arXiv:2510.22743cs.CV2025-10被引 6

融合卷积与注意力机制,提升糖尿病足溃疡分类准确率。

ConMatFormer: A Multi-attention and Transformer Integrated ConvNext based Deep Learning Model for Enhanced Diabetic Foot Ulcer Classification

  • 结合ConvNeXt、CBAM、DANet与Transformer,协同提取局部与全局特征。
  • 单次实验准确率达89.61%,交叉验证准确率97.55%,标准差仅0.31%。
  • 支持可解释性分析,适合医疗影像分类研究与临床辅助诊断场景。

糖尿病足溃疡(DFU)检测因公开数据集稀缺且分布不均而具有临床挑战性。为此,本文提出ConMatFormer,一种融合ConvNeXt模块、多注意力机制(CBAM与DANet)及Transformer模块的混合深度学习架构,协同增强局部细节与全局上下文建模能力,可精准识别不同类型的微小皮肤病变。为缓解类别不平衡问题,采用数据增强策略。初始阶段使用ConvNeXt提取精细局部特征,随后引入Transformer模块强化长程依赖关系,有效识别少数类。在DS1(DFUC2021)与DS2(DFU)数据集上的测试表明,ConMatFormer在准确率、可靠性与灵活性上均优于现有SOTA的CNN与Vision Transformer模型。单次实验中达到准确率0.8961、精确率0.9160;4折交叉验证下准确率达0.9755,标准差仅为0.0031。此外,通过Grad-CAM、Grad-CAM++与LIME等可解释AI方法,持续保障决策过程的透明性与可信度。本研究为DFU分类设定新基准,并提供适用于医学图像分析的混合注意力-变压器框架。

原文摘要 · Abstract (English)

Diabetic foot ulcer (DFU) detection is a clinically significant yet challenging task due to the scarcity and variability of publicly available datasets. To solve these problems, we propose ConMatFormer, a new hybrid deep learning architecture that combines ConvNeXt blocks, multiple attention mechanisms convolutional block attention module (CBAM) and dual attention network (DANet), and transformer modules in a way that works together. This design facilitates the extraction of better local features and understanding of the global context, which allows us to model small skin patterns across different types of DFU very accurately. To address the class imbalance, we used data augmentation methods. A ConvNeXt block was used to obtain detailed local features in the initial stages. Subsequently, we compiled the model by adding a transformer module to enhance long-range dependency. This enabled us to pinpoint the DFU classes that were underrepresented or constituted minorities. Tests on the DS1 (DFUC2021) and DS2 (diabetic foot ulcer (DFU)) datasets showed that ConMatFormer outperformed state-of-the-art (SOTA) convolutional neural network (CNN) and Vision Transformer (ViT) models in terms of accuracy, reliability, and flexibility. The proposed method achieved an accuracy of 0.8961 and a precision of 0.9160 in a single experiment, which is a significant improvement over the current standards for classifying DFUs. In addition, by 4-fold cross-validation, the proposed model achieved an accuracy of 0.9755 with a standard deviation of only 0.0031. We further applied explainable artificial intelligence (XAI) methods, such as Grad-CAM, Grad-CAM++, and LIME, to consistently monitor the transparency and trustworthiness of the decision-making process.. Our findings set a new benchmark for DFU classification and provide a hybrid attention transformer framework for medical image analysis.

医学图像注意力机制分类模型可解释性

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