YOLO-Citrus: a lightweight and efficient model for citrus leaf disease detection in complex agricultural environments
Wanmei Feng1, Junyu Liu1, Zhen Li1
1College of Electronic Engineering (College of Artificial Intelligence), South China Agricultural University, Guangzhou, China.
This study introduces YOLO-Citrus, a novel lightweight model for detecting citrus leaf diseases with high accuracy and efficiency. The model significantly reduces computational costs and size, making it ideal for practical agricultural applications.
Area of Science:
- Agricultural Science
- Computer Vision
- Machine Learning
Background:
- Citrus leaf disease detection is vital for global production quality and yield.
- Existing methods struggle with occlusion, small lesions, complex backgrounds, high computational costs, and large model sizes.
- These limitations hinder accurate and efficient object detection in agricultural settings.
Purpose of the Study:
- To develop a novel, lightweight, and efficient model for citrus leaf disease detection.
- To enhance detection precision while minimizing computational expenses and model size for practical agricultural use.
- To address limitations of existing methods in handling occlusion, small lesions, and complex backgrounds.
Main Methods:
- Introduction of the YOLO-Citrus model, a YOLOv11-based lightweight architecture.
- Incorporation of three key innovations: C3K2-STA module with Star-Triplet Attention, ADown module for downsampling, and Wise-Inner-MPDIoU loss function.
- Optimization focused on enhancing bottleneck performance, efficient downsampling, and improved bounding box regression.
Main Results:
- YOLO-Citrus achieved 96.6% mAP@0.5 (1.4% improvement over baseline) and 81.6% mAP@0.5:0.95 (1.3% improvement).
- Model size was reduced by 25.0% (from 19.2 MB to 14.4 MB).
- Computational cost decreased by 20.2% (from 21.3 GFlops to 17.0 GFlops), demonstrating significant efficiency gains.
Conclusions:
- YOLO-Citrus offers a highly accurate and efficient solution for citrus leaf disease detection.
- The model's reduced size and computational requirements make it suitable for real-world orchard deployment.
- Validated effectiveness in orchard conditions for early disease detection, precision treatment, and yield protection.
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