Mission Support Capability Assessment of Early-warning Combat System-of-systems Based on Temporal Network Simulation and Contribution Rate

doi:10.12382/bgxb.2022.1038

Abstract

Abstract:

In response to the problems of capability errors in networked modelling, lack of dynamic characteristics of mission capabilities, and certain errors between assessment results and realistic effectiveness in the assessment of mission support capabilities of early-warning combat system-of-systems (EWCSOS), a method of assessing the mission support capability of EWCSOS based on temporal network simulation and contribution rate is presented. Firstly, based on the static network model of EWCSOS, it is extended to the temporal combat network, and the time-series path and temporal effectiveness loop are defined. Secondly, the mission requirements and capabilities are matched according to the mission hierarchical decomposition, and then the mapping relation between the temporal network and multi-Agent simulation is established to build a simulation framework which is close to actual operations. Finally, the mission support capability of different combat units in EWCSOS is calculated by using the idea of contribution ratio to analyze the mission support capability of early-warning combat system-of-systems based on simulation data and integrating the uncertain indicators represented by asymmetric Gaussian affiliation functions and precise indicators represented by statistical results with similarity weights. The experimental results indicate that the proposed method is efficient and close to the actual capability of the equipment, and can reduce the evaluation error with realistic results, which provides technical support for the system capability assessment and equipment requirement justification.

Key words: temporal network, temporal effectiveness loop, early-warning combat system-of-systems, Monte Carlo simulation, mission support capability

CLC Number:

E917

YU Jintao, XIAO Bing, CUI Yuzhu, QI Dong, YAN Tao. Mission Support Capability Assessment of Early-warning Combat System-of-systems Based on Temporal Network Simulation and Contribution Rate[J]. Acta Armamentarii, 2024, 45(4): 1237-1251.

Figures/Tables 20

References 24

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效能环	含义
T-O-P-D-A-T	标准的效能环
T-O-O-P-D-A-T	具有协同探测的效能环
T-O-P-P-D-A-T	具有信息交互的效能环
T-O-P-D-D-A-T	具有协同指控的效能环
T-O-O-P-P-D-A-T	具有协同探测和信息交互的效能环
T-O-O-P-D-D-A-T	具有协同探测和指控的效能环
T-O-O-P-P-D-D-A-T	具有协同探测、指控和信息交互的效能环

效能环	含义
T-O-P-D-A-T	标准的效能环
T-O-O-P-D-A-T	具有协同探测的效能环
T-O-P-P-D-A-T	具有信息交互的效能环
T-O-P-D-D-A-T	具有协同指控的效能环
T-O-O-P-P-D-A-T	具有协同探测和信息交互的效能环
T-O-O-P-D-D-A-T	具有协同探测和指控的效能环
T-O-O-P-P-D-D-A-T	具有协同探测、指控和信息交互的效能环

时序网络中的要素	基于多Agent的仿真模型
节点	Agent实体
时序边	Agent实体的关系
节点属性	Agent的能力
时序边属性	Agent的影响关系
网络演化规则	Agent的行为模型

时序网络中的要素	基于多Agent的仿真模型
节点	Agent实体
时序边	Agent实体的关系
节点属性	Agent的能力
时序边属性	Agent的影响关系
网络演化规则	Agent的行为模型

X国作战体系			Y国作战体系
类型	数量	说明	类型	数量	说明
航母	1		航母	1
驱逐舰	2		驱逐舰	3
护卫舰	3		护卫舰	4
潜艇	2	航母前后各1个	潜艇	2	航母前后各1个
预警机	1	舰载机	预警机	2	空中巡逻+引导打击
战斗机M_A	4	舰载机,攻击Y国航母编队	战斗机C_A	4	舰载机
战斗机M_B	4	舰载机,攻击Y国航母编队	战斗机C_B	4	舰载机
战斗机M_C	4	舰载机,攻击Y国航母编队	战斗机C_C	10	陆上起飞
常规导弹	5		轰炸机	1	陆上起飞,与2架C_C协同
卫星	若干	导航、通信、侦察卫星等	常规导弹	10	中远程打击和战略威慑
陆基指挥所	1		地空导弹	8×12	反导拦截
			卫星	若干	导航、通信、侦察卫星等
			陆基指挥中心	1
			陆基多功能雷达	1