Vegetation provides habitat and nature-based solutions to coastal flooding and erosion, drawing significant interest in its restoration, which requires an understanding of sediment transport and retention. Laboratory experiments examined the influence of stem diameter and arrangement on bedload sediment transport by considering arrays of different stem diameter and mixed diameters. Bedload transport rate was observed to depend on turbulent kinetic energy, with no dependence on stem diameter, which was shown to be consistent with the impulse model for sediment entrainment. Existing predictors of bedload transport for bare beds, based on bed shear stress, were recast in terms of turbulence. The new turbulence-based model predicted sediment tr...
Vegetation in channels strongly affects flow structure and turbulence, with consequences on the hydr...
This paper summarizes recent advances in vegetation hydrodynamics and uses the new concepts to explo...
Saltmarsh vegetation significantly influences tidal currents and sediment deposition by decelerating...
The impacts of aquatic vegetation on bed load transport rate and bedform characteristics were quanti...
Previous studies have shown that sediment transport models based on bed shear stress (τ) are not acc...
©2020. American Geophysical Union. All Rights Reserved. Laboratory experiments explored the impact o...
Accelerated erosion endangers coastal wetlands along with their ecological services. Aquatic vegetat...
Laboratory experiments examined the impact of model vegetation on turbulence and resuspension. The t...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Civil and Environmental Enginee...
Numerical models of flow, sediment transport, and channel morphodynamics can be very useful tools in...
Virtually all mechanistic predictions of landscape evolution are underpinned by predictions of sedim...
Vegetation is a common feature in natural coastal and riverine waters, interacting with both water f...
In a bare channel (without vegetation), the incipient velocity for sediment motion, U[subscript crit...
The uncertainty regarding the interpretation of sediment transport phenomena during the transients d...
The prediction of bedload transport capacity in riverbed with aquatic vegetation is a pressing need ...
Vegetation in channels strongly affects flow structure and turbulence, with consequences on the hydr...
This paper summarizes recent advances in vegetation hydrodynamics and uses the new concepts to explo...
Saltmarsh vegetation significantly influences tidal currents and sediment deposition by decelerating...
The impacts of aquatic vegetation on bed load transport rate and bedform characteristics were quanti...
Previous studies have shown that sediment transport models based on bed shear stress (τ) are not acc...
©2020. American Geophysical Union. All Rights Reserved. Laboratory experiments explored the impact o...
Accelerated erosion endangers coastal wetlands along with their ecological services. Aquatic vegetat...
Laboratory experiments examined the impact of model vegetation on turbulence and resuspension. The t...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Civil and Environmental Enginee...
Numerical models of flow, sediment transport, and channel morphodynamics can be very useful tools in...
Virtually all mechanistic predictions of landscape evolution are underpinned by predictions of sedim...
Vegetation is a common feature in natural coastal and riverine waters, interacting with both water f...
In a bare channel (without vegetation), the incipient velocity for sediment motion, U[subscript crit...
The uncertainty regarding the interpretation of sediment transport phenomena during the transients d...
The prediction of bedload transport capacity in riverbed with aquatic vegetation is a pressing need ...
Vegetation in channels strongly affects flow structure and turbulence, with consequences on the hydr...
This paper summarizes recent advances in vegetation hydrodynamics and uses the new concepts to explo...
Saltmarsh vegetation significantly influences tidal currents and sediment deposition by decelerating...