Extreme sea level (ESL), a major driver of coastal flooding, is widely used as a benchmark for coastal engineering design, coastal zone management, and risk assessment. With global warming, ESL events are projected to become more frequent and intense along most of the world’s coastline. Previous work has estimated the minimum global warming level (GWL) and timing at which the present-day 100-year ESL becomes an annual event along the global ice-free coastline. Comparable information for other return periods—such as 10-, 20-, 50-, 100-, and 200-year events—relevant to broader applications remains unavailable. Here, we present global datasets describing the minimum GWL and timing at which multiple present-day ESL return levels transition to annual occurrence. The datasets are derived using a multimethod framework, combining multiple global datasets of present-day ESL and projections of relative sea level change, while accounting for uncertainties. The resulting datasets provide a consistent global reference for assessing how the frequency of ESLs changes across return periods and GWLs, supporting applications in large-scale coastal impact assessment, planning, and risk analysis.
Future changes in extreme still water levels (ESWL) will play a critical role in shaping coastal flood risk across western Europe. Yet most large-scale assessments, including recent IPCC reports, estimate ESWL changes using static approaches that account only for long-term sea-level rise while treating other sea-level...
Maialen Irazoqui Apecechea, A. Melet, G. Reffray et al.· Frontiers in Marine Science· 0 citations
Atmospheric rivers (ARs) are a major driver of hydrometeorological extremes along the U.S. West Coast, yet their role in generating events with high compound flood potential remains poorly understood and quantified. Here, we assess the contribution of ARs to compound flood potential by analyzing the joint occurrence of...
Pravin Maduwantha, T. Wahl, G. Villarini· Environmental Research Lette...· 0 citations
Driven by global warming and thermal expansion of the oceans, ice loss from glaciers and ice sheets will continue to increase sea levels and the risk of storm-surge, threatening coastal regions worldwide. This study presents the first national-scale assessment of SLR/S impacts on land use and assets across Australia, c...
T. Kompas, Tuong Nhu Che, R. Grafton· Scientific Reports· 0 citations
Extreme Sea Level (ESL) poses a high risk to coastal communities and infrastructure, with its frequency and intensity projected to increase in the future. In this study, we focus on the storm surge component of sea level variability, a key contributor to extreme still water levels during storms. The spatiotemporal va...
Lisanne Blok, M. Oltmanns, Andrea Marinoni et al.· Journal of Geophysical Resea...· 0 citations
Coastal regions of Atlantic Canada face increasing tropical-cyclone flood risk under climate change. This study presents a building-level coastal flood-risk framework that translates regional synthetic-hurricane projections into localized risk estimates for Charlottetown, Prince Edward Island. The methodology combines...
Saeed Saviz Naeini, Reda Snaiki· Canadian journal of civil en...· 0 citations
Storms and associated marine hazards pose environmental risks, particularly under long-term changes driven by anthropogenic climate change. This study assesses the potential impacts of future climate change on annual median and extreme significant wave height conditions in the North Sea and the Baltic Sea using an ense...
N. Groll, I. Grabemann· Ocean Science (OS)· 0 citations
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