This study presents a numerical analysis of the performance of a vertical axis wind turbine using computational fluid dynamics. The results show that the turbine's power coefficient is significantly affected by the tip speed ratio and the blade pitch angle.
This article discusses the optimization of vertical axis wind turbine performance using a genetic algorithm. The results show that the optimized turbine design can achieve a power coefficient of 0.45, which is higher than the conventional design.
This study presents a numerical investigation of the aerodynamics of a vertical axis wind turbine using large eddy simulation. The results show that the turbine's aerodynamic performance is significantly affected by the blade geometry and the rotor speed.
This report discusses the design and performance of vertical axis wind turbines. It provides an overview of the current state of the technology and discusses the challenges and opportunities for improving the performance of these turbines.
This study presents a CFD analysis of the performance of a vertical axis wind turbine. The results show that the turbine's power coefficient is significantly affected by the blade angle and the rotor speed.
This video presents a performance analysis of a vertical axis wind turbine using ANSYS. The results show that the turbine's power coefficient can be improved by optimizing the blade design and the rotor speed.
This study presents a numerical modeling of the performance of a vertical axis wind turbine using a computational fluid dynamics model. The results show that the turbine's aerodynamic performance is significantly affected by the blade geometry and the rotor speed.
This repository provides an OpenFOAM simulation of the performance of a vertical axis wind turbine. The results show that the turbine's power coefficient can be improved by optimizing the blade design and the rotor speed.