基于 YOLOv8-MRF 的自然环境中小麦分蘖检测研究

IF 7.1 Q1 AGRICULTURAL ENGINEERING Smart agricultural technology Pub Date : 2025-03-01 Epub Date: 2024-12-15 DOI:10.1016/j.atech.2024.100720
Min Liang , Yuchen Zhang , Jian Zhou , Fengcheng Shi , Zhiqiang Wang , Yu Lin , Liang Zhang , Yaxi Liu
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引用次数: 0

摘要

为了提高农业效率和精度,本研究引入了YOLOv8- mrf模型(多路径坐标注意,感受场注意卷积和focaler - ciou优化的YOLOv8),这是小麦分蘖自动化检测的突破性进展。该模型超越了传统手工方法的主观性和低效率。该方法在骨干网络中集成了增强的多路径坐标注意(MPCA)机制,捕获了多尺度特征,显著提高了分蘖的识别能力。CSPDarknet53以接受场注意卷积(RFCAConv)创新地取代了2级FPN (C2F)模块,解决了参数共享限制,强调了特征重要性,并放大了网络性能。再加上Focaler-CIoU损失带来的卓越检测精度,YOLOv8- mrf在mAP50中以惊人的幅度优于RTDETR, YOLOv5, YOLOv7和YOLOv8,而仅使用YOLOv7的11%参数,实现了91.7%的检测精度,精度提高2.5%,召回率提高5.5%,mAP50比原始模型提高4.1%。实验结果表明,该方法可以实现复杂背景下的分蘖检测,有助于推进小麦智能耕作实践。重要的是,YOLOv8-MRF模型不仅取得了重大的技术进步,而且在实际应用中显示出强大的潜力,为农业自动化和智能化提供了有效的工具,这可能成为未来精准农业技术发展的关键。
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Research on detection of wheat tillers in natural environment based on YOLOv8-MRF
To bolster agricultural efficiency and precision, this study introduces the YOLOv8-MRF model (multi-path coordinate attention, receptive field attention convolution, and Focaler-CIoU-optimized YOLOv8), a groundbreaking advancement in automated detection of wheat tillers. This model transcends traditional manual methods prone to subjectivity and inefficiency. This approach integrates an enhanced multi-path coordinate attention (MPCA) mechanism within the backbone network, capturing multi-scale features and significantly elevating tillers recognition. The innovative replacement of the CSPDarknet53 to 2-Stage FPN (C2F) module with receptive field attention convolution (RFCAConv) addresses parameter-sharing limitations, accentuating feature significance, and amplifying network performance. Coupled with the Focaler-CIoU loss for superior detection accuracy, YOLOv8-MRF outperforms RTDETR, YOLOv5, YOLOv7, and YOLOv8 by impressive margins in mAP50, while operating with merely 11 % of the parameters of YOLOv7, achieving a detection precision of 91.7 %, and with enhancements of 2.5 % in precision, 5.5 % in recall, and 4.1 % in mAP50 over the original model. The experimental results demonstrate that this method can realize tillering detection under complex backgrounds, contributing to advancing intelligent farming practices for wheat. Importantly, the YOLOv8-MRF model not only achieves significant technological advancements but also shows strong potential in practical applications, providing an effective tool for agricultural automation and intelligence, which could become pivotal in the development of future precision agriculture technologies.
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