©2020. American Geophysical Union. All Rights Reserved. Laboratory experiments explored the impact of vegetation patchiness on channel-averaged turbulence and sediment transport. Stems were clustered into 16 randomly distributed circular patches of decreasing diameter. For the same channel velocity, the sediment transport increased with total stem number but decreased as stems were clustered into smaller patch diameters, occupying a smaller fraction of the bed area. The channel-averaged turbulence, which also declined with increased clustering, was shown to be a good predictor for sediment transport at the channel scale. Previous models for uniform vegetation were adapted to predict both the channel-averaged turbulence and sediment transpor...
This laboratory study describes the spatial pattern of deposition observed in a patch of vegetation ...
River vegetation radically modifies the flow field and turbulence characteristics. To analyze the ve...
Vegetation altering hydrodynamic conditions of an open channel flow controls the exchanges of sedime...
The impacts of aquatic vegetation on bed load transport rate and bedform characteristics were quanti...
Vegetation provides habitat and nature-based solutions to coastal flooding and erosion, drawing sign...
Previous studies have shown that sediment transport models based on bed shear stress (τ) are not acc...
In a bare channel (without vegetation), the incipient velocity for sediment motion, U[subscript crit...
This laboratory study describes the sediment patterns formed in a sand bed around circular patches o...
Turbulent structures generated by vegetation patches play a dominant role in the dispersion of suspe...
The interaction between flow and vegetation creates feedbacks to deposition that vary with channel v...
The distribution of aquatic vegetation within conveyance channels plays a key role in the determinat...
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...
The uncertainty regarding the interpretation of sediment transport phenomena during the transients d...
Vegetation in channels strongly affects flow structure and turbulence, with consequences on the hydr...
This laboratory study describes the spatial pattern of deposition observed in a patch of vegetation ...
River vegetation radically modifies the flow field and turbulence characteristics. To analyze the ve...
Vegetation altering hydrodynamic conditions of an open channel flow controls the exchanges of sedime...
The impacts of aquatic vegetation on bed load transport rate and bedform characteristics were quanti...
Vegetation provides habitat and nature-based solutions to coastal flooding and erosion, drawing sign...
Previous studies have shown that sediment transport models based on bed shear stress (τ) are not acc...
In a bare channel (without vegetation), the incipient velocity for sediment motion, U[subscript crit...
This laboratory study describes the sediment patterns formed in a sand bed around circular patches o...
Turbulent structures generated by vegetation patches play a dominant role in the dispersion of suspe...
The interaction between flow and vegetation creates feedbacks to deposition that vary with channel v...
The distribution of aquatic vegetation within conveyance channels plays a key role in the determinat...
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...
The uncertainty regarding the interpretation of sediment transport phenomena during the transients d...
Vegetation in channels strongly affects flow structure and turbulence, with consequences on the hydr...
This laboratory study describes the spatial pattern of deposition observed in a patch of vegetation ...
River vegetation radically modifies the flow field and turbulence characteristics. To analyze the ve...
Vegetation altering hydrodynamic conditions of an open channel flow controls the exchanges of sedime...