可解释的机器学习损伤检测:在变温度条件下的碳纤维复合材料板

Christopher Schnur, J. Moll, Y. Lugovtsova, A. Schütze, T. Schneider
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引用次数: 1

摘要

了解机器学习模型如何解释数据是验证其可靠性和避免过拟合的关键一步。虽然目前科学界的重点是面向深度学习方法,这被认为是黑盒方法,但这项工作提出了一个工具箱,该工具箱基于特征提取和选择的互补方法,其中模型的分类决策是透明的,可以物理解释。以开放导波平台的导波基准数据为例,在不同温度条件下,在碳纤维增强塑料板的多个位置模拟分层缺陷,作者可以确定合适的频率,以进行进一步的研究和实验。此外,作者提出了一个现实的验证场景,以确保机器学习模型学习全局损伤特征,而不是特定位置的特征。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Explainable Machine Learning for Damage Detection: in Carbon Fiber Composite Plates Under Varying Temperature Conditions
Understanding on how a machine learning model interprets data is a crucial step to verify its reliability and avoid overfitting. While the focus of the scientific community is nowadays orientated towards deep learning approaches, which are considered as black box approaches, this work presents a toolbox that is based on complementary methods of feature extraction and selection, where the classification decisions of the model are transparent and can be physically interpreted. On the example of guided wave benchmark data from the open guided waves platform, where delamination defects were simulated at multiple positions on a carbon fiber reinforced plastic plate under varying temperature conditions, the authors could identify suitable frequencies for further investigations and experiments. Furthermore, the authors presented a realistic validation scenario which ensures that the machine learning model learns global damage characteristics rather than position specific characteristics.
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