基于 IMU 的奶牛日常行为模式识别机器学习方法

IF 6.3 Q1 AGRICULTURAL ENGINEERING Smart agricultural technology Pub Date : 2024-08-18 DOI:10.1016/j.atech.2024.100539
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摘要

技术进步给畜牧业带来了革命性的变化,尤其是在健康监测方面。传统方法因主观性和治疗延误而饱受诟病,而高效的健康监测系统可取代传统方法,从而降低成本和工作量。实施奶牛行为识别可实现有效的奶牛健康监测。在这项研究中,我们提出了一种利用惯性测量单元(IMU)设备和机器学习技术进行奶牛行为识别的集成系统。我们研究了奶牛的六种主要行为:躺卧、站立、行走、饮水、采食和反刍。所有行为类型都是通过查看记录的片段手动标记到 IMU 数据中的。标注的 IMU 数据经过四个处理步骤:选择不同的窗口大小、特征提取、特征选择和归一化。这些经过处理的数据随后被用于建立行为识别模型。测试了各种模型结构,包括 SVM、随机森林和 XGBoost。表现最好的 XGBoost 模型利用其提出的 58 个特征达到了 0.87 的 F1 分数,其中躺卧的具体分数为 0.93,行走为 0.85,反刍为 0.94,进食为 0.89,站立为 0.86,喝水为 0.93,其他活动为 0.59。在在线测试中,我们观察到每头健康奶牛都有类似的模式。每种行为花费的累计时间也与之前调查的统计数据相吻合。此外,我们的后台优化方法使在线测试期间每天的最终总体百分比误差为 1.55%。总之,我们的研究提出了一种基于 IMU 的系统,能够准确识别奶牛的行为。本文提出了特征设计和适当的模型。引入的功能优化方法表明,我们的系统具有应用于发情检测和奶牛业其他繁殖管理实践的潜力。
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An IMU-based machine learning approach for daily behavior pattern recognition in dairy cows

Technological advancements have revolutionized livestock farming, notably in health monitoring. Traditional methods, which have been criticized for subjectivity and treatment delays, can be replaced with efficient health monitoring systems, thereby reducing costs and workload. Implementing cow behavior recognition allows for effective dairy cow health monitoring. In this research, we propose an integrated system using inertial measurement unit (IMU) devices and machine learning techniques for dairy cow behavior recognition. Six main dairy cow behaviors were studied: lying, standing, walking, drinking, feeding, and ruminating. All behavior types were manually labeled into the IMU data by reviewing the recorded footage. The labeled IMU data underwent four processing steps: selecting different window sizes, feature extraction, feature selection, and normalization. These processed data were then used to build the behavior recognition model. Various model structures, including SVM, Random Forest, and XGBoost, were tested. The top-performing model, XGBoost, with its proposed 58 features achieved an F1-score of 0.87, with specific scores of 0.93 for lying, 0.85 for walking, 0.94 for ruminating, 0.89 for feeding, 0.86 for standing, 0.93 for drinking, and 0.59 for other activities. During our online testing, we observed similar patterns for each healthy cow. The cumulative time spent on each behavior also matched the statistics from previous surveys. Additionally, our backend optimization approach resulted in a final overall percentage error of 1.55 % per day during online testing. In conclusion, our study presents an IMU-based system capable of accurately recognizing dairy cow behavior. Feature design and appropriate models are proposed herein. A functional optimization method was introduced indicating that our system has the potential with applications for estrus detection and other reproductive management practices in the dairy industry.

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