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果园低空经济产业的现状与发展趋势

王学昌1, 徐文波1, 郑永军1,2(), 杨圣慧1,2(), 刘星星1,2, 苏道毕力格1,2, 王子蒙1,2   

  1. 1. 中国农业大学 工学院,北京 100083,中国
    2. 智能农业动力装备全国重点实验室/中国农业大学,北京 100083,中国
  • 收稿日期:2025-06-03 出版日期:2025-07-24
  • 基金项目:
    国家重点研发计划项目(2023YFD2000203); 国家自然科学基金(32372006); 中国博士后科学基金(2024T171010)
  • 作者简介:

    王学昌,博士研究生,研究方向为果园精准重建与自主导航。E-mail:

  • 通信作者:
    郑永军,博士,教授,研究方向为智能农业装备。E-mail:
    杨圣慧,博士,副教授,研究方向为智能农业装备。E-mail:

Current Status and Development Trend of the Low-Altitude Economy Industry in Orchards

WANG Xuechang1, XU Wenbo1, ZHENG Yongjun1,2(), YANG Shenghui1,2(), LIU Xingxing1,2, SU Daobilige1,2, WANG Zimeng1,2   

  1. 1. College of Engineering, China Agricultural University, Beijing 100083, China
    2. State Key Laboratory of Intelligent Agricultural Power Equipment/China Agricultural University, Beijing 100083, China
  • Received:2025-06-03 Online:2025-07-24
  • Foundation items:National Key R&D Program of China(2023YFD2000203); The National Natural Science Foundation of China(32372006); China Postdoctoral Science Foundation(2024T171010)
  • About author:

    WANG Xuechang, E-mail:

  • Corresponding author:
    ZHENG Yongjun, E-mail:
    YANG Shenghui, E-mail:

摘要:

【目的/意义】 果园低空经济是农业新质生产力的重要交叉发展方向之一,是推动果品行业全面高质量发展的新兴产业,主要依托装备制造环节集成、智慧农业技术融合、消费生态体系衍生,构建果园全周期生产、管理与服务产业链,推动果园低空全价值链的协同发展与产业生态闭环。 【进展】 本文立体化解构果园低空经济上游、中游和下游三个环节的应用与技术现状。其中,上游产业聚焦低空装备制造与基础设施建设;中游围绕果园“产前—产中—产后”作业环节,包括土壤属性检测、精准施药、产量估算和采摘运输等具体场景;下游产业围绕“人、机、险、旅”的消费生态网络,涵盖服务保障、装备租赁和果旅融合。 【结论/展望】 在总结当前果园低空经济发展现状与典型案例的基础上,本文进一步分析果园低空经济在实际应用推广中面临的装备适配性不足、基础设施未完善、服务标准未统一等技术与制度瓶颈,并提出其发展趋势,为果园低空经济的技术推广与产业升级提供参考。

关键词: 果园, 低空经济, 现状, 发展趋势, 低空飞行器, 无人机

Abstract:

[Significance] The low-altitude economy in orchards represents a key emerging direction in the integrated development of new quality productive forces in agriculture. As a burgeoning industry driving the high-quality development of the fruit sector, it relies on the integration of advanced equipment manufacturing, the application of smart agriculture technologies, and the expansion of consumer-centric ecosystems. Together, these elements contribute to building a full-cycle industrial chain encompassing orchard production, management, and services. This fosters the coordinated development of the entire low-altitude value chain and supports the formation of a closed-loop industrial ecosystem. This paper systematically reviews the key technological pathways and development trends of the orchard low-altitude economy across three dimensions: upstream equipment manufacturing, midstream operational processes, and downstream service systems. The aim is to provide strategic reference for technological innovation and industrial planning in related fields. [Progress] In the upstream segment, research and industrial development are increasingly focused on lightweight, multifunctional aerial platforms tailored to the complex terrain of mountainous orchards. By utilizing carbon fiber composites, high energy-density batteries, and hybrid power systems, these platforms achieve significant reductions in weight and improvements in flight endurance. The integration of Artificial Intelligence (AI) computing chips, Light Detection and Ranging(LiDAR), and multispectral sensors equips drones with advanced capabilities for precise fruit tree recognition, obstacle avoidance in complex landscapes, and multimodal environmental perception. With centimeter-level Real-time kinematic(RTK) positioning and multi-sensor fusion flight control algorithms, operational safety and autonomy have been greatly enhanced. Furthermore, low-altitude infrastructure, such as distributed takeoff and landing points and mobile battery-swapping stations, based on integrated 5G-A and BeiDou navigation communication systems, is being systematically deployed. This provides strong support for continuous unmanned operations in hilly and mountainous orchards. In the upstream segment, current research and industrial development efforts are centered on lightweight, multi-functional aerial platforms designed to operate in the complex terrain of mountainous orchards. By incorporating carbon fiber composite materials, high energy-density batteries, and hybrid power systems, these platforms achieve significant reductions in overall weight while enhancing flight endurance. The integration of AI processing chips, LiDAR, and multispectral sensors enables drones to perform precise fruit tree identification, navigate complex topographies, and perceive the environment through multimodal sensing. Coupled with centimeter-level RTK positioning and advanced multi-sensor fusion flight control algorithms, the safety and autonomy of aerial operations have been significantly improved. In addition, the deployment of low-altitude infrastructure, such as distributed takeoff and landing stations and mobile battery-swapping cabins, based on 5G-A and BeiDou-integrated communication systems, is rapidly taking shape. These developments provide robust support for continuous, unmanned operations across hilly and mountainous orchard regions. At the downstream service level, the orchard low-altitude economy has evolved beyond single-equipment sales into a diversified service ecosystem. This emerging model centers on pilot training, drone insurance, equipment leasing, and the integration of orchard tourism, forming a new type of business landscape. On one hand, standardized pilot training programs and operational quality evaluation systems have enhanced both talent development and safety assurance. On the other hand, risk control models developed by insurers based on operational data, along with "rent-to-own" financing schemes, have effectively lowered entry barriers for farmers. Moreover, the rise of integrated low-altitude agri-tourism models is steadily boosting the brand value of fruit products and generating new income streams through cultural and tourism-related activities. [Conclusions and Prospects] As a vital carrier of new quality productive forces in agriculture, the orchard low-altitude economy has established a comprehensive industrial chain encompassing equipment manufacturing, operational systems, and service platforms. This integrated structure is driving the transformation of orchard management toward greater intelligence, precision, and sustainability. Despite current challenges such as limited equipment endurance and underdeveloped service systems, the sector is expected to achieve continuous breakthroughs through the development of high-payload aerial platforms, the integration of data-driven operational systems, the construction of diversified service ecosystems, and the refinement of relevant policies and standards. With the gradual opening of low-altitude airspace and the rapid iteration of core technologies, the orchard low-altitude economy is poised to become a key driver of agricultural modernization and rural revitalization.

Key words: orchard, low-altitude economy, current situation, development trend, low-altitude flying vehicle, UAV

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