Reducing ice formation on wind turbine rotor blades is mandatory to increase the economic viability of wind energy in cold regions. In our research, we propose a predictive anti
Muammer employed real-time vibration signals from wind turbines to indirectly obtain changes in wind turbine inertia parameters and, consequently, infer ice accretion mass
In this brief report we present the measurement results of a field campaign to quantify the ice accretion features over large turbine blades (50 m in length) and to assess the power losses to the utility-scale wind turbines
Ice on the surface of wind turbine blades may result in power production losses and unsafe operations. An effective technological solution to the ice issue is coating de-icing.
The location is along the Arctic seas'' coastline, where the average annual wind speed is 5 m/s. In these areas, problems with the operation of wind turbines are also common where wind gusts from storms bring not only rain but also snow.
The development and utilization of clean energy is becoming more extensive, and wind power generation is one of the key points of this. Occasionally, wind turbines are faced with various extreme environmental
72%, 94% and 19% of the wind turbines have the opportunity to encounter various icingevents in climateregionsof NorthAmerica, Europe, and Asia, respectively [3]. Wind turbine icing has
The research subject of this study is a 5 MW wind turbine blade located in Zhangdong Wind Farm, while the focus of analysis is the representative airfoil positioned at 70% wingspan distance
Ice accretion on wind turbine blades causes both a change in the shape of its sections and an increase in surface roughness. These lead to degraded aerodynamic performances and lower power output. Here, a high
The results of the above literature research show that icing problem is one of the important factors affecting the operation of wind turbine blades and wind turbines. Therefore, reasonable and feasible deicing
The results showed that the power loss after icing was mainly located at 0.8 along the spanwise direction of the blade, and the maximum power loss can reach 40%. Etemaddar et al. concluded through simulations that ice
Formation of ice on wind turbine blades creates unwanted performance losses by changing blade aerodynamic characteristics and also reduces the lifetime of wind turbine components. 1,2 It is
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