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Sediment, which collects in rivers and seas to secure a large amount of aggregate, reduces the supply of earth and sand to coasts. Dams and breakwaters constructed in various places also impede the transportation of earth and sand. Furthermore, the maintenance dredging of dam lakes and waterways will also disrupt the supply of sediment to coasts if the dredged sediment is not released back into the water system. Due to these development activities, coastal erosion has become a serious problem in many beaches around the world. Moreover, due to the excessive industrial activities of human beings, the exacerbation of natural disasters caused by global warming is becoming a real problem. In addition, because great earthquakes with a magnitude of 9 or more have occurred about three times per 100 years at boundaries of the Pacific Crust Plate and the Nazca Crust Plate since 1700, the possibility of losing many lives and assets in the Pacific coastal areas due to a huge tsunami caused by a great earthquake should not be underestimated. Therefore, research into the prevention and mitigation of coastal erosion and coastal disasters is becoming increasingly important. This Special Issue, “Coastal Morphology Assessment and Coastal Protection”, consists of five peer-reviewed papers, collected to contribute to the technological progress on the prevention of coastal erosion and coastal disaster resulting from large waves and tsunamis.
Technology: general issues --- coastal dunes --- barrier dynamics --- overwash --- coastal erosion --- dune cannibalization --- tsunami inundation simulation --- topography change due to a huge tsunami --- wall/pillar resistance against tsunami --- CSG dike --- cross-shore profile --- sediment transport rates --- semi-enclosed sea --- sandy coast --- dune development --- gravel barrier beaches --- storms --- XBeach --- morphodynamic change --- bimodal spectrum --- car and ship --- container --- driftwood --- impact force --- large tsunami --- tsunami driftage --- n/a
Choose an application
Sediment, which collects in rivers and seas to secure a large amount of aggregate, reduces the supply of earth and sand to coasts. Dams and breakwaters constructed in various places also impede the transportation of earth and sand. Furthermore, the maintenance dredging of dam lakes and waterways will also disrupt the supply of sediment to coasts if the dredged sediment is not released back into the water system. Due to these development activities, coastal erosion has become a serious problem in many beaches around the world. Moreover, due to the excessive industrial activities of human beings, the exacerbation of natural disasters caused by global warming is becoming a real problem. In addition, because great earthquakes with a magnitude of 9 or more have occurred about three times per 100 years at boundaries of the Pacific Crust Plate and the Nazca Crust Plate since 1700, the possibility of losing many lives and assets in the Pacific coastal areas due to a huge tsunami caused by a great earthquake should not be underestimated. Therefore, research into the prevention and mitigation of coastal erosion and coastal disasters is becoming increasingly important. This Special Issue, “Coastal Morphology Assessment and Coastal Protection”, consists of five peer-reviewed papers, collected to contribute to the technological progress on the prevention of coastal erosion and coastal disaster resulting from large waves and tsunamis.
coastal dunes --- barrier dynamics --- overwash --- coastal erosion --- dune cannibalization --- tsunami inundation simulation --- topography change due to a huge tsunami --- wall/pillar resistance against tsunami --- CSG dike --- cross-shore profile --- sediment transport rates --- semi-enclosed sea --- sandy coast --- dune development --- gravel barrier beaches --- storms --- XBeach --- morphodynamic change --- bimodal spectrum --- car and ship --- container --- driftwood --- impact force --- large tsunami --- tsunami driftage --- n/a
Choose an application
Sediment, which collects in rivers and seas to secure a large amount of aggregate, reduces the supply of earth and sand to coasts. Dams and breakwaters constructed in various places also impede the transportation of earth and sand. Furthermore, the maintenance dredging of dam lakes and waterways will also disrupt the supply of sediment to coasts if the dredged sediment is not released back into the water system. Due to these development activities, coastal erosion has become a serious problem in many beaches around the world. Moreover, due to the excessive industrial activities of human beings, the exacerbation of natural disasters caused by global warming is becoming a real problem. In addition, because great earthquakes with a magnitude of 9 or more have occurred about three times per 100 years at boundaries of the Pacific Crust Plate and the Nazca Crust Plate since 1700, the possibility of losing many lives and assets in the Pacific coastal areas due to a huge tsunami caused by a great earthquake should not be underestimated. Therefore, research into the prevention and mitigation of coastal erosion and coastal disasters is becoming increasingly important. This Special Issue, “Coastal Morphology Assessment and Coastal Protection”, consists of five peer-reviewed papers, collected to contribute to the technological progress on the prevention of coastal erosion and coastal disaster resulting from large waves and tsunamis.
Technology: general issues --- coastal dunes --- barrier dynamics --- overwash --- coastal erosion --- dune cannibalization --- tsunami inundation simulation --- topography change due to a huge tsunami --- wall/pillar resistance against tsunami --- CSG dike --- cross-shore profile --- sediment transport rates --- semi-enclosed sea --- sandy coast --- dune development --- gravel barrier beaches --- storms --- XBeach --- morphodynamic change --- bimodal spectrum --- car and ship --- container --- driftwood --- impact force --- large tsunami --- tsunami driftage
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Storm tides, surges, and waves associated with typhoons/tropical cyclones/hurricanes are the most severe threats to coastal zones, nearshore waters, and navigational safety. Therefore, predicting typhoon/tropical cyclone/hurricane-induced storm tides, surges, waves, and coastal erosion is essential for reducing the loss of human life and property and mitigating coastal disasters. There is still a growing demand for novel techniques that could be adopted to resolve the complex physical processes of storm tides, surges, waves, and coastal erosion, even if many studies on the hindcasting/prediction/forecasting of typhoon-driven storm tides, surges, waves, and also morphology evolution have been carried out through numerical models in the last decade. This Special Issue intends to collect the latest studies on storm tide, surge, and wave modeling and analysis utilizing dynamic and statistical models and artificial intelligence approaches to improve our simulating and analytic capabilities and our understanding of storm tides, surges, and waves. Five high-quality papers have been accepted for publication in this Special Issue; these papers cover the application and development of many high-end techniques for storm tides, surges, waves, and on-site investigation of coastal erosion and accretion.
Technology: general issues --- History of engineering & technology --- typhoon wave --- sea surface temperature --- WAVEWATCH-III --- sbPOM --- depth-induced wave breaking --- wave-breaking formulation --- wave-breaking criterion --- shallow nearshore waters --- three-dimensional Bragg resonance --- regular waves --- random waves --- high-order spectral (HOS) method --- Gaussian spectrum --- V-shaped undulating bottom --- multivariate extreme value --- coastal modeling --- SWAN --- SWASH-2DH --- Corsica --- return level --- total water level --- erosion and accretion --- cross-shore profile evolution --- Lanyang River estuary --- limit of estuarine sediment transport --- northeastern coastal waters of Taiwan --- n/a
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Storm tides, surges, and waves associated with typhoons/tropical cyclones/hurricanes are the most severe threats to coastal zones, nearshore waters, and navigational safety. Therefore, predicting typhoon/tropical cyclone/hurricane-induced storm tides, surges, waves, and coastal erosion is essential for reducing the loss of human life and property and mitigating coastal disasters. There is still a growing demand for novel techniques that could be adopted to resolve the complex physical processes of storm tides, surges, waves, and coastal erosion, even if many studies on the hindcasting/prediction/forecasting of typhoon-driven storm tides, surges, waves, and also morphology evolution have been carried out through numerical models in the last decade. This Special Issue intends to collect the latest studies on storm tide, surge, and wave modeling and analysis utilizing dynamic and statistical models and artificial intelligence approaches to improve our simulating and analytic capabilities and our understanding of storm tides, surges, and waves. Five high-quality papers have been accepted for publication in this Special Issue; these papers cover the application and development of many high-end techniques for storm tides, surges, waves, and on-site investigation of coastal erosion and accretion.
typhoon wave --- sea surface temperature --- WAVEWATCH-III --- sbPOM --- depth-induced wave breaking --- wave-breaking formulation --- wave-breaking criterion --- shallow nearshore waters --- three-dimensional Bragg resonance --- regular waves --- random waves --- high-order spectral (HOS) method --- Gaussian spectrum --- V-shaped undulating bottom --- multivariate extreme value --- coastal modeling --- SWAN --- SWASH-2DH --- Corsica --- return level --- total water level --- erosion and accretion --- cross-shore profile evolution --- Lanyang River estuary --- limit of estuarine sediment transport --- northeastern coastal waters of Taiwan --- n/a
Choose an application
Storm tides, surges, and waves associated with typhoons/tropical cyclones/hurricanes are the most severe threats to coastal zones, nearshore waters, and navigational safety. Therefore, predicting typhoon/tropical cyclone/hurricane-induced storm tides, surges, waves, and coastal erosion is essential for reducing the loss of human life and property and mitigating coastal disasters. There is still a growing demand for novel techniques that could be adopted to resolve the complex physical processes of storm tides, surges, waves, and coastal erosion, even if many studies on the hindcasting/prediction/forecasting of typhoon-driven storm tides, surges, waves, and also morphology evolution have been carried out through numerical models in the last decade. This Special Issue intends to collect the latest studies on storm tide, surge, and wave modeling and analysis utilizing dynamic and statistical models and artificial intelligence approaches to improve our simulating and analytic capabilities and our understanding of storm tides, surges, and waves. Five high-quality papers have been accepted for publication in this Special Issue; these papers cover the application and development of many high-end techniques for storm tides, surges, waves, and on-site investigation of coastal erosion and accretion.
Technology: general issues --- History of engineering & technology --- typhoon wave --- sea surface temperature --- WAVEWATCH-III --- sbPOM --- depth-induced wave breaking --- wave-breaking formulation --- wave-breaking criterion --- shallow nearshore waters --- three-dimensional Bragg resonance --- regular waves --- random waves --- high-order spectral (HOS) method --- Gaussian spectrum --- V-shaped undulating bottom --- multivariate extreme value --- coastal modeling --- SWAN --- SWASH-2DH --- Corsica --- return level --- total water level --- erosion and accretion --- cross-shore profile evolution --- Lanyang River estuary --- limit of estuarine sediment transport --- northeastern coastal waters of Taiwan
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