A cloud–edge collaborative hierarchical diagnosis framework for key performance indicator-related faults in manufacturing industries

In the context of intensifying global market competition and the accelerated advancement of industrial intelligence powered by the Industrial Internet of Things, manufacturing enterprises face pressing challenges in achieving sustainable development through quality and efficiency enhancement. Effective key performance indicators (KPIs) related fault diagnosis plays a crucial role in ensuring product quality stability and efficient production within modern manufacturing industries. However, manufacturing industries are characterized by numerous production sub-processes, hierarchical cooperation and interaction, and complex spatio-temporal features, making the implementation of comprehensive KPI-related fault diagnosis methods challenging. To overcome these challenges and fully leverage the hierarchical and multi-scale nature of manufacturing systems, an innovative hierarchical KPI-related fault diagnosis framework based on cloud–edge collaboration is proposed in this paper. First, a hierarchical information enhancement method utilizing dual-scale slow feature analysis and minimal gated units is developed to handle the multi-scale nature of system levels. Second, graph attention networks are combined with minimal gated units to capture the spatio-temporal dynamics across all levels, and KPI constraints are incorporated to fully extract the KPI-related spatio-temporal features. In addition, bottom-up propagation and top-down updation strategies are designed to facilitate information interaction between levels. Building on this, a cloud–edge collaborative architecture is developed, with specific tasks assigned each side. Finally, the framework is applied to a collaborative prototype system for cloud–edge- device in the hot rolling process, and its effectiveness and applicability are thoroughly evaluated. • A multi-scale hierarchical information enhancement method is designed. • The KPI-related spatio-temporal dynamic feature model named PGA-MGU is proposed. • A hierarchical KPI-related fault diagnosis strategy is constructed. • The proposed cloud–edge collaborative framework is applied to a hot rolling process.

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Publication Details

Journal
Journal of Process Control
Published
2025-06-11
DOI
https://doi.org/10.1016/j.jprocont.2025.103462
Citations
3
Primary Topic
Fault Detection and Control Systems
Type
article
Field-Weighted Citation Impact
3.64

Funders

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article

A cloud–edge collaborative hierarchical diagnosis framework for key performance indicator-related faults in manufacturing industries

Muhammad Asfandyar Shahid, Kaixiang Peng, Yangfan Wang, Xueyi Zhang et al.
3 citations
Journal of Process Control
Fault Detection and Control Systems
3.64
article

A cloud–edge collaborative hierarchical diagnosis framework for key performance indicator-related faults in manufacturing industries

Muhammad Asfandyar Shahid, Kaixiang Peng, Yangfan Wang, Xueyi Zhang, Chuanfang Zhang, Liang Ma
article en
3 citations

Abstract

In the context of intensifying global market competition and the accelerated advancement of industrial intelligence powered by the Industrial Internet of Things, manufacturing enterprises face pressing challenges in achieving sustainable development through quality and efficiency enhancement. Effective key performance indicators (KPIs) related fault diagnosis plays a crucial role in ensuring product quality stability and efficient production within modern manufacturing industries. However, manufacturing industries are characterized by numerous production sub-processes, hierarchical cooperation and interaction, and complex spatio-temporal features, making the implementation of comprehensive KPI-related fault diagnosis methods challenging. To overcome these challenges and fully leverage the hierarchical and multi-scale nature of manufacturing systems, an innovative hierarchical KPI-related fault diagnosis framework based on cloud–edge collaboration is proposed in this paper. First, a hierarchical information enhancement method utilizing dual-scale slow feature analysis and minimal gated units is developed to handle the multi-scale nature of system levels. Second, graph attention networks are combined with minimal gated units to capture the spatio-temporal dynamics across all levels, and KPI constraints are incorporated to fully extract the KPI-related spatio-temporal features. In addition, bottom-up propagation and top-down updation strategies are designed to facilitate information interaction between levels. Building on this, a cloud–edge collaborative architecture is developed, with specific tasks assigned each side. Finally, the framework is applied to a collaborative prototype system for cloud–edge- device in the hot rolling process, and its effectiveness and applicability are thoroughly evaluated. • A multi-scale hierarchical information enhancement method is designed. • The KPI-related spatio-temporal dynamic feature model named PGA-MGU is proposed. • A hierarchical KPI-related fault diagnosis strategy is constructed. • The proposed cloud–edge collaborative framework is applied to a hot rolling process.

Journal of Process ControlVol. 152
Automation Research and Design Institute of Metallurgical Industry (China) (CN), University of Science and Technology Beijing (CN)
National Natural Science Foundation of China
Industry, innovation and infrastructure
Openalex Percentile: Top 7%
Fault Detection and Control Systems
3.64
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