WeedsSORT: A weed tracking-by-detection framework for laser weeding applications within precision agriculture

• A weed-tracking dataset called WeedMOT is available. • A novel framework for the efficient detection and tracking of weeds is introduced. • A highly effective detection system that integrates attention mechanisms. • The enhanced feature alignment algorithm is integrated in motion estimation. • Integration of adaptive EKF within tracking and prediction algorithms. In precision agriculture, the application of artificial intelligence and high-power laser technology for weed control offers significant efficiency and accuracy advantages. However, it still encounters numerous challenges in the detection and tracking of weed targets. In terms of object detection, the variability in the size and specifications of weeds can result in the missed detection of smaller weed targets. Regarding tracking prediction, the similarity in weed shapes may result in reduced pose estimation accuracy, and the random motion of cameras within laser weeding systems further increases the risk of tracking failures. To address these challenges, this study introduces a spatial attention mechanism to enhance weed detection accuracy. It employs optimized multi-feature layer extraction and optimal feature matching algorithms to derive motion estimation results. Ultimately, an adaptive extended Kalman filtering algorithm is integrated to establish a weed tracking algorithm that correlates temporal and spatial information, ultimately achieving rapid and precise detection and tracking of weeds in laser weeding scenarios. The detection accuracy of the optimized algorithm was tested on both publicly available datasets and self-collected detection datasets, achieving a mean Average Precision (mAP) of 97.29% and 85.83%, respectively. Furthermore, tracking performance was evaluated using the LettuceMOT dataset and the self-collected WeedsMOT dataset, demonstrating improvements in Higher-Order Tracking Accuracy (HOTA) accuracy of 12.01% and 8.75% when compared to the ByteTrack and DeepOCSORT algorithms. The experimental findings substantiate the efficacy of the proposed weed detection and tracking algorithm, offering a valuable reference for the progression of laser weeding technology within precision agriculture.

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Publication Details

Journal
Smart Agricultural Technology
Published
2025-03-13
DOI
https://doi.org/10.1016/j.atech.2025.100883
Citations
7
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
12.25

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article

WeedsSORT: A weed tracking-by-detection framework for laser weeding applications within precision agriculture

Tao Jin, Yunde Zhao, Kun Liang, Yangrui Xu et al.
7 citations
Smart Agricultural Technology
Smart Agriculture and AI
12.25
article

WeedsSORT: A weed tracking-by-detection framework for laser weeding applications within precision agriculture

Tao Jin, Yunde Zhao, Kun Liang, Yangrui Xu, Maixin Lu
article en
7 citations

Abstract

• A weed-tracking dataset called WeedMOT is available. • A novel framework for the efficient detection and tracking of weeds is introduced. • A highly effective detection system that integrates attention mechanisms. • The enhanced feature alignment algorithm is integrated in motion estimation. • Integration of adaptive EKF within tracking and prediction algorithms. In precision agriculture, the application of artificial intelligence and high-power laser technology for weed control offers significant efficiency and accuracy advantages. However, it still encounters numerous challenges in the detection and tracking of weed targets. In terms of object detection, the variability in the size and specifications of weeds can result in the missed detection of smaller weed targets. Regarding tracking prediction, the similarity in weed shapes may result in reduced pose estimation accuracy, and the random motion of cameras within laser weeding systems further increases the risk of tracking failures. To address these challenges, this study introduces a spatial attention mechanism to enhance weed detection accuracy. It employs optimized multi-feature layer extraction and optimal feature matching algorithms to derive motion estimation results. Ultimately, an adaptive extended Kalman filtering algorithm is integrated to establish a weed tracking algorithm that correlates temporal and spatial information, ultimately achieving rapid and precise detection and tracking of weeds in laser weeding scenarios. The detection accuracy of the optimized algorithm was tested on both publicly available datasets and self-collected detection datasets, achieving a mean Average Precision (mAP) of 97.29% and 85.83%, respectively. Furthermore, tracking performance was evaluated using the LettuceMOT dataset and the self-collected WeedsMOT dataset, demonstrating improvements in Higher-Order Tracking Accuracy (HOTA) accuracy of 12.01% and 8.75% when compared to the ByteTrack and DeepOCSORT algorithms. The experimental findings substantiate the efficacy of the proposed weed detection and tracking algorithm, offering a valuable reference for the progression of laser weeding technology within precision agriculture.

Smart Agricultural TechnologyVol. 11
Huazhong University of Science and Technology (CN)
Science and Technology Department of Hubei Province
Zero hunger
Openalex Percentile: Top 2%
Smart Agriculture and AI
12.25
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