HYBEAT: A HYBRID MODEL FOR SURF-ZONE HYDRODYNAMICS

Climate change-induced sea level rise and increasing storm severity are important stressors that threaten the livability of coastal areas worldwide. In this context, it is crucial to be able to effectively predict coastal flooding and to provide the necessary tools to assist adaptation strategies to coastal communities and policymakers. These predictive tools should be able to forecast the local waves and water levels as well as their nearshore transformation to the shoreline. Commonly, phase- resolving numerical wave models have been employed for simulating complex nearshore hydrodynamics. Although they accurately reproduce the main physical processes, these models are computationally very expensive, posing a limitation on the ability to forecast future conditions. Alternatively, hybrid models have emerged to complement process-based wave numerical models by incorporating statistical methods that minimize the computational effort (Camus et al., 2011, Ricondo et al., 2023).

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Publication Details

Journal
Coastal Engineering Proceedings
Published
2025-05-29
DOI
https://doi.org/10.9753/icce.v38.currents.26
Primary Topic
Coastal and Marine Dynamics
Type
article
Field-Weighted Citation Impact
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article

HYBEAT: A HYBRID MODEL FOR SURF-ZONE HYDRODYNAMICS

Alba Ricondo, Beatriz Pérez-Díaz, Manuel Zornoza, Laura Cagigal et al.
Coastal Engineering Proceedings
Coastal and Marine Dynamics
article

HYBEAT: A HYBRID MODEL FOR SURF-ZONE HYDRODYNAMICS

Alba Ricondo, Beatriz Pérez-Díaz, Manuel Zornoza, Laura Cagigal, Sonia Castanedo, Fernando J. Méndez
article en

Abstract

Climate change-induced sea level rise and increasing storm severity are important stressors that threaten the livability of coastal areas worldwide. In this context, it is crucial to be able to effectively predict coastal flooding and to provide the necessary tools to assist adaptation strategies to coastal communities and policymakers. These predictive tools should be able to forecast the local waves and water levels as well as their nearshore transformation to the shoreline. Commonly, phase- resolving numerical wave models have been employed for simulating complex nearshore hydrodynamics. Although they accurately reproduce the main physical processes, these models are computationally very expensive, posing a limitation on the ability to forecast future conditions. Alternatively, hybrid models have emerged to complement process-based wave numerical models by incorporating statistical methods that minimize the computational effort (Camus et al., 2011, Ricondo et al., 2023).

Coastal Engineering Proceedings(38)
Openalex Percentile: Top 23%
Coastal and Marine Dynamics
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