3D Monitoring Model for Real-Time Displacement of Metro Tunnel under “Dual Carbon” Background

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Jianyong Chai, Limin Jia, Jian Cao, Jianfeng Liu, Zhe Chen, Shubin Li, Xuejuan Wang, Hong Han
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Abstract

Real-time automatic displacement monitoring of metro tunnels is vital for ensuring operational safety and contributes to carbon reduction goals by improving system efficiency. This study focuses on key monitoring elements such as displacement, settlement, convergence, and cracking. Through the analysis of continuous monitoring data, a real-time displacement monitoring model for metro tunnels based on robotic total stations is proposed. This model can timely identify potential risks, thereby ensuring the safe operation of tunnels and reducing carbon emissions from unnecessary maintenance operations, thereby reducing the carbon footprint of metro operations. This article takes the Jinan Metro Tunnel Displacement Real-time Monitoring Project in China as a case study and constructs a comprehensive monitoring framework using robotic total stations, intelligent automated deformation monitoring data collectors, and cloud servers. The implementation details of the project, displacement monitoring principles, monitoring system construction, and data analysis processes are elaborated in detail. Taking the monitoring data of Jinan Metro Line 2 from April 1, 2022, to May 31, 2023, as an example, the results show that the tunnel displacement is within the safe range, verifying the practical application value of the method proposed in this paper. It can effectively ensure the safe operation of the metro and promote sustainable development and low-carbon metro construction.

Abstract Image

双碳 "背景下地铁隧道实时位移三维监测模型
地铁隧道的实时自动位移监测对确保运营安全至关重要,并可通过提高系统效率来实现碳减排目标。本研究重点关注位移、沉降、收敛和开裂等关键监测要素。通过对连续监测数据的分析,提出了一种基于机器人全站仪的地铁隧道实时位移监测模型。该模型可及时发现潜在风险,从而确保隧道的安全运营,并减少不必要的维护作业所产生的碳排放,从而降低地铁运营的碳足迹。本文以中国济南地铁隧道位移实时监测项目为例,利用机器人全站仪、智能自动化变形监测数据采集器和云服务器构建了一个综合监测框架。详细阐述了项目的实施细节、位移监测原理、监测系统构建和数据分析流程。以济南地铁2号线2022年4月1日至2023年5月31日的监测数据为例,结果显示隧道位移在安全范围内,验证了本文提出的方法的实际应用价值。它能有效保证地铁的安全运营,促进地铁建设的可持续发展和低碳环保。
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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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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