An experimental study of a rectangular floating breakwater with flexible curtains as wave-dissipating components
He, Fang and Pan, Jiapeng and Li, Jindi and Zheng, Siming and Yuan, Zhiming (2024) An experimental study of a rectangular floating breakwater with flexible curtains as wave-dissipating components. Applied Ocean Research, 152. 104185. ISSN 0141-1187 (https://doi.org/10.1016/j.apor.2024.104185)
Preview |
Text.
Filename: He-etal-AOR-2024-An-experimental-study-of-a-rectangular-floating-breakwater.pdf
Accepted Author Manuscript License: ![]() Download (10MB)| Preview |
Abstract
In this study, the flexible curtains are attached to the bottom of a rectangular floating breakwater as wave-dissipating components. Through a comprehensive experimental investigation, the wave attenuation, motion responses, and mooring forces of the proposed floating breakwater are examined, with a particular focus on the effects of wave height and the hanging length and porosity of the flexible curtain. Meanwhile, comparative analyses are conducted with the stand-alone rectangular floating breakwater and with attaching one rigid slotted barrier. Our experimental results indicate that one underhanging flexible curtain can augment wave attenuation across all tested wave conditions, which is comparable to the rigid slotted barrier. Furthermore, attaching two flexible curtains contributes to a more significant enhancement for harbor or coastal protection, especially against long waves. This can be attributed to the buffer function of flexible curtains, and the increased added mass induced by the water body confined between them, which increases the natural period of floating breakwaters. Furthermore, the attachment of the flexible curtains significantly suppresses the motion responses of the breakwater, which can alleviate the undesirable strong mooring forces. In general, increasing the length or decreasing the porosity of flexible curtains leads to similar trends in the performance of floating breakwaters. The flexible curtains have been proven to be effective wave-dissipating components for rectangular floating breakwaters.
ORCID iDs
He, Fang, Pan, Jiapeng, Li, Jindi, Zheng, Siming and Yuan, Zhiming
-
-
Item type: Article ID code: 92443 Dates: DateEvent30 November 2024Published21 August 2024Published Online14 August 2024Accepted23 April 2024SubmittedSubjects: Naval Science > Naval architecture. Shipbuilding. Marine engineering Department: Faculty of Engineering > Naval Architecture, Ocean & Marine Engineering Depositing user: Pure Administrator Date deposited: 25 Mar 2025 12:00 Last modified: 26 Mar 2025 01:30 URI: https://strathprints.strath.ac.uk/id/eprint/92443