Development of functional architectures for cyber‐physical systems using interconnectable models

O. Eichmann, Jesko G. Lamm, Sylvia Melzer, T. Weilkiens, Ralf God
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Abstract

Cyber‐physical Systems (CPSs) are characterized by entities in both the physical and the virtual space, thus enabling an immersion of the physical world into the cyberspace. Connectivity via the cyberspace allows CPS cooperation for new services in product service systems (PSS). In consequence, cooperating CPSs act as actors with interest in the CPS in focus. Considering the needs of human actors and cooperating CPSs is a challenging task in CPS development because of many actors, interdepending CPS functions, and multiple CPS interfaces. For systems, the known Functional Architectures for Systems (FAS) method offers a solution approach for deriving functional system architectures from system use cases originating from human actors. For CPS development, this publication presents an expansion of the FAS method for developing functional architectures based on use cases originating from human actors as well as from cooperating CPSs and offers a model‐based approach based on the method description. In the authors’ opinion, interconnectable CPSs and models of cooperating CPSs can be integrated and interconnected with each other into a unifying aggregated model to represent the joint behavior of CPSs in an aggregated system. The paper explains this novel approach through a CPS functional architecture development example related to the prediction of remaining boarding time in an aircraft. The result is an approach that allows the consideration of initial CPS functions and new aggregated system functions, that pays special attention to the interconnectivity of CPSs and the required interfaces, and enables the systematic analysis of functions for the identification of redundancies.
利用可互联模型开发网络物理系统的功能架构
网络物理系统(CPS)的特点是同时存在于物理空间和虚拟空间的实体,从而使物理世界融入网络空间。通过网络空间的连接,CPS 可以合作提供产品服务系统(PSS)中的新服务。因此,合作的 CPS 作为行动者,对重点关注的 CPS 具有兴趣。在 CPS 开发过程中,考虑人类行动者和合作 CPS 的需求是一项具有挑战性的任务,因为行动者众多,CPS 功能相互依存,而且有多个 CPS 接口。对于系统而言,众所周知的系统功能架构(FAS)方法提供了一种解决方法,可从人类参与者提出的系统用例中推导出功能系统架构。对于 CPS 开发,本出版物介绍了 FAS 方法的扩展,该方法可根据来自人类行为者以及合作 CPS 的用例开发功能架构,并提供了一种基于方法描述的基于模型的方法。作者认为,可互联的 CPS 和合作 CPS 的模型可以相互集成和互联到一个统一的聚合模型中,以表示聚合系统中 CPS 的联合行为。本文通过一个与飞机剩余登机时间预测相关的 CPS 功能架构开发实例来解释这种新方法。这种方法允许考虑初始 CPS 功能和新的聚合系统功能,特别关注 CPS 的互连性和所需接口,并能对功能进行系统分析,以识别冗余。
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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