Industrial internet of things and unsupervised deep learning enabled real-time occupational safety monitoring in cold storage warehouse

•Develop a smart system for real-time occupational safety monitoring.•Apply stacked auto-encoder to realize abnormal stationary detection in cold storage.•Provide intelligent services to enhance spatial-temporal traceability and cyber-physical visibility.•Conduct a real-life case study in an air car...

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Veröffentlicht in:Safety science 2022-08, Vol.152, p.105766, Article 105766
Hauptverfasser: Zhan, Xuegang, Wu, Wei, Shen, Leidi, Liao, Wangyunyan, Zhao, Zhiheng, Xia, Jing
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Wu, Wei
Shen, Leidi
Liao, Wangyunyan
Zhao, Zhiheng
Xia, Jing
description •Develop a smart system for real-time occupational safety monitoring.•Apply stacked auto-encoder to realize abnormal stationary detection in cold storage.•Provide intelligent services to enhance spatial-temporal traceability and cyber-physical visibility.•Conduct a real-life case study in an air cargo cold storage. Occupational safety and health (OSH) has always been a big concern in the labor-intensive warehouse industry, especially under peculiar circumstances like a low temperature. Accordingly, this paper aims to propose a framework of a smart system using the Industrial Internet of Things (IIoT) and digital twin (DT) technologies to realize real-time occupational safety monitoring in the warehouse and ensure synchronized cyber-physical spaces for information traceability and visibility. The unsupervised deep neural structure of stacked auto-encoder (SAE) is designed to identify abnormal stationary from human motion status, which is perceived as a sign of potential accident. The model is developed to automatically update online by cooperating with calibration samples so as to keep in accordance with the evolution of surroundings. The Bluetooth low energy (BLE) and a log-distance path loss model are used to fulfill indoor localization in order for managers to promptly respond to an incident on site. Besides, some intelligent services are enabled to promote the efficiency of safety management. A real-life case study is carried out in an air cargo cold storage warehouse to illustrate the viability and rationality of the proposed system and methods. The elaboration of the implementation is envisioned to facilitate replication and reproduction effectively. The impact of learning features concerned with distance and vibration on the performance of anomaly detection has also been analyzed by experiments. The insights and lessons gained in this study hold the promise of providing a reference or sparking new ideas for researchers and practitioners to meet similar needs in practice.
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Occupational safety and health (OSH) has always been a big concern in the labor-intensive warehouse industry, especially under peculiar circumstances like a low temperature. Accordingly, this paper aims to propose a framework of a smart system using the Industrial Internet of Things (IIoT) and digital twin (DT) technologies to realize real-time occupational safety monitoring in the warehouse and ensure synchronized cyber-physical spaces for information traceability and visibility. The unsupervised deep neural structure of stacked auto-encoder (SAE) is designed to identify abnormal stationary from human motion status, which is perceived as a sign of potential accident. The model is developed to automatically update online by cooperating with calibration samples so as to keep in accordance with the evolution of surroundings. 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subjects Abnormal stationary detection
Air cargo
Anomalies
Bluetooth
Coders
Cold chain logistics
Cold storage
Deep learning
Digital twin
Digital twins
Human motion
Indoor positioning
Industrial applications
Industrial Internet of Things
Industrial safety
Internet of Things
Localization
Low temperature
Monitoring systems
Motion detection
Occupational health
Occupational safety
Occupational safety management
Real time
Safety
Safety management
Vibration analysis
Visibility
Warehouses
title Industrial internet of things and unsupervised deep learning enabled real-time occupational safety monitoring in cold storage warehouse
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