Turbulent kinetic energy transects across the width of the flume (y-axis) for: z = 10 cm for flexible (a) and rigid (b) canopy models, for z = 7 cm for flexible (c) and rigid (d) canopy models, and z = 5 cm for flexible (e) and rigid (f) canopy models. Horizontal dashed lines correspond to turbulent kinetic energies for the experiment without plants. Vertical dotted lines correspond to the y-position of the edge of the vegetation. Negative y values correspond to the region covered with plants.</p
In this flume experiment, we aimed to quantify the way in which salt marsh and mangrove vegetation e...
In contrast to free shear layers, which grow continuously downstream, shear layers generated by subm...
Physical modeling of canopy‐flow interactions has mostly employed rigid model vegetation, whereby th...
Wave velocity transects across the width of the flume (y-axis) for: z = 10 cm for flexible (a) and r...
a) αt transects across the width of the flume (y-axis) scaled as y/hv at z = 5 cm above the bottom a...
a) αt profiles at y = 0 cm for the full vegetation case carried out at SPF = 10% for both rigid (SRV...
Mean velocity transects across the width of the flume (y-axis) for: z = 10 cm for flexible (a) and r...
a) Scheme of the side view of the experimental setup. h represents the water height, hv the vegetati...
Canopy fragmentation increases both spatial heterogeneity and patch edges which, in turn, is then li...
a) Relationship between αt and the canopy cover for flexible vegetation (with a linear fit αt = -0.6...
Laboratory experiments measured the velocity inside a model meadow of submerged, flexible vegetation...
Oscillating-grid turbulence (OGT) in a homogeneous fluid has been widely investigated. In a recent p...
The aim of this study is to understand the turbulent flow structure within diverse canopy models dom...
The systematic creation of gaps within canopies results in fragmentation and the architecture of fra...
The systematic creation of gaps within canopies results in fragmentation and the architecture of fra...
In this flume experiment, we aimed to quantify the way in which salt marsh and mangrove vegetation e...
In contrast to free shear layers, which grow continuously downstream, shear layers generated by subm...
Physical modeling of canopy‐flow interactions has mostly employed rigid model vegetation, whereby th...
Wave velocity transects across the width of the flume (y-axis) for: z = 10 cm for flexible (a) and r...
a) αt transects across the width of the flume (y-axis) scaled as y/hv at z = 5 cm above the bottom a...
a) αt profiles at y = 0 cm for the full vegetation case carried out at SPF = 10% for both rigid (SRV...
Mean velocity transects across the width of the flume (y-axis) for: z = 10 cm for flexible (a) and r...
a) Scheme of the side view of the experimental setup. h represents the water height, hv the vegetati...
Canopy fragmentation increases both spatial heterogeneity and patch edges which, in turn, is then li...
a) Relationship between αt and the canopy cover for flexible vegetation (with a linear fit αt = -0.6...
Laboratory experiments measured the velocity inside a model meadow of submerged, flexible vegetation...
Oscillating-grid turbulence (OGT) in a homogeneous fluid has been widely investigated. In a recent p...
The aim of this study is to understand the turbulent flow structure within diverse canopy models dom...
The systematic creation of gaps within canopies results in fragmentation and the architecture of fra...
The systematic creation of gaps within canopies results in fragmentation and the architecture of fra...
In this flume experiment, we aimed to quantify the way in which salt marsh and mangrove vegetation e...
In contrast to free shear layers, which grow continuously downstream, shear layers generated by subm...
Physical modeling of canopy‐flow interactions has mostly employed rigid model vegetation, whereby th...