Integrated System Architecture Development Framework and Complexity Assessment

Akshay Dalvi, H. El-Mounayri
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Abstract

Systems engineering is the popular top-down systematic approach to understand and develop complex systems. There is a gap between the systems engineering activities and engineering analysis in major system development processes. This paper presents an integrated MBSE development framework with definite and indefinite modeling capabilities to bridge this gap. The framework uses SysML, a system modeling language, to describe its elements from the system architecture’s perspective. A detailed workflow is presented that guides the engineer throughout the modeling process. The workflow establishes traceability throughout the framework. This research uses Functional Mock-up Interface (FMI) standards to integrate system engineering activities and engineering analysis. A district cooling system case study is presented to demonstrate the framework’s capabilities in enabling the system into existence. The system architecture model was developed using SysML language in the Cameo Enterprise Architecture environment. The engineering analysis model used object-oriented Modelica language in the Dymola environment. The analysis results show that the district chiller model developed using Modelica produces chilled water below 6.6 degrees Celsius, satisfying the district chiller’s system requirement. The exponential trend in the system architecture’s complexity pattern is measured and analyzed using complexity assessment techniques. The results show that the structural complexity of the system increases steadily from 2.7080 to 8.1241. However, the behavioral complexity increases drastically from 1.7915 to 59.2686 in the problem domain.
集成系统架构开发框架和复杂性评估
系统工程是一种流行的自上而下的系统方法,用于理解和开发复杂系统。在主要的系统开发过程中,系统工程活动与工程分析之间存在着差距。本文提出了一个集成的MBSE开发框架,具有确定和不确定的建模能力,以弥合这一差距。该框架使用SysML(一种系统建模语言)从系统体系结构的角度描述其元素。提出了一个详细的工作流程,指导工程师在整个建模过程。工作流在整个框架中建立可追溯性。本研究使用功能模型接口(FMI)标准来整合系统工程活动与工程分析。一个区域供冷系统的案例研究提出,以证明框架的能力,使系统的存在。系统架构模型是在Cameo企业架构环境下使用SysML语言开发的。工程分析模型在Dymola环境下使用面向对象的Modelica语言。分析结果表明,利用Modelica开发的区域冷水机组模型产生的冷冻水低于6.6℃,满足区域冷水机组的系统要求。使用复杂性评估技术测量和分析系统架构复杂性模式的指数趋势。结果表明,系统的结构复杂度从2.7080稳步增加到8.1241。然而,在问题域中,行为复杂性从1.7915急剧增加到59.2686。
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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