论文标题
航空航天人类系统整合过去40年的发展
Aerospace Human System Integration Evolution over the Last 40 Years
论文作者
论文摘要
本章重点介绍了过去四十年来航空航天系统中以人为中心的设计(HCD)的发展。人为因素和人体工程学首先从对物理和医学问题的研究转变为1980年代的认知问题。计算机的出现带来了人类计算机互动(HCI)的开发,然后扩展到数字交互设计和用户体验(UX)领域。我们最终提出了交互式驾驶舱的概念,不是因为飞行员与机械事物相互作用,而是因为他们使用计算机显示器上的指向设备进行了交互。自2000年代初以来,复杂性和组织问题变得突出,以至于复杂的系统设计和管理使自己成为中心舞台,并引起了人类因素和组织设置的作用。如今,人类系统集成(HSI)不再仅仅是单一代理问题,而是一个多代理研究领域。系统是系统的系统,被视为人和机器的表示。它们是由静态和动态表达的结构和功能制成的。当它们在工作时,它们是生物的生物体,它们产生了需要在进化中考虑的新兴功能和结构(即,在不断的重新设计中)。本章将更具体地说,重点是人为因素,例如以人为本的系统性表示,生命关键系统,组织问题,复杂性管理,建模和模拟,灵活性,有形和自主权。讨论将基于民航和空战以及航空航天的几个例子。
This chapter focuses on the evolution of Human-Centered Design (HCD) in aerospace systems over the last forty years. Human Factors and Ergonomics first shifted from the study of physical and medical issues to cognitive issues circa the 1980s. The advent of computers brought with it the development of human-computer interaction (HCI), which then expanded into the field of digital interaction design and User Experience (UX). We ended up with the concept of interactive cockpits, not because pilots interacted with mechanical things, but because they interacted using pointing devices on computer displays. Since the early 2000s, complexity and organizational issues gained prominence to the point that complex systems design and management found itself center stage, with the spotlight on the role of the human element and organizational setups. Today, Human Systems Integration (HSI) is no longer only a single-agent problem, but a multi-agent research field. Systems are systems of systems, considered as representations of people and machines. They are made of statically and dynamically articulated structures and functions. When they are at work, they are living organisms that generate emerging functions and structures that need to be considered in evolution (i.e., in their constant redesign). This chapter will more specifically, focus on human factors such as human-centered systemic representations, life critical systems, organizational issues, complexity management, modeling and simulation, flexibility, tangibility and autonomy. The discussion will be based on several examples in civil aviation and air combat, as well as aerospace.