Wave runup is one of the most critical parameters contributing to coastline flooding and
shoreline change. Many formulas have been developed to empirically predict wave runup …

This work assesses the impacts in reshaping coastlines as a result of sea level rise and
changes in wave climate. The methodology proposed combines the SWAN and SWASH …

Flood risk assessments commonly use event‐based approaches to reduce the number of
scenarios required to be run through computationally intensive physical process models …

The purpose of this study is to assess the ability of the SWASH model to reproduce wave
setup and runup in highly dissipative stormy conditions. To proceed we use data collected …

The wave time series that forces phase-resolving models is a source of model uncertainty
that can propagate into wave runup predictions when the wave phase information is …

The degradation of coastal ecosystems in recent years, combined with more intense storms
and greater sea levels associated with climate change, are likely to increase vulnerability to …

The main purpose of the research was to develop appropriate tools for forecasting the
effects of storms. The use of the high-resolution SWAN wave model powered by AROME …

Accurate wave runup estimations are of great interest for coastal risk assessment and
engineering design. Phase-resolving depth-integrated numerical models offer a promising …

Coastal inundation is a well-studied topic. Surprisingly, the extent and dynamics of wave-set-
up in estuaries with constricted entrances has not been thoroughly investigated. The current …

Parameterization of wave runup is of paramount importance for an assessment of coastal
hazards. Parametric models employ wave (eg, H s and L p) and beach (ie, β) parameters to …