IMPROVED DEEP LEARNING APPROACH IN WIND TURBINE DAMAGE DETECTION

P. Knap, P. Balazy
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Abstract

The growing number of wind farms is creating an increased demand for their trouble-free operation. Damage to their components can be catastrophic. A particular component that can be subject to damage during long-term operation and is difficult to diagnose is the mechanical gearbox located in the turbine. Traditional approaches to the subject of damage detection require, in the final stage, the involvement of an expert. Therefore, the article proposes a method based on the Deep Learning solution. A transfer learning method and a pre-trained Inception V3 network were used. A gearbox with in three states of healthy, worn out but still working and damaged was analyzed. Signal spectrograms were created from accelerometric measurements and then used as input for the neural network. Various approaches to creating spectrogram images were tested. The InceptionV3 network was taught on images generated in grayscale, and RGB and HSV. Channel reduction in the form of using grayscale improved the speed of the algorithm at the expense of precision. The use of HSV scale, on the other hand, made it more precise in detecting a worn out state.
改进的深度学习方法在风力发电机损伤检测中的应用
风力发电场的数量不断增加,对其无故障运行的需求也在不断增加。对其部件的损坏可能是灾难性的。一个特殊的部件,可能受到损害,在长期运行期间,是难以诊断的是机械齿轮箱位于涡轮机。传统的损伤检测方法在最后阶段需要专家的参与。因此,本文提出了一种基于深度学习的解决方案。使用迁移学习方法和预训练的Inception V3网络。对一种齿轮箱进行了健康、磨损但仍在工作和损坏三种状态的分析。信号谱图是由加速度测量产生的,然后用作神经网络的输入。测试了创建光谱图图像的各种方法。在灰度、RGB和HSV生成的图像上教授InceptionV3网络。采用灰度形式的信道缩减提高了算法的速度,但牺牲了精度。另一方面,HSV量表的使用使其在检测磨损状态时更加精确。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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