THE DIGITAL ENGINEERING FACTORY: CONSIDERATIONS, CURRENT STATUS, AND LESSONS LEARNED

Joe Gregory, Alejandro Salado, Sharon O'Neal, Richardo Larez, CJ Reda, Niko Martell, Evan Martin, Matthew Colson, John Masterson, David Armenta
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Abstract

In industry, the advancement of digital engineering and the digital thread aims to reduce the impact of knowledge ‘siloes’ by providing a way to integrate data across the entire system lifecycle and across multiple domains. In a typical engineering curriculum, however, courses are still treated as ‘siloes’, and students often do not have the opportunity to experience this industrially relevant approach to engineering. The Digital Engineering Factory (DEF) is a digital engineering environment under development at the University of Arizona to support engineering students. The DEF supports students by providing access to multiple engineering tools and is structured using a ‘hub-and-spoke’ approach to consolidate data from these tools. Through this connected architecture, students can transfer data generated in a particular course to tools for use in other courses. Connecting course activities in this way enables students to experience a complete end-to-end system lifecycle. At its ‘hub’, the DEF uses Violet to integrate data from multiple sources, create a digital thread, and generate a graph representation of the dataset. This knowledge graph, written in the Ontological Modeling Language (OML), can be viewed in OML Rosetta and is structured according to the University of Arizona Ontology Stack (UAOS). The use of the UAOS and OML Rosetta allows instructors to leverage semantic web technologies to support teaching activities such as grading. In this paper, the authors review the objectives of the DEF, discuss the status of the project, and highlight current limitations and lessons learned with regards to its deployment. These may be useful to inform similar developments in industrial settings.

数字工程工厂:考虑因素、现状和经验教训
在工业领域,数字工程和数字线程的发展旨在通过提供一种方法来整合整个系统生命周期和多个领域的数据,从而减少知识 "孤岛 "的影响。然而,在典型的工程学课程中,课程仍被视为 "孤岛",学生往往没有机会体验这种与行业相关的工程学方法。数字工程工厂(DEF)是亚利桑那大学正在开发的一个数字工程环境,旨在为工程专业的学生提供支持。DEF 支持学生访问多种工程工具,并采用 "枢纽-辐条 "方式整合这些工具的数据。通过这种连接架构,学生可以将特定课程中生成的数据传输到工具中,供其他课程使用。通过这种方式连接课程活动,学生可以体验完整的端到端系统生命周期。在其 "中枢",DEF 使用 Violet 整合多个来源的数据,创建数字线程,并生成数据集的图示。该知识图谱由本体建模语言(OML)编写,可在 OML Rosetta 中查看,并根据亚利桑那大学本体堆栈(UAOS)进行结构化。通过使用 UAOS 和 OML Rosetta,教师可以利用语义网络技术来支持评分等教学活动。在本文中,作者回顾了 DEF 的目标,讨论了该项目的现状,并强调了当前的局限性以及在部署过程中吸取的经验教训。这些可能有助于为工业环境中的类似开发提供参考。
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