Beihang University’s YANG Xinyue Pioneers Wind Turbine Data Cleaning Method

In the dynamic world of wind energy, the quest for efficiency and reliability is unending. Researchers are constantly seeking ways to optimize wind turbine performance, and a recent study from Beihang University in Beijing has shed new light on a critical aspect of this endeavor. Led by YANG Xinyue, the research focuses on eliminating abnormal power data from wind turbines, a problem that has long plagued the industry.

Wind turbines generate vast amounts of data through their Supervisory Control and Data Acquisition (SCADA) systems. This data is crucial for predicting power output, monitoring conditions, and diagnosing faults. However, the presence of abnormal data points, caused by factors such as wind abandonment, power limitation, and instrument failure, can significantly skew the accuracy of these predictions and diagnoses. “The accuracy and reliability of fitting results are paramount for the efficient operation of wind turbines,” YANG Xinyue explains. “Abnormal data can lead to misinterpretations and inefficiencies, which are costly for the energy sector.”

The research, published in ‘Diance yu yibiao’ (which translates to ‘Precision and Instrumentation’), introduces a novel method for eliminating these aberrant data points. The approach combines several advanced techniques: the quantile method, K-means clustering, an improved time series method, and the DBSCAN clustering method. By integrating these methods, the researchers have developed a robust system that can effectively identify and remove both discrete and centrally accumulated abnormal data points.

The study’s findings are compelling. When compared to traditional methods like the basic time series approach and the quantile method alone, the new combined method outperforms them significantly. This is a game-changer for the wind energy sector, as it promises more accurate power predictions and more reliable condition monitoring. “The proposed method is optimal and has a good effect on eliminating both the middle accumulation points and discrete points,” YANG Xinyue states, highlighting the method’s versatility and effectiveness.

The implications of this research are far-reaching. As wind energy continues to grow as a primary source of renewable power, the ability to accurately predict and monitor turbine performance will become increasingly important. This new method could lead to more efficient turbine operation, reduced maintenance costs, and ultimately, a more reliable and cost-effective energy supply. For the energy sector, this means not only improved operational efficiency but also a significant step towards achieving sustainability goals.

The research by YANG Xinyue and the team at Beihang University marks a significant advancement in the field of wind power generation. By addressing the issue of abnormal data elimination, they have paved the way for more accurate and reliable wind turbine operations. As the energy sector continues to evolve, innovations like this will be crucial in shaping the future of renewable energy.

Scroll to Top
×