A model for geographically distributed combat interactions of swarming naval and air forces

This article describes the Distributed Interaction Campaign Model (DICM), an exploratory campaign analysis tool and asset allocation decision‐aid for managing geographically distributed and swarming naval and air forces. The model is capable of fast operation, while accounting for uncertainty in an opponent's plan. It is intended for use by commanders and analysts who have limited time for model runs, or a finite budget. The model is purpose‐built for the Pentagon's Office of Net Assessment, and supports analysis of the following questions: What happens when swarms of geographically distributed naval and air forces engage each other and what are the key elements of the opponents’ force to attack? Are there changes to force structure that make a force more effective, and what impacts will disruptions in enemy command and control and wide‐area surveillance have? Which insights are to be gained by fast exploratory mathematical/computational campaign analysis to augment and replace expensive and time‐consuming simulations? An illustrative example of model use is described in a simple test scenario. © 2016 Wiley Periodicals, Inc. Naval Research Logistics 63: 562–576, 2016     

Analysis of artillery shoot‐and‐scoot tactics

Firing multiple artillery rounds from the same location has two main benefits: a high rate of fire at the enemy and improved accuracy as the shooter's aim adjusts to previous rounds. However, firing repeatedly from the same location carries significant risk that the enemy will detect the artillery's location. Therefore, the shooter may periodically move locations to avoid counter‐battery fire. This maneuver is known as the shoot‐and‐scoot tactic. This article analyzes the shoot‐and‐scoot tactic for a time‐critical mission using Markov models. We compute optimal move policies and develop heuristics for more complex and realistic settings. Spending a reasonable amount of time firing multiple shots from the same location is often preferable to moving immediately after firing an initial salvo. Moving frequently reduces risk to the artillery, but also limits the artillery's ability to inflict damage on the enemy.     

混合对策无人战机空战决策

在混合对策理论的基础上,将空战过程看作是由一系列离散的状态组成的离散事件动态系统,建立了空战过程的离散状态子模型,利用空战态势指数和战机空战能力指数构造了战术评估函数,以完成对战术动作的筛选工作,并结合3DOF质点模型设计了机动指令生成器,实现对无人机运动状态的控制,并在Matlab环境下对机动实例进行了仿真.     

空战飞机嵌入式训练系统的研究

空军正面对提高空战飞机训练效率的难题,嵌入式训练是解决这个问题的有效途径。结合现有研究技术和经验,研究了拥有高速无线网络和实时显控的嵌入式训练系统。可以使飞行员充分利用飞机内的原有设备进行训练,为飞行员提供了真实的操作、训练环境,同时指挥人员能够实时观察训练状况并做出科学的评估,具有突破性的训练效果。     

舰艇火控系统的现状与发展设想

通过对舰艇火控系统的技术现状和发展趋势的分析,提出了未来舰艇综合火控系统、舰艇编队协同火控系统和海上联合火控系统的发展设想。     

基于MAS技术的Multi-UCAV任务规划系统研究

基于MAS技术,提出用多Agent系统来实现多架无人战斗机协同攻击任务的多机任务规划系统,建立了系统的总体结构和单个Agent的结构,并给出一个基于意图识别的Multi-UCAV协作结构。利用多Agent的自主性和协作性,充分发挥单个UCAV的自主性。通过通信网络进行协同,共享信息,可提高任务规划系统的自主性和智能化水平。     

舰船作战系统仿真技术应用研究

阐述了系统仿真中涉及的新技术,介绍了仿真新技术在国内外舰船作战系统中的应用情况,分析了我国舰船仿真技术的发展现状及与国外的主要差距,提出了舰船作战系统仿真应用的建议。     

基于仿真的水面舰艇作战能力评价研究

水面舰艇作战能力评价研究目前多沿用静态分析的综合指数法,应用作战仿真可以对装备作战能力进行全面的动态分析.提出了基于作战想定和其仿真结果的评价体系,构建了水面舰艇作战仿真模型体系,并给出调用关系.介绍了以STAGE为平台进行作战仿真开发的用户模型开发和脚本开发方法,建立了基于仿真统计结果的作战能力计算模型.最后,以一组服役驱逐舰作战能力分析的仿真实例验证了评价方法,结果表明该评价方法是合理的.     

一种改进的系统效能评估方法及其应用

首先建立了在可靠性理论基础上的弹炮结合武器系统效能评估模型,并提出了对WSEIAC模型的改进方法.通过建立基于BP神经网络的武器系统作战能力向量的预测模型,克服了原先计算武器系统作战能力向量方法的局限性,提高了对武器系统作战效能评估的准确性和客观性.最后,将其运用到对弹炮结合武器系统效能评估中,仿真结果验证了该方法的可行性和有效性.     

潜艇作战模拟系统的体系结构

介绍了两种潜艇作战模拟系统的体系结构,对两种体系结构的实现方式进行了比较,并对采用ＤＩＳ体系结构开发潜艇作战模拟系统的有关问题进行了初步探讨。