基于迁移学习的稀疏数据集物理增强损伤分类

M. Todisco, Z. Mao
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引用次数: 0

摘要

高速率、高加速度的动态事件产生的数据特别有限和稀疏,主要有两个原因:高加速度加载可能破坏测试件,所需的实验室设备通常昂贵且操作复杂。在许多情况下,这些限制阻碍了研究人员收集额外的数据,从而推动了对利用小数据集的机器学习算法的需求。尽管深度学习倾向于数千或数百万个训练示例,但本工作中考虑的数据集仅包含6个独立示例。有限元分析软件模拟电子结构的动态响应,用额外的训练示例补充这个小数据集。混合深度学习模型首先学习模拟结构的动态响应,然后适应预测实际电子结构的损伤水平。这项工作表明,物理增强的迁移学习提高了结构损伤分类精度(p < 0.05 = 0.0879)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
PHYSICS-ENHANCED DAMAGE CLASSIFICATION OF SPARSE DATASETS USING TRANSFER LEARNING
High-rate, high-acceleration dynamic events produce especially limited and sparse data for two main reasons: high-acceleration loadings can destroy the test article, and the required laboratory equipment is typically expensive and complicated to operate. In many cases, these limitations prevent researchers from collecting additional data, driving the need for machine learning algorithms that utilize small datasets. Despite deep learning’s preference for thousands or millions of training examples, the dataset considered in this work contains only six independent examples. Finite element analysis software simulates the dynamic response of an electronic structure, supplementing this small dataset with additional training examples. A hybrid deep learning model first learns the dynamic response of the simulated structure and is then adapted to predict the actual electronic structure’s damage levels. This work shows that physics-enhanced transfer learning improves structural damage classification accuracy (𝑃 = 0.0879).
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