A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the performance of cross-flow hydrokinetic turbine, here is presented. The routine evaluate flow data obtained with the open-source marine circulation code SHYFEM. The tool can establish the best locations to place tidal devices taking into account bathymetric constraints and the hydrokinetic potential. Hence, it can be used to decide the best set of geometrical parameters. The geometrical variables of our analysis are turbine frontal area, aspect ratio and solidity. Several sub-models, validated with 3D and 2D CFD simulations, reproduce phenomena such as dynamic stall, fluid dynamic tips losses and the lateral deviation of streamlines approaching t...
The interest in hydrokinetic conversion systems has significantly grown over the last decade with a ...
Thesis (Master's)--University of Washington, 2012In the search for clean, renewable energy, the kine...
Thesis (Ph.D.)--University of Washington, 2014A hierarchy of numerical models, Single Rotating Refer...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A routine to predict the performance of cross-flow hydrokinetic turbines, based on the B...
A routine to predict the performance of cross-flow hydrokinetic turbines, based on the B...
A routine to predict the performance of cross-flow hydrokinetic turbines, based on the B...
A Double Multiple Stream Tube (DMST) routine to predict the performance of cross-flow hydrokinetic t...
A Double Multiple Stream Tube (DMST) routine to predict the performance of cross-flow hydrokinetic t...
A Double Multiple Stream Tube (DMST) routine to predict the performance of cross-flow hydrokinetic t...
The interest in hydrokinetic conversion systems has significantly grown over the last decade with a ...
Thesis (Master's)--University of Washington, 2012In the search for clean, renewable energy, the kine...
Thesis (Ph.D.)--University of Washington, 2014A hierarchy of numerical models, Single Rotating Refer...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A MATLAB routine, based on a Double Multiple Stream Tube model, developed to quickly predict the per...
A routine to predict the performance of cross-flow hydrokinetic turbines, based on the B...
A routine to predict the performance of cross-flow hydrokinetic turbines, based on the B...
A routine to predict the performance of cross-flow hydrokinetic turbines, based on the B...
A Double Multiple Stream Tube (DMST) routine to predict the performance of cross-flow hydrokinetic t...
A Double Multiple Stream Tube (DMST) routine to predict the performance of cross-flow hydrokinetic t...
A Double Multiple Stream Tube (DMST) routine to predict the performance of cross-flow hydrokinetic t...
The interest in hydrokinetic conversion systems has significantly grown over the last decade with a ...
Thesis (Master's)--University of Washington, 2012In the search for clean, renewable energy, the kine...
Thesis (Ph.D.)--University of Washington, 2014A hierarchy of numerical models, Single Rotating Refer...