A Fault Diagnosis Method for Centrifugal Compressors Based on Ontology and Bayesian Network Fusion Reasoning

IF 1.5 4区 计算机科学 Q3 COMPUTER SCIENCE, SOFTWARE ENGINEERING
Xinxin Zhou, Ruixin Bao, Jian Zhu, Qinglong Hu, Xiangguang Sun, Yong Chen, Tianxiang Zeng
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引用次数: 0

Abstract

As a core industrial equipment, the stable operation of centrifugal compressors is crucial to production. Current research on its fault diagnosis mostly focuses on structured monitoring data, with insufficient mining of unstructured operation and maintenance experience data. To address this, this paper constructs an intelligent diagnosis model integrating ontology knowledge reasoning, knowledge graph modeling, and Bayesian Network (BN), realizing cross-modal fault accurate localization and root cause analysis through the deep integration of “knowledge + probability.” Firstly, an ontology knowledge model is established based on fault information mined from unstructured data (such as fault reports and maintenance records), enabling standardized expression and semantic association of fault knowledge. The model is then imported into the Neo4j database, and specific fault information files are exported through Python queries to serve as the basic data for BN reasoning. Next, a probabilistic reasoning model between fault components and symptoms is built based on BN. Combining expert experience and historical data, the node conditional probabilities are determined to describe the uncertainty of fault propagation. Finally, a fusion method of ontology and BN is designed: ontology reasoning is used to optimize the BN structure, and intelligent diagnostic reasoning is realized through dynamic updating of posterior probabilities. Experiments using fault reports of centrifugal compressors from a certain enterprise show that the proposed fusion model can improve the interpretability and dynamic reasoning ability of fault diagnosis. Case verification demonstrates that the fault recognition accuracy of this method reaches 85%, indicating good performance. Therefore, this research provides a feasible solution for utilizing unstructured operation and maintenance data, enhancing the practicality of intelligent diagnosis for complex industrial equipment, which can shorten fault downtime, reduce maintenance costs, and thus has practical application value.

Abstract Image

基于本体和贝叶斯网络融合推理的离心压缩机故障诊断方法
离心压缩机作为核心工业设备,其稳定运行对生产至关重要。目前对其故障诊断的研究多集中在结构化的监测数据上,对非结构化的运维经验数据挖掘不足。为此,本文构建了集本体知识推理、知识图建模和贝叶斯网络(BN)为一体的智能诊断模型,通过“知识+概率”的深度融合,实现了故障的跨模态精确定位和根本原因分析。首先,基于从非结构化数据(如故障报告和维修记录)中挖掘的故障信息,建立本体知识模型,实现故障知识的标准化表达和语义关联;然后将模型导入Neo4j数据库,并通过Python查询导出具体的故障信息文件,作为BN推理的基础数据。其次,基于BN建立了故障成分与症状之间的概率推理模型。结合专家经验和历史数据,确定节点条件概率来描述故障传播的不确定性。最后,设计了本体与BN的融合方法:利用本体推理对BN结构进行优化,通过后验概率的动态更新实现智能诊断推理。利用某企业离心压缩机故障报告进行的实验表明,该融合模型可以提高故障诊断的可解释性和动态推理能力。实例验证表明,该方法的故障识别准确率达到85%,具有良好的性能。因此,本研究为利用非结构化运维数据,增强复杂工业设备智能诊断的实用性,缩短故障停机时间,降低维护成本,提供了可行的解决方案,具有实际应用价值。
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来源期刊
Concurrency and Computation-Practice & Experience
Concurrency and Computation-Practice & Experience 工程技术-计算机:理论方法
CiteScore
5.00
自引率
10.00%
发文量
664
审稿时长
9.6 months
期刊介绍: Concurrency and Computation: Practice and Experience (CCPE) publishes high-quality, original research papers, and authoritative research review papers, in the overlapping fields of: Parallel and distributed computing; High-performance computing; Computational and data science; Artificial intelligence and machine learning; Big data applications, algorithms, and systems; Network science; Ontologies and semantics; Security and privacy; Cloud/edge/fog computing; Green computing; and Quantum computing.
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