Optimization equips engineers and scientists in a variety of fields with the ability to transcribe their problems into a generic formulation and receive optimal solutions with relative ease. Industries ranging from aerospace to robotics continue to benefit from advancements in optimization theory and the associated algorithmic developments. Nowadays, optimization is used in real time on autonomous systems acting in safety critical situations, such as self-driving vehicles. It has become increasingly more important to produce robust solutions by incorporating uncertainty into optimization programs. This paper provides a short survey about the state of the art in optimization under uncertainty. The paper begins with a brief overview of the main classes of optimization without uncertainty. The rest of the paper focuses on the different methods for handling both aleatoric and epistemic uncertainty. Many of the applications discussed in this paper are within the domain of control. The goal of this survey paper is to briefly touch upon the state of the art in a variety of different methods and refer the reader to other literature for more in-depth treatments of the topics discussed here.
翻译:优化使工程师和科学家在各个领域都有能力将其问题转换成通用设计,并相对容易地获得最佳解决办法。从航空航天到机器人等工业继续受益于优化理论和相关算法发展的进展。如今,在安全危急情况下,如自驾车等自主系统上实时使用优化;将不确定性纳入优化方案,从而产生强有力的解决方案已变得越来越重要。本文件对不确定性下的优化状态进行了简短调查。本文件首先简要概述了主要的优化类别,没有不确定性。本文的其余部分侧重于处理偏执和概括不确定性的不同方法。本文讨论的许多应用都在控制范围内。本调查文件的目的是简要地介绍各种不同方法的艺术状况,并让读者参考其他文献,以便更深入地处理这里讨论的专题。