Overcoming Extreme Sample Scarcity: Deep Learning-Based Real-Time Detection of Cattle Mounting Behavior From UAV Imagery and Video

IEEE Transactions on AgriFood Electronics Pub Date : 2026-09-01 Epub Date: 2026-06-24 DOI:10.1109/TAFE.2026.3699492
Jianglong Yan;Everton C. Tetila;Liang Zhao;Willian P. Amorim;Jayme G. A. Barbedo
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Abstract

Early detection of mounting behavior in feedlot cattle is essential for preventing injuries and reducing stress. However, manual observation is inefficient and covers only a limited area. To enable large-scale monitoring, we propose an automated detection system that employs a fine-tuned you only look once version 11 (YOLOv11) model on both uncrewed aerial vehicle (UAV) imagery and videos to identify mounting events in real time. A 112-day field experiment was conducted in Mato Grosso do Sul, Brazil, monitoring 110 Nellore cattle. Because this abnormal behavior is rare, the dataset exhibits extreme sample scarcity: from approximately 10 000 UAV images and 12 pieces of video, only 38 frames contained true mounting events. To address this challenge, we developed a hybrid dataset strategy that integrates real samples, augmented samples, and segment anything model-based synthetic data. With this approach, the model achieved good precision, recall, F1-score, and mean average precision (mAP)@0.5 on the small-scale test set, demonstrating strong generalization performance and confirming the feasibility of UAV-based monitoring for animal-welfare applications. The proposed technique showsx high potential for embedded UAV deployment, enabling autonomous and continuous surveillance in precision livestock systems.
克服极端样本稀缺性:基于深度学习的无人机图像和视频中牛骑行为的实时检测
早期发现饲养场牛的上马行为对于防止伤害和减轻压力至关重要。然而,人工观察是低效的,而且只能覆盖有限的区域。为了实现大规模监控,我们提出了一种自动检测系统,该系统在无人机(UAV)图像和视频上采用微调的“只看一次”版本11 (YOLOv11)模型,以实时识别安装事件。在巴西南马托格罗索州进行了一项为期112天的田间试验,监测了110头Nellore牛。由于这种异常行为很少见,数据集显示出极端的样本稀缺性:从大约10,000张无人机图像和12段视频中,只有38帧包含真正的安装事件。为了应对这一挑战,我们开发了一种混合数据集策略,该策略集成了真实样本、增强样本,并对任何基于模型的合成数据进行了分割。通过该方法,模型在小规模测试集上取得了良好的精度、召回率、f1得分和平均精度(mAP)@0.5,具有较强的泛化性能,证实了基于无人机的动物福利监测应用的可行性。所提出的技术显示出嵌入式无人机部署的巨大潜力,可以在精密牲畜系统中实现自主和连续监视。
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