利用动态综合作战能力指数筹划海战兵力需求

针对目前海军作战兵力需求问题,建立了海军作战的物理模型,并提出了用动态综合作战能力指数筹划海战兵力需求的数学模型和算法,采用战例统计法和专家打分法计算出战斗力系数.并且以航空兵空中争夺为例进行了因素分析、参数选取、效能计算并得出了明确结论.计算结果表明,采用动态综合作战能力指数作为海战兵力需求指标是可行的;信息作战能力在现代海战中具有极其重要的作用.     

基于非平面机动的弹炮对抗仿真

为探讨反舰导弹非平面机动对舰炮武器系统反导能力的影响,仿真计算了反导舰炮对末端作摆式机动和螺旋机动目标的命中概率,分别给出了不同机动周期、不同机动幅度、不同舰炮射速时的命中概率图线。结果表明,非平面机动无需大幅度机动就能很好抑制反导舰炮的反导能力;且螺旋机动突防效果更好;而舰炮射速对舰炮武器系统的反导能力至关重要。     

Swedish–Finnish naval cooperation in the Baltic Sea: motives,prospects and challenges

Recently, Finland and Sweden decided to substantially deepen their defence cooperation and this project involves creating a bilateral standing Naval Task Group (SFNTG). The present article aims at examining the deepening naval cooperation between Finland and Sweden from a regional integration perspective, focusing on its motives, current challenges and future prospects. Driven by perceptions of common challenges and desires for cost-effectiveness, and strengthened by recent successes on sea surveillance and a combined Amphibious Task Unit, the bilateral project has considerable potential to achieve success. To fulfil its objectives, substantial legal changes in both countries are required to allow the use of force on each other’s territorial waters. To cater for the requirement of not conflicting with EU, NORDEFCO or NATO cooperations, the bilateral Task Group must operate according to NATO standards and by using English as the language in command and control. The costs of adjusting the naval units to NATO’s technical requirements are far from negligible and this issue still remains to be solved. If Finland and Sweden manage to incorporate new policies, common structures and common organisational norms among their navies, an even deeper integration, as in Belgium and the Netherlands, are conceivable.     

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     

海军水面舰艇作战指数计算

水面舰艇的作战指数是反映其综合作战能力的效能指标 ,由于传统的作战指数计算方法在实际应用中操作难度较大 ,提出了一种由已知作战指挥推算待求作战指数的较为简便的新方法 ,即采用层次分析法确立水面舰艇作战能力的因素集和权重集 ,运用拓展的灰色关联法求得所选水面舰艇的灰色关联度 ,利用已知的作战指数和所求的关联度通过数值分析建立两者的函数关系 ,由此推算出待求的作战指数。     

潜射反舰导弹武器系统作战效能指标体系设计初探

根据潜射反舰导弹武器系统作战使用情况,在借鉴ＷＳＥＩＡＣ系统效能分析方法基础上,结合作战运用效能分析方法,初步探讨了该武器系统作战效能指标体系的设计过程。     

‘Immediate redress’: USS Potomac and the pirates of Quallah Batoo

Maritime interests in the twenty-first century are not immune to the growing number of irregular challenges and hybrid threats that have come to dominate land warfare. In order to better understand these challenges a study of naval history can help provide a vital foundation. In the early 1830s the United States Navy dispatched the frigate USS Potomac to Sumatra to investigate a pirate attack on the spice trader Friendship. Potomac's crew of sailors and Marines conducted a landing at the village Quallah Batoo and fought a pitched battle. As the navies of the world approach naval irregular warfare in the new century, studying past examples like Potomac's mission can help illuminate the principles of successful naval irregular warfare.     

舰艇编队舰机协同反潜警戒模型研究

反潜作战是联合机动编队的主要作战任务之一, 舰机协同反潜研究有着十分广阔的应用前景。根据舰机协同反潜行动的特点,给出了联合机动编队警戒范围的数学模型,以直升机吊放声纳和舰艇拖曳声纳为主要因素,重点研究联合机动编队及其舰载反潜直升机协同反潜作战过程中的建模与仿真问题,建立了单机和双机联合舰艇编队反潜模型。     

海上编队雷达网近程协同抗ARM方法与仿真

根据反辐射导弹（ARM）攻击时捕捉目标的局限性,提出了海上编队雷达网利用编队内各平台之间的间距优势来协同抗ARM的方法,建立了海上编队雷达网在近程距离内协同抗ARM的能力评估模型和对抗行为模型。其中,能力评估模型可以对海上编队雷达网抗ARM的能力进行评估。舰艇编队在面临ARM威胁时,通过对上述两个模型结合使用,可以对ARM实施有效诱偏。仿真试验结果表明,所建立模型具有一定的可行性和正确性。     

Scheduling combat logistics force replenishments at sea for the US Navy

The Replenishment at Sea Planner (RASP) is saving the U.S. Navy millions of dollars a year by reducing fuel consumption of its Combat Logistics Force (CLF). CLF shuttle supply ships deploy from ports to rendezvous with underway U.S. combatants and those of coalition partners. The overwhelming commodity transferred is fuel, ship‐to‐ship by hoses, while other important packaged goods and spare parts are high‐lined, or helicoptered between ships. The U.S. Navy is organized in large areas of responsibility called numbered fleets, and within each of these a scheduler must promulgate a daily forecast of CLF shuttle operations. The operational planning horizon extends out several weeks, or as far into the future as we can forecast demand. We solve RASP with integer linear optimization and a purpose‐built heuristic. RASP plans Replenishment‐at‐Sea (RAS) events with 4‐hour (Navy watch) time fidelity. For five years, RASP has served two purposes: (1) it helps schedulers generate a daily schedule and animates it using Google Earth, and (2) it automates reports command‐to‐ship messages that are essential to keep this complex logistics system operating.