Floating offshore wind growth places the industry development close to commercial scale.
However, the harsh environment with strong winds, waves, and currents, together with the …

With the growing number of wind farms over the last few decades and the availability of
large datasets, research in wind-farm flow modeling—one of the key components in …

Yaw control is one of the most promising active wake control strategies to maximize the total
power generation of wind farms. Meanwhile, structural performance needs to be considered …

Wake interaction between floating offshore wind turbines (FOWTs) is complex and
necessitates a comprehensive assessment, which is a prerequisite for the yaw misalignment …

The wind farm layout optimization (WFLO) aims to maximize power generation of a wind
farm by optimizing the location of wind turbines. Traditional mathematical methods cannot …

The increase in global wind power installations has also increased the wind turbine density
in wind farms. This has made the wake interactions between neighbouring turbines more …

Due to the wake effect, there is a high degree of coupling between wind turbines in a wind
farm. In order to optimize the power and load performance of wind farms, it is crucial to …

The wind turbines that operate in the wake region of the upstream turbines produce less
power and may suffer serious structural issues due to highly unsteady flows, which can …

Small-scale horizontal-axis wind turbines (SHAWTs) are powerful equipments for wind
energy conversion. Furthermore, the wake vortices generated by SHAWTs are used in …

The presence of wake flows caused by wind turbines (WTs) diminish the expected power
generation of wind energy and exacerbate structural vibrations. To mitigate these issues …