Quo vadis cyber-physical systems: research areas of cyber-physical ecosystems: a position paper

Christian Bartelt, A. Rausch, Karina Rehfeldt
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引用次数: 8

Abstract

Many technological innovations from the research area of dynamic adaptive systems or IT ecosystems are already established in current software systems. Especially cyber-physical systems should benefit by this progress to provide smart applications in ambient environments of private and industrial space. But a proper and methodical engineering of cyber-physical ecosystems (CPES) is still an open and important issue. Traditional software and systems engineering facilities (system models, description languages, or process models) do not consider fundamental characteristics of these ecosystems as openness, uncertainty, or emergent constitution at runtime sufficiently. But especially these aspects let blur the line of system boundaries at design time. The diverse components of CPES have essential impacts on the engineering of CPES as well, concerning time synchronizing, execution control, and interaction structure. Self-balanced control in CPES promises new application possibilities, but also needs new engineering techniques concerning the overall engineering process, including requirements engineering and runtime verification. In this position paper we survey and summarize the dimensions of challenges in applying control theory for the engineering of cyber-physical ecosystems.
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网络物理系统:网络物理生态系统的研究领域:立场文件
许多来自动态自适应系统或IT生态系统研究领域的技术创新已经在当前的软件系统中建立起来。特别是网络物理系统应该受益于这一进步,在私人和工业空间的环境环境中提供智能应用。但是,适当的、系统的网络物理生态系统工程(CPES)仍然是一个开放和重要的问题。传统的软件和系统工程设施(系统模型、描述语言或过程模型)没有充分考虑这些生态系统的基本特征,如开放性、不确定性或运行时的紧急构造。但特别是这些方面让设计时的系统边界变得模糊。CPES组件的多样性也对CPES的工程设计产生了重要的影响,包括时间同步、执行控制和交互结构。CPES中的自平衡控制承诺了新的应用可能性,但也需要涉及整个工程过程的新的工程技术,包括需求工程和运行时验证。在这篇论文中,我们调查和总结了在网络物理生态系统工程中应用控制理论的挑战。
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