Over the past decades, the scientific community has made significant efforts to simulate
flooding conditions using a variety of complex physically based models. Despite all …

Coastal flooding is a significant and increasing hazard. There are multiple drivers including
rising coastal water levels, more intense hydrologic inputs, shoaling groundwater and …

In predicting storm impacts on sandy coasts, possibly with structures, accurate runup and
overtopping simulation is an important aspect. Recent investigations (Stockdon et al., 2014; …

In this paper we present a process-based numerical model for the prediction of storm
hydrodynamics and hydrology on gravel beaches. The model comprises an extension of an …

Planning community resilience to sea level rise (SLR) requires information about where,
when, and how SLR hazards will impact the coastal zone. We augment passive flood …

Aquatic vegetation in the coastal zone attenuates wave energy and reduces the risk of
coastal hazards, eg, flooding. Besides the attenuation of sea‐swell waves, vegetation may …

This paper presents an extension of the XBeach-G numerical model with a sediment
transport and morphology module, which includes the effect of groundwater ventilation and …

Coastal flooding prediction systems can be an efficient risk-reduction instrument. The goal of
this study was to design, build, test, and implement a wave-induced flooding early warning …

During the last decades, the spectral wave period T m-1, 0 has become accepted as a
characteristic wave period when describing the hydraulic attack on coastal structures …

The accurate prediction of extreme wave run-up is important for effective coastal
engineering design and coastal hazard management. While run-up processes on open …