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August 23, 2026Discover Computing0 citationsOpen Access

A novel attention-enhanced Swin Transformer for tire surface defect classification

ZSZhang ShanjiangJLJian LianRLRenjing Liu

Key Points

  • To develop an attention-enhanced Swin Transformer architecture that improves the precision and efficiency of automated tire surface defect classification.
  • Integrated a multi-scale convolutional attention module (MCAM) into the vanilla Swin Transformer to enhance feature representation in small defect areas.
  • Constructed a cross-scale feature fusion module (FFM) to merge low-level texture details with high-level semantic features.
  • Evaluated classification performance across three public benchmarks: TireNet Dataset, Tire Quality Inspection Dataset, and Tire Texture Image Recognition Dataset against ResNet50, EfficientNet-B4, and vanilla Swin Transformer.
  • Achieved average precision (AP) values of 97.8% on TireNet, 96.5% on Tire Quality Inspection, and 95.4% on Tire Texture Image Recognition datasets.
  • Demonstrated a 2.3% to 4.5% numerical improvement in AP relative to baseline architectures including ResNet50, EfficientNet-B4, and vanilla Swin Transformer.

Abstract

Tire surface defects are critical factors affecting driving safety, and traditional manual inspection methods suffer from low efficiency, strong subjectivity, and high missed detection rates. To alleviate these drawbacks, this study constructs an attention-enhanced Swin Transformer (AE-Swin Transformer) for automatic tire surface defect classification with acceptable precision. Firstly, a multi-scale convolutional attention module (MCAM) is embedded into the vanilla Swin Transformer to strengthen feature extraction capacity for tiny defect regions. Secondly, a cross-scale feature fusion module (FFM) is designed to aggregate low-level texture features and high-level semantic features, which helps distinguish defective areas from normal tire backgrounds. Validations are carried out on three public tire defect datasets, namely the TireNet Dataset, Tire Quality Inspection Dataset and Tire Texture Image Recognition Dataset. The proposed model reaches AP values of 97.8%, 96.5% and 95.4% on the three datasets respectively, which obtains 2.3–4.5% numerical improvements compared with several mainstream backbones including ResNet50, EfficientNet-B4 and the original Swin Transformer. The presented method can serve as an alternative solution for tire surface defect classification in automobile manufacturing, and possesses certain practical reference value for product quality control and driving risk reduction.

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Cite This Study

Shanjiang et al. (2026) studied this question.

synapsesocial.com/papers/6a8aad667677a34114445920https://doi.org/10.1007/s10791-026-10470-w
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