Investigation Into Dynamic Monitoring and Adjustment of Manufacturing Carbon Emissions Integrating IIoT and 5G

IF 0.5 Q4 TELECOMMUNICATIONS
Shu Ying, Han Hang, Peng Shijie
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引用次数: 0

Abstract

The manufacturing industry confronts challenges including inefficient data handling, inadequate real-time monitoring, and vague adjustment mechanisms regarding carbon emission management. Integrating the Industrial Internet of Things (IIoT) and Fifth-generation mobile communication technology (5G) technologies is urgently needed. By constructing a carbon emission sensing network with IIoT-5G converged architecture, a low-latency time-sensitive network (TSN) communication protocol for heterogeneous industrial devices is designed to meet the needs of efficient communication among multiple devices. Combining digital twins and edge computing technology, this study developed a carbon footprint dynamic visualization engine to display carbon emission data in real-time and support carbon emission propagation path modeling based on graph neural network (GNN) to predict and analyze the dynamic changes of carbon emissions accurately. Applying IIoT and 5G technologies has improved monitoring accuracy in a pilot manufacturing site and shown significant energy conservation and emission reduction results. After implementing this technology, the carbon emission intensity decreased from 75.4 to 59.8, and the energy utilization efficiency increased from 32.7% to 90.1%. The waste gas treatment efficiency increased from 16.4% to 34.2%.

集成工业物联网和5G的制造业碳排放动态监测与调整研究
制造业在碳排放管理方面面临着数据处理效率低下、实时监测不足、调整机制模糊等挑战。工业物联网(IIoT)和第五代移动通信技术(5G)技术的融合是迫切需要的。通过构建IIoT-5G融合架构的碳排放传感网络,设计面向异构工业设备的低延迟时敏网络(TSN)通信协议,满足多设备间高效通信的需求。结合数字孪生和边缘计算技术,开发碳足迹动态可视化引擎,实时显示碳排放数据,支持基于图神经网络(GNN)的碳排放传播路径建模,准确预测和分析碳排放的动态变化。应用工业物联网和5G技术,提高了试点生产现场的监测精度,节能减排效果显著。实施该技术后,碳排放强度由75.4降低到59.8,能源利用效率由32.7%提高到90.1%。废气处理效率由16.4%提高到34.2%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
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