arXiv:2501.02080cs.CV2025-01被引 24

用AI提升复杂农场中奶牛的精准检测,解决光照、遮挡等实际难题。

AI-Powered Cow Detection in Complex Farm Environments

  • 融合YOLOv8与注意力模块CBAM,增强模型对复杂环境的适应性。
  • 在多场景数据集上实现82.6%的[email protected]:0.95和95.2%精度,较原版提升2.3%。
  • 适合智能牧场健康监测与行为分析,推动农业智能化落地。

动物福利已成为当代社会的重要议题,凸显我们对牲畜尤其是养殖业动物的伦理责任。人工智能技术,特别是计算机视觉,为监测和改善动物福利提供了创新路径。奶牛作为可持续农业的关键参与者,是这一努力的核心。然而,现有奶牛检测算法在真实农场环境中面临复杂光照、遮挡、姿态变化和背景干扰等挑战,影响检测效果。模型泛化能力对跨场景应用至关重要。本研究基于来自六个环境(含室内外)的多样化奶牛数据集,提出一种结合YOLOv8与卷积块注意力模块(CBAM)的检测模型,并与掩码R-CNN、YOLOv5及原始YOLOv8进行对比评估。结果表明,基线模型在复杂条件下性能下降,而本方法通过引入CBAM显著提升表现。YOLOv8-CBAM相比YOLOv8在mAP上提升2.3%,达到95.2%的精确率,[email protected]:0.95为82.6%,展现出更优的准确性。贡献包括:(1) 分析现有检测局限性,(2) 提出鲁棒性强的新模型,(3) 建立主流算法基准。应用场景涵盖健康监测、行为分析与追踪,可在挑战性环境下实现精确检测。本研究推进了基于AI的畜禽监控发展,助力动物福利与智慧农业提升。

原文摘要 · Abstract (English)

Animal welfare has become a critical issue in contemporary society, emphasizing our ethical responsibilities toward animals, particularly within livestock farming. The advent of Artificial Intelligence (AI) technologies, specifically computer vision, offers an innovative approach to monitoring and enhancing animal welfare. Cows, as essential contributors to sustainable agriculture, are central to this effort. However, existing cow detection algorithms face challenges in real-world farming environments, such as complex lighting, occlusions, pose variations, and background interference, hindering detection. Model generalization is crucial for adaptation across contexts beyond the training dataset. This study addresses these challenges using a diverse cow dataset from six environments, including indoor and outdoor scenarios. We propose a detection model combining YOLOv8 with the CBAM (Convolutional Block Attention Module) and assess its performance against baseline models, including Mask R-CNN, YOLOv5, and YOLOv8. Our findings show baseline models degrade in complex conditions, while our approach improves using CBAM. YOLOv8-CBAM outperformed YOLOv8 by 2.3% in mAP, achieving 95.2% precision and an [email protected]:0.95 of 82.6%, demonstrating superior accuracy. Contributions include (1) analyzing detection limitations, (2) proposing a robust model, and (3) benchmarking state-of-the-art algorithms. Applications include health monitoring, behavioral analysis, and tracking in smart farms, enabling precise detection in challenging settings. This study advances AI-driven livestock monitoring, improving animal welfare and smart agriculture.

AI检测智能农业目标检测

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