Wave–Tide–Surge Interaction Modulates Storm Waves in the Bohai Sea

Typhoons, extratropical cyclones, and cold fronts cause strong winds leading to storm surges and waves in the Bohai Sea. A wave–flow coupled numerical model is established for storm events observed in 2022 caused by three weather systems, to investigate how storm waves are modulated by wave–tide–surge interaction (WTSI). Wave response is basically controlled by water level change in coastal areas, where bottom friction or breaking dominates the energy dissipation, and determined by the current field in deep water by altering whitecapping. Wave height increases/decreases are induced by positive/negative water level or obtuse/acute wave–current interaction angle, leading to six types of field patterns for significant wave height (Hs) responses. For the three storm events, Hs basically changed within ±5% in central deep water, while the maximum increase/decrease reached 160%/−60% in the coastal area of Laizhou Bay/Liaodong Bay. Based on maximum Hs and its occurrence time, WTSI modulation is manifested as the superposition effect of wave–tide and wave–surge interactions in both space and time scales, and occurrence time depends more on tide than surge for all three storms. The enhancement/abatement of WTSI modulation happens for consistent/opposite changing trends of wave–tide and wave–surge interaction, with the ultimate result showing the side with a higher effect.

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Publication Details

Journal
Journal of Marine Science and Engineering
Published
2024-10-28
DOI
https://doi.org/10.3390/jmse12111932
Citations
6
Primary Topic
Ocean Waves and Remote Sensing
Type
article
Field-Weighted Citation Impact
2.88
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article

Wave–Tide–Surge Interaction Modulates Storm Waves in the Bohai Sea

Yue Ma, Wenjia Min, Zhiliang Liu, Bo Zhao et al.
6 citations
Journal of Marine Science and Engineering
Ocean Waves and Remote Sensing
2.88
article

Wave–Tide–Surge Interaction Modulates Storm Waves in the Bohai Sea

Yue Ma, Wenjia Min, Zhiliang Liu, Bo Zhao, Zhichao Dong, Ying An
article en
6 citations

Abstract

Typhoons, extratropical cyclones, and cold fronts cause strong winds leading to storm surges and waves in the Bohai Sea. A wave–flow coupled numerical model is established for storm events observed in 2022 caused by three weather systems, to investigate how storm waves are modulated by wave–tide–surge interaction (WTSI). Wave response is basically controlled by water level change in coastal areas, where bottom friction or breaking dominates the energy dissipation, and determined by the current field in deep water by altering whitecapping. Wave height increases/decreases are induced by positive/negative water level or obtuse/acute wave–current interaction angle, leading to six types of field patterns for significant wave height (Hs) responses. For the three storm events, Hs basically changed within ±5% in central deep water, while the maximum increase/decrease reached 160%/−60% in the coastal area of Laizhou Bay/Liaodong Bay. Based on maximum Hs and its occurrence time, WTSI modulation is manifested as the superposition effect of wave–tide and wave–surge interactions in both space and time scales, and occurrence time depends more on tide than surge for all three storms. The enhancement/abatement of WTSI modulation happens for consistent/opposite changing trends of wave–tide and wave–surge interaction, with the ultimate result showing the side with a higher effect.

Journal of Marine Science and EngineeringVol. 12(11)
China Communications Construction Company (China) (CN), Hebei Normal University of Science and Technology (CN)
Life below water
Openalex Percentile: Top 9%
Ocean Waves and Remote Sensing
2.88
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