Scenario optimization is by now a well established technique to perform designs in the presence of uncertainty. It relies on domain knowledge integrated with first-hand information that comes from data and generates solutions that are also accompanied by precise statements of reliability. In this paper, following recent developments in (Garatti and Campi, 2019), we venture beyond the traditional set-up of scenario optimization by analyzing the concept of constraints relaxation. By a solid theoretical underpinning, this new paradigm furnishes fundamental tools to perform designs that meet a proper compromise between robustness and performance. After suitably expanding the scope of constraints relaxation as proposed in (Garatti and Campi, 2019), we focus on various classical Support Vector methods in machine learning - including SVM (Support Vector Machine), SVR (Support Vector Regression) and SVDD (Support Vector Data Description) - and derive new results for the ability of these methods to generalize.
翻译:假设优化目前是一种在不确定的情况下进行设计的良好技术,它依靠领域知识,结合来自数据的第一手信息,产生解决办法,并附有准确的可靠性说明。在本文件中,随着最近在(Garatti和Campi,2019年)中的发展,我们在传统的情景优化设置之外,通过分析限制的放松概念,努力超越情景优化的传统设置。通过扎实的理论基础,这一新模式为进行设计提供了基本工具,以达到稳健和性能之间的适当折中。在按照(Garatti和Campi,2019年)中的建议适当扩大了限制放松的范围之后,我们侧重于机器学习中的各种经典支持矢量方法,包括SVM(支持矢量机)、SVR(支持矢量反射)和SVDD(支持矢量数据说明),并为这些方法的普及能力得出新的结果。