Enhancing predictive maintenance architecture process by using ontology-enabled Case-Based Reasoning

J. J. Jiménez, R. Vingerhoeds, B. Grabot
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引用次数: 3

Abstract

A common milestone in systems architecture development is the logical architecture. It provides a detailed overview of the system components and their interfaces but keeps the architecture as generic as possible, meaning that no component is bound to a specific technology. Subsequently, the architect searches for physical/informational components to fulfill the logical architecture and can apply structured creativity to look for innovative solutions. This search can turn out to be a difficult and long-lasting task depending on the system complexity. Too many options may be available to fulfill the logical system components and not always the most suitable ones are identified. This problem is for instance encountered in the design of new predictive maintenance systems, especially when selecting the components to carry out the diagnostics and prognostics. The current study proposes to support the choice of suitable components combining case-based reasoning and ontologies. A domain ontology has been developed as a terminology framework to support the case base, case structure and similarity measures for a case-based reasoning Decision Support System (DSS). The DSS uses attributes of the new problem to solve and suggests the most similar cases from past experiences. The retrieved solutions can be adapted to develop a new predictive maintenance architecture. The decision support system has been tested with data coming from proved predictive maintenance solutions documented in scientific publications.
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通过使用支持本体的基于案例的推理来增强预测性维护体系结构流程
系统架构开发中的一个常见里程碑是逻辑架构。它提供了系统组件及其接口的详细概述,但保持体系结构尽可能通用,这意味着没有组件绑定到特定的技术。随后,架构师寻找物理/信息组件来实现逻辑架构,并可以应用结构化创造力来寻找创新的解决方案。根据系统的复杂性,这种搜索可能是一项困难而持久的任务。可能有太多选项可用于实现逻辑系统组件,并且并不总是确定最合适的选项。例如,在设计新的预测性维护系统时就会遇到这个问题,特别是在选择执行诊断和预测的组件时。目前的研究建议结合基于案例的推理和本体来支持合适组件的选择。领域本体作为一个术语框架,为基于案例推理的决策支持系统(DSS)提供了案例库、案例结构和相似度量的支持。决策支持系统利用新问题的属性来解决问题,并从过去的经验中提出最相似的案例。检索到的解决方案可以用于开发新的预测性维护体系结构。决策支持系统已通过科学出版物中已证明的预测性维护解决方案的数据进行了测试。
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Interaction between capabilities of Model Based Systems Engineering on sensor models A Heterogenous, reliable onboard processing system for small satellites Data Analytics Architecture for Energy Efficiency Optimization in Industrial Processes Enhancing predictive maintenance architecture process by using ontology-enabled Case-Based Reasoning [ISSE 2021 Front cover]
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