Variability in wind profiles in both space and time is responsible for fatigue loading in wind
turbine components. Advanced control methods for mitigating structural loading in these …

In wind energy operation and maintenance costs significantly contribute to the overall cost.
This paper proposes a novel adaptive lifetime control approach for wind turbines to reduce …

Wind energy takes an important role in the transformation of the global energy system
towards clean and sustainable sources. The main development of wind energy technology …

Dynamic fluctuations in the wind field to which a wind turbine (WT) is exposed to are
responsible for fatigue loads on its components. To reduce structural loads in WTs …

With the growth of wind energy worldwide, an increased interest in wind farm control has
become visible, with Active Power Control (APC) and Active Wake Control (AWC) being two …

This paper proposes a novel scheme for extending lifetime of a wind energy conversion
system (WECS) by integrating an online damage evaluation model into a control strategy for …

Wind energy is one of the most rapidly growing renewable sources of energy due to the fact
that it has little negative impact on environment. To meet the growing demand, wind turbines …

The capacity of installed wind turbines have been steadily growing. In 2015 alone, 63 GW
has been installed worldwide, which is 21% more capacity than what was installed in the …

As wind turbines become larger and hence more flexible, the design of advanced controllers
to mitigate fatigue damage and optimise power capture is becoming increasingly important …

Wind turbine components are subject to considerable fatigue because of extreme
environmental conditions to which they are exposed, especially those located offshore. Wind …