This work is dedicated to systematically studying and predicting the wake characteristics of a
yawed wind turbine immersed in a turbulent boundary layer. To achieve this goal, wind …

This work is dedicated to studying the similarity between wakes of wind turbines with
different yaw angles and tip speed ratios under different turbulent inflows using large-eddy …

A new analytical wake model for wind turbines, considering ambient turbulence intensity,
thrust coefficient and yaw angle effects, is proposed from numerical and analytical studies …

Motivated by the need for compact descriptions of the evolution of non-classical wakes
behind yawed wind turbines, we develop an analytical model to predict the shape of curled …

Yawing wind turbines has emerged as an appealing method for wake deflection. However,
the associated flow properties, including the magnitude of the transverse velocity associated …

The wake characteristics behind a yawed model wind turbine exposed to different
customized inflow conditions are investigated. Laser Doppler anemometry is used to …

A new two-dimensional (2D) wake model is developed and validated in this article to predict
the velocity and turbulence distribution in the wake of a wind turbine. Based on the classical …

Wind turbines operate in the surface layer of the atmospheric boundary layer, where they
are subjected to strong wind shear and relatively high turbulence levels. These incoming …

A new wake model for wind turbines considering ambient turbulence intensity and thrust
coefficient effects is proposed by numerical and analytical studies. Firstly, two kinds of …

A new analytical wake model is proposed and validated to predict the wind velocity
distribution downwind of a wind turbine. The model is derived by applying conservation of …