一种用于SEAD任务的改进型Voronoi图

根据雷达所在位置构造Delaunay三角形,取它的外心作为Voronoi图的顶点,构造常规Voronoi图,使用随机搜索算法可以为无人战斗机规划安全路径。由于战场环境威胁各异,使用常规Voronoi图不再能表征真实的SEAD任务,增大了无人战斗机的威胁,本文提出了一种新的Voronoi图的改进方法,以提高无人战斗机在执行SEAD任务时的生存概率。首先,根据可能出现的各种情况进行了分析,提出了改进型Voronoi图的构图原则。然后,提出了在不同威胁体下,基于"Delaunay多边形"构造改进型Voronoi图的方法。最后,进行了仿真。仿真算例的结果验证此方法可以明显地提高无人战斗机的生存概率。     

Effective in battle: conceptualizing soldiers’ combat effectiveness*

How do we understand combat effectiveness – soldiers’ performance in battle? Despite the broad consensus that understanding combat effectiveness is important both for scholars and policymakers, there is widespread disagreement about what combat effectiveness is. More specifically, studies of effectiveness tend to focus on either the skill of soldiers in battle, or their will to fight. Yet both skill and will are essential components of an effective fighting force. This article argues that understanding combat effectiveness requires understanding both of these key components of effectiveness. In other words, combat effectiveness requires both the skill and will to engage the enemy in an organized manner. It then demonstrates the usefulness of this conceptualization by applying it to the cases of British, Indian, and Australian forces fighting the Japanese during the Second World War. Only when scholars are talking about the same concept will our understanding of the conditions under which militaries are effective in battle progress. By comparing different units fighting the same opponent under the same material conditions, I demonstrate that units vary both in their combat skill and their will to fight, and that understanding their effectiveness in battle requires analyzing both of these key factors.     

‘A Time of War’: contextual and organisational dimensions in the construction of combat motivation in the IDF

This paper explores the construction of combat motivation in the Israel Defense Forces (IDF), arguing that although Israeli society at large is in a ‘Post Heroic’ era, the ‘Heroic Spirit’ is revealed during emergencies. A total of 1535 questionnaires were administered among combat soldiers during large-scale operations fought during national emergency and during small-scale routine operations. The results reveal differences in the construction of combat motivation typical for emergency vs. routine, as well as for reserves vs. regular units. These results indicate that the Post Heroic era is a condition that could be shifted according to cultural, organisational and individual determinants. This paper discusses the roots of these constructions and their implications on the theory of combat motivation and combat experience.     

太空战及其对未来作战的影响

详细地叙述了太空战以及太空战对未来战争的影响。谁占据了太空,谁就能控制全球。太空战的出现将对未来的军事作战理论、武器装备的发展及技术走向产生深远的影响。     

In Search of the ‘X’ Factor: Morale and the Study of Strategy

A functional conceptualisation of morale is proposed, which focuses its meaning on motivation and the willingness to act rather than mood and group dynamics. Morale, it is argued, emerges from the subtle interrelationships of the many factors known to affect military means. It can be assessed both qualitatively and quantitatively, allowing the interaction between morale and policy to be explored in a manner that facilitates insight into the strategic process. A case study from the North African campaign of World War II is presented to explore in detail the relationship between morale and the art of war – strategy.     

底质对潜坐结构吸附力的试验研究

通过对圆底模型与方底模型的理论分析和试验研究,提出了对坐沉海底的两种形状结构体在离底时需要克服的底质吸附力的估算方法．通过建立理论分析模型,将底质种类对离底力的影响包括在估算公式内,从而可以对不同种类的底质对坐沉结构体的吸附力进行计算．     

编队舰空导弹对空拦截综合模型研究

以水面舰艇编队防空为背景,用数学分析法和计算机模拟法对编队防空中预警直升机的配置和探测模型、舰载雷达的探测模型、编队对空导弹的抗击方法、编队对目标的射击能力、转火能力、杀伤概率等问题进行了研究,建立了火力方程等有关数学模型,为定量分析和优化编队对目标的作战能力提供了依据。     

美国全球作战支持系统

美国的全球作战支持系统(GCSS)是 "武士C4I"的一个组成部分,它将人员、后勤、采办、医疗等支持功能集成到一个跨功能的环境中.GCSS将实现作战支持功能之间以及作战支持与指挥控制功能之间的端对端的信息互操作,为联合作战人员提供融合、实时的多维战场视图.主要介绍了全球作战支持系统的功能、系统组成及其未来作战能力.     

先进无人战斗机(UCAV)系统概念

先进无人战斗机系统是指正在发展和将要发展的无人战斗机系统。无人战斗机系统主要由携带武器的无人飞机、用于人工控制无人飞机的控制站和将系统连接起来保持与战术环境相联系的数据网络组成。在未来战争中,无人战斗机系统的主要作战使命是空防压制、纵深打击和"空中占领"。在研制过程中需要解决自主飞行、信息传输与处理等关键技术。     

多架无人机协同作战智能指挥控制系统

给出一种基于Agent技术的多架无人作战飞机协同控制系统的设计方法,该系统由几类Agent构成情报决策Agent、单机自主决策Agent、协同决策Agent等.由于利用了Agent的两大优良特性--自主性和协同性,系统能够控制多架无人作战飞机,各无人机对不断变化的战场环境也具有很高的适应性.