arXiv:2606.02045cs.CVcs.AI2026-06

用注意力机制提升桃叶损伤分类模型在不同环境下的泛化能力

Attention mechanisms and transfer learning for robust peach leaf damage classification under domain shift

论文配图:Attention mechanisms and transfer learning for robust peach leaf damage classification under domain shift
图 1 · 摘自论文原文
  • 引入CBAM注意力模块增强EfficientNet等模型对关键特征的捕捉
  • 改进后模型在跨域场景下达到93%宏F1分数,少数类识别更稳定
  • 适合需要高鲁棒性的农业病虫害智能诊断场景使用

人工智能为基于图像的作物损伤评估提供了实用框架,支持农业管理中的早期决策。在桃园中,气候变化加剧了非生物胁迫和生物压力(如病虫害),常导致叶片症状视觉相似,人工诊断困难,尤其在不同田块间环境差异大时。为此,我们提出一种基于图像的桃叶损伤分类方法。构建了一个基准数据集,通过手动标注公开图像,包含1,366片桃叶,分为六类损伤。评估了多种深度学习架构,EfficientNetB0达到92.9%准确率,EfficientNetB3为91.5%,EfficientNetB5在少数类上表现最佳。DenseNet121达到92.6%准确率。引入卷积块注意力模块(CBAM)提升了多个主干网络性能,尤其在EfficientNetB5和InceptionV3上效果显著,而对其他模型影响有限或负面。增强后的EfficientNetB5取得最高总体准确率93.3%。为评估真实条件下的鲁棒性,收集了含4类损伤的180张本地图像,并采用迁移学习应对领域偏移。测试三种微调策略,其中结合CBAM的EfficientNetB3在本地域表现最优,迁移后宏F1达93%。总体而言,基于注意力的模型在少数类识别和跨场域泛化方面表现更优。

原文摘要 · Abstract (English)

Artificial intelligence provides a practical framework for crop damage assessment from imagery data, supporting early decision-making in agricultural management. In peach orchards, climate change increases abiotic stress and biotic pressures, including pests and diseases, which often produce visually similar foliar symptoms. This overlap makes manual diagnosis difficult, especially across multiple fields with varying environmental conditions, highlighting the need for automated models with strong generalization ability. We propose an image-based classification approach for peach leaf damage detection. A benchmark dataset was created through manual annotation of publicly available images, consisting of 1,366 peach leaves across six damage categories. Several deep learning architectures were evaluated. EfficientNet models achieved the best results, with EfficientNetB0 reaching 92.9 percent accuracy, EfficientNetB3 achieving 91.5 percent, and EfficientNetB5 showing the strongest performance on minority classes. DenseNet121 reached 92.6 percent accuracy. The integration of the Convolutional Block Attention Module (CBAM) improved performance in several backbones, particularly EfficientNetB5 and InceptionV3, while showing limited or negative impact in others. The CBAM-enhanced EfficientNetB5 achieved the best overall accuracy of 93.3 percent. To evaluate robustness under realistic conditions, a local dataset of 180 images across four classes was collected, and transfer learning strategies were applied to address domain shift. Three fine-tuning strategies were tested. EfficientNetB3 combined with CBAM achieved the best performance in the local domain, reaching a 93 percent macro F1-score after transfer. Overall, attention-based models showed improved robustness for minority classes and better generalization across different field conditions.

图像分类农业AI注意力机制迁移学习

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