Introducing a Three-Layer Model Taxonomy to Facilitate System-of-Systems Co-Simulation

Dominik Vereno, Katharina Polanec, Jounes-Alexander Gross, Christoph Binder, Christian Neureiter
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Abstract

The growing demand for efficient, resilient, and sustainable electricity infrastructure has led to the emergence of smart grids as cyber-physical systems of systems. Co-simulation has proven an effective tool for their analysis and validation by coordinating independent subsystem simulations. However, the reuse and integration of diverse models in co-simulation poses challenges, requiring compatibility and integration efforts. In response, this paper proposes a model taxonomy with the purpose of facilitating co-simulation; it comprises three layers: concrete-instance models, abstract-instance models, and type models. The taxonomy contributes to the creation of independently developed models that can be seamlessly integrated into a coupled co-simulation. Furthermore, it reflects the emergence of digital twins in smart grid engineering by the explicit distinction of abstract and concrete instances. The three-layer taxonomy was derived and validated through a case study on co-simulation of electric-vehicle charging infrastructure. The research further analyzes and formalizes three modeling-and-simulation challenges framed through the lens of the taxonomy: the integration of models across all three layers, the merging of layers, and the consolidation of instance models to craft joint co-simulation scenarios. Finally, three concrete recommendations for research and industrial practice are given. Thereby, the study contributes to the efficient and effective model-based validation of cyber-physical systems of systems using co-simulation.

引入三层模型分类标准,促进系统协同仿真
对高效、弹性和可持续电力基础设施的需求日益增长,促使作为网络物理系统的智能电网应运而生。通过协调独立的子系统仿真,协同仿真已被证明是分析和验证智能电网的有效工具。然而,在协同仿真中重复使用和集成不同的模型带来了挑战,需要进行兼容性和集成工作。为此,本文提出了一种以促进协同仿真为目的的模型分类法;它包括三个层次:具体实例模型、抽象实例模型和类型模型。该分类法有助于创建可无缝集成到耦合协同仿真中的独立开发模型。此外,通过明确区分抽象实例和具体实例,该分类法还反映了智能电网工程中数字双胞胎的出现。通过对电动汽车充电基础设施的协同仿真案例研究,得出并验证了三层分类法。研究进一步分析并正式确定了从分类法角度提出的三个建模和仿真挑战:所有三层模型的集成、各层模型的合并以及实例模型的整合,以制作联合协同仿真场景。最后,提出了三项具体的研究和工业实践建议。因此,本研究有助于利用协同仿真对网络物理系统进行高效、有效的基于模型的验证。
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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