Oct 2026· IEEE Transactions on Sustainable Energy· Vol 17, pp. 3228-3239· 2 citations· 37 references
Abstract
Grid-connected wind turbine generators (WTGs) may induce sub-synchronous oscillations (SSOs) in a power system. Due to the difficulty to gain the detailed parameters of the WTGs in practice, data-driven AI method is considered to be a potential solution to identify the trouble-making WTGs (or SSO sources) in the power system. Unlike the SSO mechanism observed in traditional power systems, numerous studies and real-world SSO events have indicated that the SSO mechanisms in wind power grid-connected systems can be more complex and varied. However, most AI-based works ignore the fact that the SSO can arise from different mechanisms. Typically, AI models are trained and evaluated using data generated from a single type of SSO mechanism. However, in practice, AI models may need to identify the sources of SSOs caused by different or even unknown mechanisms. This raises an interesting question: Are mechanisms important for AI to identify oscillation sources? This paper provides a preliminary exploration of this question through a specific case study that examines two general SSO mechanisms: negative resistance and open-loop modal resonance. Further explainability analysis is carried out to investigate whether the SSO mechanisms affect the performance of the AI models. Results of study cases and explainability analysis provide researchers and engineers with deeper insights into the generalization ability of AI with respect to SSO mechanisms.
Reliable operation of hydro turbine-generator units (HTGUs) is central to safe, flexible, and efficient hydropower generation. State-of-the-art approaches to condition monitoring, fault diagnosis, and early fault detection increasingly rely on artificial intelligence (AI)-driven methods. However, labeled fault data rem...
N. Miladinović, Filip Kilibarda, Uroš Radoman et al.· Applied Sciences· 1 citation
A robust Machine Learning (ML)-based framework for accurately locating electrical faults in wind farm collector networks and achieves the highest accuracy, with prediction errors not exceeding 2%.
Miguel R. Fonseca, M. Davi, M. Oleskovicz· IEEE Access· 0 citations
As wind turbines evolve toward larger capacities, fleet-level clustering, and operation under complex conditions, fault mechanisms in key drivetrain components show multi-physics coupling and complex evolution, creating a major bottleneck in condition monitoring: models are often constructible but hard to generalize. A...
Xue-Yi Li, Zi-Ge Wang, Wen-Yang Hu et al.· Intelligence & Robotics· 0 citations
The dataset is designed for training, fine-tuning, and benchmarking machine learning models by providing synchronized point-on-wave voltage and current measurements across a diverse set of topologies and voltage levels.
Georg Kordowich, Jonathan Loebel, Julian Oelhaf et al.· 2 citations· ⚡1
The increasing complexity of modern power systems, driven by high renewable penetration, load variability, and operational uncertainty, demands fast and reliable solutions to the AC optimal power flow problem (AC-OPF). Traditional optimization methods, though accurate, often struggle with scalability and high computati...
Bhuban Dhamala, J. Tabarez, Anup Pandey· 0 citations
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