基于强化学习的农业机器人技术:应用、挑战与未来方向OA
Reinforcement Learning-based Agricultural Robotics:Applications,Challenges,and Future Directions
随着人工智能技术的迅猛发展,强化学习(Reinforcement Learning,RL)因具备自主试错、序贯决策和环境自适应能力,正逐渐成为农业机器人从规则控制走向学习驱动的重要技术路径.本文围绕基于RL的农业机器人研究进展展开综述,首先介绍RL的基本概念、马尔可夫决策过程以及值函数、策略梯度和演员-评论家等主流算法类型;随后从自主导航与路径规划、单臂果蔬采摘、多臂协同采摘和田间处理等典型任务出发,系统梳理不同RL算法在农业场景中建模方式、训练环境、硬件平台和性能表现.综合已有研究可知,RL能在缺乏精确模型、环境动态变化和任务约束复杂条件下提升农业机器人的决策能力、路径优化能力和作业适应性,为精准农业与智能装备发展提供了新的方法支撑.然而,RL农业机器人仍面临仿真与现实迁移困难、非结构化地形适应性不足、安全性验证与可解释性不充分、多智能体协同机制尚不完善以及设备成本和运维压力较高等问题.未来研究需进一步融合数字孪生、农业物联网、多传感器感知、安全约束强化学习和模块化机器人平台,推动算法训练、实体部署和规模化应用之间形成闭环,构建高可靠、可扩展、低成本的农业智能作业系统,促进RL技术在大规模农田环境中实际落地.
With the rapid development of artificial intelligence,reinforcement learning(RL)has become an increasingly important technical route for transforming agricultural robots from rule-based control to learning-driven autonomy because of its capabilities in trial-and-error learning,sequential decision-making and environmental adaptation.It reviewed recent advances in RL-based agricultural robotics.It first introduced the basic concepts of RL,the Markov decision process,and representative algorithm families,including value-based methods,policy-gradient methods and actor-critic methods.It then summarized typical applications in autonomous navigation and path planning,single-arm fruit and vegetable harvesting,multi-arm collaborative harvesting and field operations,with particular attention to task modeling,training environments,hardware platforms and reported performance.Existing studies showed that RL can improve decision-making,trajectory optimization and operational adaptability under uncertain,dynamic and difficult-to-model agricultural conditions,thereby providing methodological support for precision agriculture and intelligent agricultural equipment.Nevertheless,practical deployment was still constrained by simulation-to-reality gaps,limited adaptability to unstructured terrain,insufficient safety verification and interpretability,immature multi-agent coordination mechanisms,and high equipment and maintenance costs.Future research should integrate digital twins,agricultural Internet of Things,multi-sensor perception,safe RL and modular robotic platforms to establish a closed loop among algorithm training,physical deployment and large-scale application,ultimately enabling reliable,scalable and cost-effective intelligent agricultural robotic systems in extensive farmland environments.
刘进一;李跃阳;赵映;张喜瑞;杜岳峰;毛恩荣
海南大学机电工程学院,海口 570228海南大学机电工程学院,海口 570228海南大学机电工程学院,海口 570228海南大学机电工程学院,海口 570228中国农业大学工学院,北京 100083中国农业大学工学院,北京 100083
农业科技
强化学习农业机器人数字孪生路径规划果蔬采摘
reinforcement learningagricultural robotdigital twinpath planningfruit and vegetable harvesting
《农业机械学报》 2026 (16)
1-19,19
海南省科技人才创新项目(KJRC2023D38)
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