海岸
后发
浮标
膨胀
地质学
波浪能
海洋学
气候学
气候变化
海岸侵蚀
有效波高
波浪模型
风暴
风浪
海底管道
波高
腐蚀
弹性(材料科学)
环境科学
海面温度
畸形波
铅(地质)
作者
William C. O'Reilly,Mark A. Merrifield,Laura Cagigal,Dayeon Yoon,Holden Leslie-Bole,Susheel Adusumilli,Adam P. Young,K. Vos,R. T. Guza
标识
DOI:10.1038/s41467-025-65944-0
摘要
Abstract The important role of wave climate variability in driving shoreline evolution has been demonstrated recently with improved satellite-derived shoreline detection algorithms, wave buoy records, and wave reanalysis and hindcast models. While severe beach erosion with extreme El Niño waves is well documented on Pacific coastlines, less clear is the broader link between interannual wave energy and shoreline response. Here, we show half of California’s interannual Landsat shoreline change is a coherent response to wave power anomalies originating from a specific central North Pacific swell generation region, which in turn is only weakly correlated with the Niño3.4 index. Positive wave power anomalies (beach narrowing) are strongly associated with El Niños, but the negative anomalies (beach widening) are not similarly tied to La Niñas. The North Pacific wave climate modulation of beach width narrowing and widening over interannual to multi-decadal time scales has implications for long-term coastal resilience planning.
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