Geophysical Research Letters · 2019 · 38 citations · 32 references
Natural SciencesMeteorologyOceanographyCoastal EngineeringOcean WavesUncertainty QuantificationCoastal FloodingCoastal Hazard AssessmentCoastal HazardsCoastal HydrodynamicsEstuarine ModelingFlood WarningCoastal Flood Hazard AssessmentCoastal Hazard ModelingSignificant Wave HeightSignificant Wave Height EstimationSystematic UncertaintiesWave Hazard Assessment
Abstract Coastal flood warning and design of coastal protection schemes rely on accurate estimations of water level and waves during hurricanes and violent storms. These estimations frequently use numerical models, which, for computational reasons, neglect the interaction between the hydrodynamic and wave fields. Here, we show that neglecting such interactions, or local effects of atmospheric forcing, causes large uncertainties, which could have financial and operational consequences because flood warnings are potentially missed or protection schemes underdesigned. Using the Severn Estuary, SW England, we show that exclusion of locally generated winds underestimates high water significant wave height by up to 90.1%, high water level by 1.5%, and hazard proxy (water level + 1/2 significant wave height) by 9.1%. The uncertainty in water level and waves is quantified using a system to model tide‐surge‐wave conditions, Delft3D‐FLOW‐WAVE in a series of eight model simulations for four historic storm events.
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