Transition From Scenario-Based to Outcome-Based Engineering in SE4AI

Niloofar Shadab;Alejandro Salado;Tyler Cody;Peter A. Beling
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Abstract

As intelligent systems become increasingly integrated into our daily lives, it has become evident that there is a mismatch between traditional systems engineering (SE) practices and the nature of intelligent systems. In this article, we posit that the current SE practices need to change their hyperfocus on scenario-based engineering to a process that is more focused on engineering outcomes in the presence of changing environment. To help enabling such transition, we incorporate closed systems precepts from systems theory into formal SE practices. The concept of closed systems is based on the idea that a system is an entity that is bounded by a physical or conceptual boundary and is isolated from its environment. Closed systems are self-contained and self-regulating, and their behavior can be predicted and controlled based on the system's internal rules and mechanisms. In our previous paper, we formalized different types of closed systems and explored how SE practices can utilize these types for various applications. However, there is a need to transition from theorizing about these types of closure to implementing them in SE processes. In this article, we will demonstrate how closed system precepts can be applied to SE practices using a simple example of an intelligent system. We will explore different aspects of applying closed system formalization from our previous effort, including how to define a system's boundary when there is an intelligent property, how to perform problem formulation, and how to address a system's causal dependencies, in order to build a more scalable and well-scoped system.
在 SE4AI 中从基于场景的工程过渡到基于成果的工程
随着智能系统日益融入我们的日常生活,传统的系统工程(SE)实践与智能系统的本质之间显然存在着不匹配。在本文中,我们认为当前的系统工程实践需要改变其对基于场景的工程的过度关注,转而更加关注在不断变化的环境中的工程成果。为了帮助实现这种转变,我们将系统理论中的封闭系统概念融入到正式的 SE 实践中。封闭系统的概念基于这样一种思想,即系统是一个实体,它受到物理或概念边界的约束,并与其环境隔离。封闭系统是自足的、自我调节的,其行为可以根据系统的内部规则和机制进行预测和控制。在上一篇论文中,我们形式化了不同类型的封闭系统,并探讨了 SE 实践如何在各种应用中利用这些类型的系统。然而,我们需要从理论上探讨这些类型的封闭系统过渡到在 SE 流程中实施这些类型的封闭系统。在本文中,我们将以一个简单的智能系统为例,展示如何将封闭系统概念应用于 SE 实践。我们将从之前的工作中探索应用封闭系统形式化的不同方面,包括当存在智能属性时如何定义系统的边界、如何进行问题表述以及如何处理系统的因果依赖关系,从而构建一个更具可扩展性和范围更广的系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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