Goal-Oriented Holonics for Complex System (Self-)Integration: Concepts and Case Studies

A. Diaconescu, Sylvain Frey, C. Müller-Schloer, J. Pitt, Sven Tomforde
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引用次数: 40

Abstract

System integration from sub-systems has always been a major engineering problem, which is progressively exacerbated by (1) sub-systems becoming more diverse, self-* and autonomous (2) systems operating in open environments, with third-party sub-systems joining and leaving unpredictably, (3) system (self-)integration being an ongoing process, increasingly needed at runtime. The fact that this problem occurs more and more often, as systems are built increasingly by composing existing sub-systems, requires rigorous, reusable integration solutions to replace ad-hoc approaches. In a complex world of uncertainty and change the new system integration paradigm must feature two main characteristics: support for a system-of-systems approach to manage complexity, and support for a high-level relation between sub-systems to manage diversity, uncertainty and dynamics. We propose a conceptual modelling solution combining holonic principles with goal-based relations. We highlight the key properties of holonic designs that support a systems-of-systems approach. We then specify the high-level relations between holonic sub-systems as goal-oriented requests and replies. Argumentation is grounded via concrete examples from existing complex systems. The proposed paradigm paves the way for future methodologies and tools for designing the next generation of socio-technical and cyber-physical systems.
复杂系统(自)集成的目标导向整体学:概念与案例研究
子系统的系统集成一直是一个主要的工程问题,这一问题在以下方面逐渐加剧:(1)子系统变得更加多样化、自我*和自治;(2)系统在开放环境中运行,第三方子系统不可预测地加入和离开;(3)系统(自)集成是一个持续的过程,在运行时越来越需要。随着系统越来越多地通过组合现有的子系统来构建,这个问题越来越频繁地出现,这就需要严格的、可重用的集成解决方案来取代特定的方法。在不确定性和变化的复杂世界中,新的系统集成范式必须具有两个主要特征:支持系统的系统方法来管理复杂性,支持子系统之间的高层关系来管理多样性、不确定性和动态性。我们提出了一种结合整体原理和基于目标关系的概念建模解决方案。我们强调了支持系统的系统方法的全息设计的关键特性。然后,我们将整体子系统之间的高级关系指定为面向目标的请求和应答。论证是基于现有复杂系统的具体例子。所提出的范式为设计下一代社会技术和网络物理系统的未来方法和工具铺平了道路。
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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