Experimental Research on Ship Wave-Induced Motions of Tidal Turbine Catamaran

In this research, the effect of ship navigation on the mooring system of a deep-sea floating tidal energy platform is experimentally investigated. Hydrodynamic experiments were conducted on a figure-of-eight mooring system with a KCS ship (KRISO Container Ship) as the sailing ship model and a catamaran as the carrier model of the tidal current energy generator under the combined effect of waves and ocean currents. The experimental results show that the increase in ship speed increases the amplitude of the carrier motion re-response. When the ship speed increases from 1.2 m/s to 1.478 m/s, the roll amplitude increases by 220%. At the same time, a decrease in the distance and draft of the navigating vessel also increases the amplitude of the motion response. Then, the actual sea conditions are simulated by the combined effect of ship waves and regular waves. As the wave period decreases and the height increases, the platform motion response is gradually reduced by the ship-generated waves. These findings provide important insights for optimizing the mooring system design in wave-dominated marine environments.

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Publication Details

Journal
Fluids
Published
2025-08-04
DOI
https://doi.org/10.3390/fluids10080205
Primary Topic
Wave and Wind Energy Systems
Type
article
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article

Experimental Research on Ship Wave-Induced Motions of Tidal Turbine Catamaran

Xiwu Gong, Tinghui Liu, Zhixiang Yu, Yonghe Xie
Fluids
Wave and Wind Energy Systems
article

Experimental Research on Ship Wave-Induced Motions of Tidal Turbine Catamaran

Xiwu Gong, Tinghui Liu, Zhixiang Yu, Yonghe Xie
article en

Abstract

In this research, the effect of ship navigation on the mooring system of a deep-sea floating tidal energy platform is experimentally investigated. Hydrodynamic experiments were conducted on a figure-of-eight mooring system with a KCS ship (KRISO Container Ship) as the sailing ship model and a catamaran as the carrier model of the tidal current energy generator under the combined effect of waves and ocean currents. The experimental results show that the increase in ship speed increases the amplitude of the carrier motion re-response. When the ship speed increases from 1.2 m/s to 1.478 m/s, the roll amplitude increases by 220%. At the same time, a decrease in the distance and draft of the navigating vessel also increases the amplitude of the motion response. Then, the actual sea conditions are simulated by the combined effect of ship waves and regular waves. As the wave period decreases and the height increases, the platform motion response is gradually reduced by the ship-generated waves. These findings provide important insights for optimizing the mooring system design in wave-dominated marine environments.

FluidsVol. 10(8)
Zhejiang Ocean University (CN)
Life below water
Openalex Percentile: Top 77%
Wave and Wind Energy Systems
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Experimental Research on Ship Wave-Induced Motions of Tidal Turbine Catamaran — Xiwu Gong, Tinghui Liu, et al. · Fluids (2025) | TGRS Research Map | TGRS