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Abstract
Free surface oscillations in a narrow gap between elongated parallel bodies are studied numerically. As this represents both a highly resonant system and an arrangement of relevance to offshore operations, the nature of the damping is of primary interest, and has a critical role in determining the response. Previous experimental work has suggested that the damping could be attributed to laminar boundary layers; here our numerical wave tank successfully resolves both wave and boundary layer scales to provide strong numerical evidence in support of this conclusion. The simulations follow the experiments in using wave groups so that the computation is tractable, and both linear and second harmonic excitation of the gap are demonstrated.
Original language | English |
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Pages (from-to) | 759-775 |
Number of pages | 17 |
Journal | Journal of Fluid Mechanics |
Volume | 866 |
DOIs | |
Publication status | Published - 10 May 2019 |
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Dive into the research topics of 'Resolving wave and laminar boundary layer scales for gap resonance problems'. Together they form a unique fingerprint.Projects
- 1 Finished
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ARC ITRH for Offshore Floating Facilities
Watson, P. (Investigator 01), Cassidy, M. (Investigator 02), Efthymiou, M. (Investigator 03), Ivey, G. (Investigator 04), Jones, N. (Investigator 05), Cheng, L. (Investigator 06), Draper, S. (Investigator 07), Zhao, M. (Investigator 08), Randolph, M. (Investigator 09), Gaudin, C. (Investigator 10), O'Loughlin, C. (Investigator 11), Hodkiewicz, M. (Investigator 12), Cripps, E. (Investigator 13), Zhao, W. (Investigator 14), Wolgamot, H. (Investigator 15), White, D. (Investigator 16), Doherty, J. (Investigator 17), Taylor, P. (Investigator 18), Stanier, S. (Investigator 19) & Gourvenec, S. (Investigator 20)
ARC Australian Research Council
1/01/14 → 30/12/21
Project: Research