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民用无人系统运行场景架构设计与建模技术

郭泰,  安一平,  舒振杰,  蒋觉义,  江雨航

郭泰,安一平,舒振杰,等. 民用无人系统运行场景架构设计与建模技术[J]. 北京航空航天大学学报,2026,52(9):3052-3065
引用本文: 郭泰,安一平,舒振杰,等. 民用无人系统运行场景架构设计与建模技术[J]. 北京航空航天大学学报,2026,52(9):3052-3065
Guo T,An Y P,Shu Z J,et al. Architecture design and modeling technology for civil unmanned system operation scenarios[J]. Journal of Beijing University of Aeronautics and Astronautics,2026,52(9):3052-3065 (in Chinese)
Citation: Guo T,An Y P,Shu Z J,et al. Architecture design and modeling technology for civil unmanned system operation scenarios[J]. Journal of Beijing University of Aeronautics and Astronautics,2026,52(9):3052-3065 (in Chinese)

民用无人系统运行场景架构设计与建模技术

doi: 10.13700/j.bh.1001-5965.2025.0361
详细信息
    通讯作者:

    E-mail:guotai101@126.com

  • 中图分类号: V279;F562

Architecture design and modeling technology for civil unmanned system operation scenarios

More Information
  • 摘要:

    民用无人系统运行场景是全空间无人体系及低空经济产业价值的汇聚地,是推动新产业规模化发展的关键,同时作为典型的复杂体系,具有边界动态、多级涌现、利益权衡、持续演化等特征,必须按照体系工程的新思维开展架构设计,确保体系安全、高效运行。通过对民用无人系统运行场景架构设计与建模技术研究,提出运行场景“6+6”静动态要素元模型,从能力架构、运行架构、系统架构、标准架构对运行场景进行多视角架构设计和建模,形成一套从要素识别、架构设计到架构建模的完整方法,从而为新型基础设施建设、无人系统研制及选型、政策法规和标准规范的制定提供指导,为无人系统运行场景的搭建和产业体系化发展提供技术支撑。

     

  • 图 1  无人系统运行场景要素元模型

    Figure 1.  Element meta-model of unmanned systems operational scenarios

    图 2  区域发展视角下运行场景框架

    Figure 2.  Framework of operational scenarios from perspective of regional development

    图 3  运行场景架构元模型

    Figure 3.  Architecture meta-model of operational scenarios

    图 4  无人系统运行场景能力架构

    Figure 4.  Capability architecture of unmanned systems operational scenarios

    图 5  无人系统运行场景运行架构

    Figure 5.  Operational architecture of unmanned systems operational scenarios

    图 6  无人系统运行场景系统架构

    Figure 6.  Systems architecture of unmanned systems operational scenarios

    图 7  无人系统运行场景标准架构

    Figure 7.  Standards architecture of unmanned systems operational scenarios

    图 8  架构建模技术路径

    Figure 8.  Technique path of architecture modelling

    图 9  体系的能力分解结构(CV-2)

    Figure 9.  Capability decomposition structure (CV-2)

    图 10  体系能力与运行活动关联(CV-6)

    Figure 10.  Traceability matrix of systems of systems capabilities and operational activities(CV-6)

    图 11  典型场景分解结构(OV-5a)

    Figure 11.  Typical scenario decomposition structure(OV-5a)

    图 12  通用的正常场景活动逻辑(OV-5b)

    Figure 12.  Generic normal scenario activity(OV-5b)

    图 13  无人配送场景活动逻辑(OV-5b)

    Figure 13.  Unmanned delivery scenario activity(OV-5b)

    图 14  无人配送场景详细行为描述(OV-6c)

    Figure 14.  Detailed behavioural description for unmanned delivery scenario(OV-6c)

    图 15  无人配送场景状态转移描述(OV-6b)

    Figure 15.  State transition description for unmanned delivery scenarios(OV-6b)

    图 16  基础设施接口SV-2模型

    Figure 16.  SV-2 model of infrastructure interface

    图 17  现有标准模型(StdV-1)

    Figure 17.  Existing standard models(StdV-1)

    图 18  针对特定对象的标准需求识别

    Figure 18.  Standard requirement identification for specific object

    图 19  标准预测模型(StdV-2)

    Figure 19.  Standards forecast models(StdV-2)

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出版历程
  • 收稿日期:  2025-06-14
  • 录用日期:  2025-10-04
  • 网络出版日期:  2025-11-28
  • 整期出版日期:  2026-09-01

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