Automated knowledge graphs for complex systems (AutoGraCS): Applications to management of bridge networks

Minghui Cheng , Syed M.H. Shah , Antonio Nanni , H. Oliver Gao
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Abstract

With the ability to harness the power of big data, the digital twin (DT) technology has been increasingly applied to the modeling and management of structures and infrastructure systems, such as buildings, bridges, and power distribution systems. Supporting these applications, an important family of methods are based on graphs. For DT applications in modeling and managing smart cities, large-scale knowledge graphs (KGs) are necessary to represent the complex interdependencies and model the urban infrastructure as a system of systems. To this end, this paper develops a conceptual framework: Automated knowledge Graphs for Complex Systems (AutoGraCS). In contrast to existing KGs developed for DTs, AutoGraCS can support KGs to account for interdependencies and statistical correlations across complex systems. The established KGs from AutoGraCS can then be easily turned into Bayesian networks for probabilistic modeling, Bayesian analysis, and adaptive decision supports. Besides, AutoGraCS provides flexibility in support of users’ need to implement the ontology and rules when constructing the KG. With the user-defined ontology and rules, AutoGraCS can automatically generate a KG to represent a complex system consisting of multiple systems. The bridge network in Miami-Dade County, FL is used as an illustrative example to generate a KG that integrates multiple layers of data from the bridge network, traffic monitoring facilities, and flood water watch stations.
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复杂系统自动知识图谱(AutoGraCS):桥梁网络管理应用
数字孪生(DT)技术能够利用大数据的力量,已越来越多地应用于建筑、桥梁和配电系统等结构和基础设施系统的建模和管理。支持这些应用的一个重要方法系列是基于图形的。对于智能城市建模和管理中的 DT 应用,大规模知识图谱 (KG) 是表示复杂的相互依存关系和将城市基础设施建模为系统之系统所必需的。为此,本文开发了一个概念框架:复杂系统自动知识图谱(AutoGraCS)。与为 DTs 开发的现有知识图谱相比,AutoGraCS 可支持知识图谱解释复杂系统间的相互依存关系和统计相关性。通过 AutoGraCS 建立的 KGs 可以很容易地转化为贝叶斯网络,用于概率建模、贝叶斯分析和自适应决策支持。此外,AutoGraCS 还提供灵活性,支持用户在构建 KG 时实现本体和规则。有了用户定义的本体和规则,AutoGraCS 可以自动生成表示由多个系统组成的复杂系统的 KG。以佛罗里达州迈阿密-戴德县的桥梁网络为例,说明如何生成一个集成了桥梁网络、交通监控设施和洪水观测站等多层数据的 KG。
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