4.1 Article

Research on a Classification Method for Strip Steel Surface Defects Based on Knowledge Distillation and a Self-Adaptive Residual Shrinkage Network

Journal

ALGORITHMS
Volume 16, Issue 11, Pages -

Publisher

MDPI
DOI: 10.3390/a16110516

Keywords

classification of strip steel defects; adaptive residual shrinkage network; relational knowledge distillation; Cycle GAN data enhancement; unbalanced data; image processing

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A new method for strip steel surface defect classification is proposed in this study, addressing the issues of imbalanced data and real-time classification present in existing methods. By introducing relational knowledge distillation and self-adaptive residual shrinkage network, the proposed method demonstrates excellent performance in improving model deployment efficiency and ensuring real-time performance of classification algorithms.
Different types of surface defects will occur during the production of strip steel. To ensure production quality, it is essential to classify these defects. Our research indicates that two main problems exist in the existing strip steel surface defect classification methods: (1) they cannot solve the problem of unbalanced data using few-shot in reality, (2) they cannot meet the requirement of online real-time classification. To solve the aforementioned problems, a relational knowledge distillation self-adaptive residual shrinkage network (RKD-SARSN) is presented in this work. First, the data enhancement strategy of Cycle GAN defective sample migration is designed. Second, the self-adaptive residual shrinkage network (SARSN) is intended as the backbone network for feature extraction. An adaptive loss function based on accuracy and geometric mean (Gmean) is proposed to solve the problem of unbalanced samples. Finally, a relational knowledge distillation model (RKD) is proposed, and the functions of GUI operation interface encapsulation are designed by combining image processing technology. SARSN is used as a teacher model, its generalization performance is transferred to the lightweight network ResNet34, and it is conveniently deployed as a student model. The results show that the proposed method can improve the deployment efficiency of the model and ensure the real-time performance of the classification algorithms. It is superior to other mainstream algorithms for fine-grained images with unbalanced data classification.

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