Nonlinear Evolution of Surface Gravity Waves over Highly Variable Depth

Physics

Scientific paper

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Wave Propagation In Random Media, Nonlinear Acoustics, Acoustic Signal Processing

Scientific paper

New nonlinear evolution equations are derived that generalize those presented in a Letter by Matsuno [

Phys. Rev. Lett. 69, 609 (1992)PRLTAO0031-900710.1103/PhysRevLett.69.609
] and a terrain-following Boussinesq system recently deduced by Nachbin [
SIAM J Appl. Math.SMJMAP0036-1399 63, 905 (2003)10.1137/S0036139901397583
]. The regime considers finite-amplitude surface gravity waves on a two-dimensional incompressible and inviscid fluid of, highly variable, finite depth. A Fourier-type operator is expanded in a wave steepness parameter. The novelty is that the topography can vary on a broad range of scales. It can also have a complex profile including that of a multiply valued function. The resulting evolution equations are variable coefficient Boussinesq-type equations. The formulation is over a periodically extended domain so that, as an application, it produces efficient Fourier (fast-Fourier-transform algorithm) solvers.

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