任务级优化:高度随机生命周期用例场景下的复杂系统设计

Brian Chell, Steven Hoffenson, Benjamin Kruse, M. Blackburn
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引用次数: 0

摘要

任务工程是一个不断发展的领域,有许多实际的机会和挑战。任务工程的目标是提高系统有效性,降低生命周期成本,并帮助与关键利益相关者沟通系统能力。根据任务环境优化系统设计对于实现这些目标非常重要。然而,系统优化通常使用多个关键性能指标(kpi)来完成,这些指标并不总是直接代表任务成功,也不容易转化为任务成功。本文介绍、激励并提出了一种执行任务级优化(MLO)的新方法,其目标是设计在系统生命周期内使任务成功概率最大化的系统。这建立在先前与任务工程、建模和分析以及不确定性下的优化相关的文献的基础上。MLO问题的独特之处在于其高水平的设计、操作和环境不确定性,以及代表任务成功或失败的单一二元目标。通过优化任务成功,设计师可以在决定最佳系统设计时考虑大量kpi和外部因素。
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Mission-Level Optimization: Complex Systems Design for Highly Stochastic Life Cycle Use Case Scenarios
Mission engineering is a growing field with many practical opportunities and challenges. The goal of mission engineering is to increase system effectiveness, reduce life cycle costs, and aid in communicating system capabilities to key stakeholders. Optimizing system designs for their mission context is important to achieving these goals. However, system optimization is generally done using multiple key performance indicators (KPIs), which are not always directly representative of, nor easily translatable to, mission success. This paper introduces, motivates, and proposes a new approach for performing mission-level optimization (MLO), where the objective is to design systems that maximize the probability of mission success over the system life cycle. This builds on previous literature related to mission engineering, modeling, and analysis, as well as optimization under uncertainty. MLO problems are unique in their high levels of design, operational, and environmental uncertainty, as well as the single binary objective representing mission success or failure. By optimizing for mission success, designers can account for large numbers of KPIs and external factors when determining the best possible system design.
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