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Subharmonic resonance of a trapped wave near a vertical cylinder by narrow-banded random incident waves

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Abstract

It is well-known that near an infinite linear array of periodically spaced cylinders trapped waves of certain eigenfrequencies can exist. If there are only a finite number of cylinders in an infinite sea, trapping is imperfect. Simple harmonic incident waves can excite a nearly trapped wave at one of the eigen frequencies through a linear mechanism. However, the maximum amplification ratio increases monotonically with the number of the cylinders; hence the solution is singular in the limit of infinitely many cylinders. Recently, a nonlinear theory of subharmonic resonance of perfectly trapped waves has been completed. In this article the theory is further extended to random incident waves with a narrow spectrum centered near twice the natural frequency of the trapped wave. The effects of detuning and bandwidth of the spectrum are examined.

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Correspondence to Chiang C. Mei.

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Dedicated to Professor J. N. Newman on his 70th birthday. We wish to express our profound admiration for Professor Newman’s scientific contributions and leadership in the ship-hydrodynamics discipline. The relation between this article and an early work of his reflects in part his impact on us.

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Li, Y., Mei, C.C. Subharmonic resonance of a trapped wave near a vertical cylinder by narrow-banded random incident waves. J Eng Math 58, 157–166 (2007). https://doi.org/10.1007/s10665-006-9120-8

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  • DOI: https://doi.org/10.1007/s10665-006-9120-8

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