Image processing with deep-learning and transfer learning for cutting tool degradation monitoring

Procedia CIRP Pub Date : 2025-01-01 Epub Date: 2025-02-28 DOI:10.1016/j.procir.2025.01.009
Lorenzo Colantonio , Lucas Equeter , Hugo Giovannelli , Pierre Dehombreux , Saïd Mahmoudi , François Ducobu
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Abstract

Monitoring the degradation of cutting tools is of utmost importance in the manufacturing world. Tools with substantial wear fail to produce high-quality parts in terms of geometry, residual stress, and surface finish. Furthermore, replacing tools in a non-optimal manner can lead to increased production costs and downtime. Therefore, monitoring the condition of the tool is essential to avoid these additional costs and ensure good production quality. This article explores various classification models, specifically VGG19, EfficientNetV2, and Vision Transformers. These models classify the state of tools using their images. Using transfer learning, a comparison of the best-performing artificial intelligence-based image analysis models is conducted to identify those most suitable for monitoring cutting tools. A comparative analysis of their generalizability, performance and explainability is realized. The model with the best performance is VGG19 with an accuracy of 94%, followed by EfficientNetV2 and ViT with an accuracy of 87%. A full comparison of these results is carried out.
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基于深度学习和迁移学习的刀具退化监测图像处理
在制造业中,监测刀具的退化是至关重要的。在几何形状、残余应力和表面光洁度方面,磨损严重的刀具无法生产出高质量的零件。此外,以非最佳方式更换工具可能会增加生产成本和停机时间。因此,监控刀具的状态对于避免这些额外的成本和确保良好的生产质量至关重要。本文探讨了各种分类模型,特别是VGG19、EfficientNetV2和Vision transformer。这些模型使用它们的图像对工具的状态进行分类。使用迁移学习,对表现最好的基于人工智能的图像分析模型进行比较,以确定最适合监控切割工具的模型。对它们的通用性、性能和可解释性进行了比较分析。性能最好的模型是VGG19,准确率为94%,其次是EfficientNetV2和ViT,准确率为87%。对这些结果进行了全面比较。
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