Unverified paper record
MDGL-DETR: An Efficient Method for Detecting Apple Leaf Diseases by Integrating Global and Local Features
4 Feb 2026 · 10.21203/rs.3.rs-8714923/v1
Abstract
Abstract To address challenges such as diverse apple leaf disease phenotypes, high background similarity, and complex natural environments, this study proposes an improved MDGL-DETR model based on RT-DETR, aiming to enhance both the accuracy and efficiency of apple leaf disease detection. First, a Multi-Scale Dilated Asymmetric structure combined with Channel Reduction Attention is designed to strengthen extraction capabilities for multi-scale and global features while reducing computational costs. Second, a Directional Shift Adaptive Context module is proposed, which utilizes shift convolution and SoftPool to dynamically focus on disease regions and suppress redundant background interference. Finally, a Global-Local Collaborative Fusion module is constructed to facilitate efficient interaction between local texture and global semantic information, thereby reinforcing feature representation capabilities. Experimental results indicate that the MDGL-DETR model achieves an mAP50 of 89.09%, an increase of 3.31% over the original RT-DETR, while reducing the computational load by 4.39%. Comprehensive evaluations show that the model outperforms other object detection models. The proposed MDGL-DETR provides a novel solution for the efficient detection of apple leaf diseases.
Plant phenotyping relevance
リンゴ葉の病害領域を画像から検出する深層学習モデルを開発し、検出精度と計算効率を比較評価しているため、植物病害状態のフェノタイピング手法が中心です。
abstractthis study proposes an improved MDGL-DETR model based on RT-DETR, aiming to enhance both the accuracy and efficiency of apple leaf disease detection.
abstractExperimental results indicate that the MDGL-DETR model achieves an mAP50 of 89.09%, an increase of 3.31% over the original RT-DETR, while reducing the computational load by 4.39%.
Code and data availability
The paper describes an apple leaf disease detection model (MDGL-DETR) built from the public FGVC8 Plant Pathology 2021 and AppleLeaf9 datasets, but provides no public deposit of its curated/annotated dataset, no code availability statement, no trained model release, and no supplement with data or analysis assets. The 5
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