FNE-RTDETR: A lightweight end-to-end model for small-area tomato leaf disease detection and fine-grained
Abudukelimu Abulizi1, Junxiang Ye1, Mayilamu Musideke1
1Department of Information Management, Xinjiang University of Finance and Economics, Beijing Middle Road, Urumqi, 830012, Xinjiang Uygur Autonomous Region, China.
Summary
A new FNE-RTDETR model accurately detects tomato leaf diseases using a lightweight FasterNet backbone. This approach improves detection accuracy and efficiency, offering a practical solution for precision agriculture and crop management.
Area of Science:
- Plant Pathology
- Computer Vision
- Agricultural Technology
Background:
- Tomato cultivation is economically significant but vulnerable to environmental factors impacting yield and quality.
- Accurate and timely detection of tomato leaf diseases is crucial for maintaining crop production.
- Current disease detection methods are subjective, inefficient, and struggle with the balance between model lightness and accuracy.
Purpose of the Study:
- To introduce the FNE-RTDETR model for efficient and accurate tomato leaf disease detection.
- To address the challenge of achieving high recognition accuracy with lightweight models in natural environments.
- To improve feature extraction efficiency and fine-grained classification of various disease types.
Main Methods:
- Developed the FNE-RTDETR model by replacing the RT-DETR backbone with FasterNet and integrating lightweight PConv.
- Incorporated Deformable attention and AIFI modules to enhance fine-grained classification.
- Replaced the decoder's cross-attention mechanism with an efficient multi-channel attention mechanism for improved multi-scale feature fusion.
Main Results:
- FNE-RTDETR achieved an mAP50 of 91.5%, outperforming RT-DETR by 4.1%.
- The model reduced parameters by 14.7% and GFLOPs by 9% compared to RT-DETR.
- Demonstrated superior convergence speed, generalization ability, and lightweight performance across multiple datasets.
Conclusions:
- The FNE-RTDETR model offers a significant advancement in tomato leaf disease detection.
- It effectively balances lightweight design with high detection accuracy, outperforming existing models like YOLO variants and DETR.
- The model shows strong potential for practical application in precision agriculture for timely disease management.
