From detection to action: artificial intelligence in integrated pest and invasive plant management.

Yaoxing Li, Lianming Zha, Weitong Liu, Feng Luo, Chenyang Xu
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Abstract

Global agriculture faces growing threats from pests, pathogens, and invasive species, intensified by climate change and biodiversity losses. Conventional approaches are limited in both precision and scale, and artificial intelligence (AI) is now reshaping integrated pest management (IPM). Modern agricultural monitoring leverages high-resolution observations, hyperspectral sensors, and the Internet of Things (IoT) to facilitate early detection for diseases. Hybrid AI systems can integrate multi-source data to enhance the accuracy of real-time monitoring of pest and disease dynamics, including the detection and tracking of sparse invasive populations and their biomass even under shifting climate scenarios. They further enable predictive forecasting and the optimization of management strategies. When AI-driven diagnostics are integrated with autonomous robotics, they form a robust framework for epidemic mitigation. Here, we provide a systematic macro-perspective review, bridging foundational AI mechanisms with actionable IPM intelligence. We analyze the evolution of agricultural AI from cross-modal architectures to multi-scale diagnostics and full-lifecycle interventions. Finally, we propose a framework for the global agroecological network, offering a sustainable path toward maximizing productivity while ensuring ecological resilience.

从检测到行动:有害生物和入侵植物综合管理中的人工智能。
全球农业面临着害虫、病原体和入侵物种日益严重的威胁,气候变化和生物多样性丧失加剧了这些威胁。传统方法在精度和规模上都受到限制,人工智能(AI)正在重塑害虫综合治理(IPM)。现代农业监测利用高分辨率观测、高光谱传感器和物联网(IoT)来促进疾病的早期发现。混合人工智能系统可以整合多源数据,以提高病虫害动态实时监测的准确性,包括在不断变化的气候情景下检测和跟踪稀疏入侵种群及其生物量。它们进一步使预测预测和管理策略的优化成为可能。当人工智能驱动的诊断与自主机器人相结合时,它们就形成了一个强大的流行病缓解框架。在这里,我们提供了一个系统的宏观视角的回顾,连接基础的人工智能机制与可操作的IPM智能。我们分析了农业人工智能从跨模式架构到多尺度诊断和全生命周期干预的演变。最后,我们提出了一个全球农业生态网络框架,为实现生产力最大化提供了一条可持续的道路,同时确保了生态弹性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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