基于物理信息的神经网络模拟电力变压器中纤维素的降解

F. Bragone, Khaoula Oueslati, T. Laneryd, Michele Luvisotto, Kateryna Morozovska
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引用次数: 0

摘要

绝缘是电力变压器的重要组成部分,它保证了电力变压器高效可靠的运行寿命。它主要由矿物油和绝缘纸组成。电力变压器的主要故障大多源于内部绝缘故障。采用不同的技术对变压器绝缘纸的老化和热性能进行监测,其中考虑了聚合度(DP)来评估纤维素降解和矿物油中积累的其他化学因素。鉴于退化问题的物理和化学性质,我们将其与机器学习模型相结合,以预测所考虑方程的所需参数。特别是,所使用的方程应用了Arrhenius关系,该关系包括诸如指数前因子(取决于纤维素的污染含量)和活化能(与温度依赖性有关)等参数;我们的问题需要估计这两个因素。由于这个原因,物理信息神经网络(pinn)被考虑用于解决DP方程的数据驱动发现。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Physics-Informed Neural Networks for Modeling Cellulose Degradation in Power Transformers
Insulation is an essential part of power transformers, which guarantees an efficient and reliable operational life. It mainly consists of mineral oil and insulation paper. Most of the major failures of power transformers originate from internal insulation failures. Monitoring aging and thermal behaviour of the transformer’s insulation paper is achieved by different techniques, which consider the Degree of Polymerization (DP) to evaluate the cellulose degradation and other chemical factors accumulated in mineral oil. Given the physical and chemical nature of the problem of degradation, we couple it with machine learning models to predict the desired parameters for considered equations. In particular, the equation used applies the Arrhenius relation, which comprises parameters like the pre-exponential factor, which depends on the cellulose’s contamination content, and the activation energy, which is connected to the temperature dependence; both of the factors need to be estimated for our problem. For this reason, Physics-Informed Neural Networks (PINNs) are considered for solving the data-driven discovery of the DP equation.
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