquely incident wavesp. 345
11.3 Effect of surface tensionp. 348
12 Second-order wave scatteringp. 351
12.1 "Second-order" mathematical analysisp. 352
12.2 "Second-order" reflection and transmission coefficientsp. 357
Appendixp. 361
A Singular integral equations of the first kind with Cauchy type kernelp. 361
B A particular singular integral equationp. 368
Bibliographyp. 373
Indexesp. 385
Subject indexp. 387
Author indexp. 389
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