基于DoDAF的智能网联装备体系任务−通信耦合结构建模与仿真验证

doi:10.12305/j.issn.1001-506X.2026.08.15

Abstract

Abstract:

Aiming at modeling and simulation verification problem of the coupling relationship between network communication and architecture in the intelligent networked equipment system of systems （INESoS）, the paper proposes a modeling and verification method of mission-communication coupling structure for INESoS based on the department of defense architecture framework （DoDAF）. The proposed method customizes DoDAF models based on the mission-communication coupling structure, and model validation is performed through the analysis of coupling measurement. Finally, a case study is conducted on the INESoS for manned/unmanned collaboration. The conclusion indicates that a higher coupling degree corresponds to an increased networking level of INESoS, reflecting a stronger interdependence between communication capability and mission capability. Furthermore, achieving effective networking in INESoS necessitates a more redundant communication topology and a greater number of communication unit devices to ensure the successful execution of its missions.

Key words: coupling structure modeling, department of defense architecture framework （DoDAF）, intelligent networked equipment system of systems, communication network

CLC Number:

TB 114.3

Yuheng DANG, Xing PAN, Lingze LIU. Mission-communication coupling structure modeling and simulation verification of intelligent networked equipment SoS based DoDAF[J]. Systems Engineering and Electronics, 2026, 48(8): 2669-2679.

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References 31

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指标项	初始体系结构指标结果	优化后体系结构指标结果
耦合度	0.103	0.119
控制指令−通信能力	0.761	0.780
起飞指令−通信能力	0.892	0.901
轨迹指令−通信能力	0.643	0.977
任务指令−通信能力	0.824	0.810
评估数据−通信能力	0.772	0.76
返航指令−通信能力	0.803	0.831
任务能力	0.640	0.790

体系结构	耦合度	任务能力
初始体系结构	0.103	0.640
优化后的体系结构	0.119	0.790
体系结构（增加评估数据通信业务冗余）	0.131	0.882
体系结构（增加控制指令通信业务冗余）	0.150	0.938

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Mission-communication coupling structure modeling and simulation verification of intelligent networked equipment SoS based DoDAF

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