Digital Twin Model of Typical Equipment Support System of Army Synthetic Brigade

doi:10.3969/j.issn.1009-086x.2023.01.012

Abstract

Abstract:

As a new combat force， the army synthetic brigade has many types of equipment， high degree of integration， and complex support problems. It has higher and higher requirements for "accurate support" of equipment. The digital twin technology is introduced into the field of equipment support. Through the analysis of the research object， the connotation and extension of the research system are outlined， and the operation law of the system is mastered. By constructing the framework of digital twin model， the structure of the digital twin model is described from the five dimensions of physical dimension， twin dimension， data dimension， application dimension and connection dimension， the key technologies for the establishment of each dimension of the model are clarified， the application assumption of the model is explored， and finally the digital twin model of the typical equipment support system of the army synthetic brigade is constructed to solve the complex problems faced by the equipment support of the army synthetic brigade. It provides a method reference for the realization of the goal of "accurate support" of equipment.

Key words: digital twin, synthetic brigade, equipment support, data, simulation, forecast

摘要：

陆军合成旅作为陆军新型作战力量，其装备型号多、合成度高，保障问题复杂，对装备“精确保障”的要求越来越高。将数字孪生技术引入装备保障领域，通过对研究对象的分析，廓清研究系统的内涵和外延，掌握系统运行规律。通过构建数字孪生模型框架，从物理维、孪生维、数据维、应用维、连接维5个维度刻画数字孪生模型的结构，明确模型各维度建立的关键技术，探索模型的应用设想，最终构建陆军合成旅典型装备保障系统数字孪生模型，以解决陆军合成旅装备保障面临的复杂问题，为装备“精确保障”目标实现提供方法借鉴。

关键词: 数字孪生, 合成旅, 装备保障, 数据, 仿真, 预测

CLC Number:

TJ07

Shuai WANG, Yabin WANG, Jinguo WANG, Zhuo WANG, Jianmin ZHAO. Digital Twin Model of Typical Equipment Support System of Army Synthetic Brigade[J]. Modern Defense Technology, 2023, 51(1): 96-106.

王帅, 王亚彬, 王金帼, 王茁, 赵建民. 陆军合成旅典型装备保障系统数字孪生模型[J]. 现代防御技术, 2023, 51(1): 96-106.

Figures/Tables 11

Fig. 1 Equipment system of army synthetic brigade

Fig. 2 A self-propelled artillery equipment system

Fig. 3 Equipment maintenance demand judgment

Fig. 4 Schematic diagram of proportion of various maintenance requirements

Fig. 5 Maintenance support system of army synthetic brigade

Fig. 6 Maintenance decision process

Fig. 7 Equipment maintenance support framework based on digital twin

Fig. 8 Multi agent model of maintenance support system

Fig. 9 Logic model of typical equipment

Fig. 10 State model of replaceable unit

Fig. 11 Data of data dimension

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