Prognostics Health Management (PHM) System for Power Transformer Using Kernel Extreme Learning Machine (K-ELM)

M. Abdillah, A. Krismanto, Teguh Aryo Nugroho, H. Setiadi, Nita Indriani Pertiwi, K. Mahmoud, M. D. Prasetio
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Abstract

A power transformer is one of the most important and valuable components for the power system network. This device is critical to ensure power quality and reliable electricity supply for consumers. When the power transformer could not work properly or out of service in unforeseen ways, it provides a severe impact on power system utilities and customers in term of the expensive of transformer's replacement cost and revenue lost caused by the electrical blackout. To overcome these issues, the proper prognostics health management (PHM) system as a tool for condition monitoring and health assessment of these valuable assets is required. This paper proposed a PHM system based on a kernel extreme learning machine (K-ELM) for power transformer's health assessment. Two sets of variable combinations called Set-1 and Set-2 were considered to examine the robustness and efficacy of the proposed method. In Set-1, the input variables were water content, total acidity, breakdown voltage, dissipation factor, dissolved combustible gases, and 2-furfuraldehyde. While the output of PHM system was the health condition which categorized as good, moderate, and bad circumstances. Set-2 utilized water content, total acidity, breakdown voltage, dissipation factor, and interfacial tension as input variables. Whereas, the PHM system outputs consisted of four categories: normal, good, moderate, and bad. The proposed method with two sets of variables had showed the satisfactory results for transformer's health condition assessment compared to an extreme learning machine (ELM), support vector machine (SVM), and least-square support vector machine (LS-SVM) in terms of learning and testing accuracies and computation time. The proposed PHM system using the Set-1 dataset could assess the transformer health as of 100% while in terms of the testing process, the proposed PHM system has an excellent accuracy result as of 68.67%. Furthermore, the proposed PHM system using the Set-2 dataset had successfully assessed the transformer health as of 100%. In the testing phase, the proposed PHM system model has a rigorous result for its accuracy result as of 93.61%.
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基于核极限学习机(K-ELM)的电力变压器预测健康管理系统
电力变压器是电力系统网络中最重要、最有价值的部件之一。该装置对于确保电能质量和为消费者提供可靠的电力供应至关重要。当电力变压器因不可预见的原因不能正常工作或停止服务时,电力系统的公用事业和用户将受到严重的影响,因为电力停电造成了昂贵的变压器更换成本和收入损失。为了克服这些问题,需要适当的预后健康管理(PHM)系统作为这些有价值资产的状态监测和健康评估工具。提出了一种基于核极值学习机(K-ELM)的电力变压器健康评估系统。考虑了两组称为Set-1和Set-2的变量组合来检验所提出方法的鲁棒性和有效性。在Set-1中,输入变量为含水量、总酸度、击穿电压、耗散系数、溶解可燃气体、2-糠醛。而PHM系统的输出是健康状况,分为良好、中等和不良情况。Set-2以含水量、总酸度、击穿电压、耗散系数、界面张力为输入变量。然而,PHM系统的输出包括四个类别:正常、良好、中等和不良。与极限学习机(ELM)、支持向量机(SVM)和最小二乘支持向量机(LS-SVM)相比,该方法在学习和测试精度以及计算时间方面取得了令人满意的结果。基于Set-1数据集的PHM系统对变压器健康状况的评估准确率为100%,而在测试过程中,该系统的评估准确率为68.67%。此外,使用Set-2数据集的PHM系统成功地将变压器健康状况评估为100%。在测试阶段,所提出的PHM系统模型的精度达到了93.61%。
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