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Hauptverfasser: Khaw, Kim Siang, Hoh, Siew Yan, Hu, Tianqi, Huang, Xingyun, Ng, Jun Kai, Takeuchi, Yusuke, Tan, Min Yang, Wang, Jiangtao, Wang, Yinghe, Wong, Guan Ming, Wu, Mengjie, Yan, Ning, Zeng, Yonghao, Chen, Min, Gao, Shunxi, Li, Lei, Shi, Yujin, Tan, Jie, Wang, Qinghua, Zeng, Siping, Yao, Shibin, Zhang, Yufu, Chen, Gongliang, Wang, Houwang, Lin, Jinxin, Zhan, Qing
Format: Preprint
Veröffentlicht: 2025
Schlagworte:
Online-Zugang:https://arxiv.org/abs/2504.00582
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author Khaw, Kim Siang
Hoh, Siew Yan
Hu, Tianqi
Huang, Xingyun
Ng, Jun Kai
Takeuchi, Yusuke
Tan, Min Yang
Wang, Jiangtao
Wang, Yinghe
Wong, Guan Ming
Wu, Mengjie
Yan, Ning
Zeng, Yonghao
Chen, Min
Gao, Shunxi
Li, Lei
Shi, Yujin
Tan, Jie
Wang, Qinghua
Zeng, Siping
Yao, Shibin
Zhang, Yufu
Chen, Gongliang
Wang, Houwang
Lin, Jinxin
Zhan, Qing
author_facet Khaw, Kim Siang
Hoh, Siew Yan
Hu, Tianqi
Huang, Xingyun
Ng, Jun Kai
Takeuchi, Yusuke
Tan, Min Yang
Wang, Jiangtao
Wang, Yinghe
Wong, Guan Ming
Wu, Mengjie
Yan, Ning
Zeng, Yonghao
Chen, Min
Gao, Shunxi
Li, Lei
Shi, Yujin
Tan, Jie
Wang, Qinghua
Zeng, Siping
Yao, Shibin
Zhang, Yufu
Chen, Gongliang
Wang, Houwang
Lin, Jinxin
Zhan, Qing
contents This study demonstrates the application of cosmic-ray muography as a non-invasive method for monitoring sediment accumulation and tidal influences in the Shanghai Outer Ring Tunnel, an immersed tube tunnel located beneath the Huangpu River in Shanghai, China. A portable, dual-layer plastic scintillator detector was deployed to conduct muon flux scans along the tunnel's length and to continuously monitor muon flux, allowing for the study of tidal effects. Geant4 simulations validated the correlation between muon attenuation and overburden thickness, incorporating sediment, water, and concrete layers. Key findings include a strong anti-correlation between the measured muon flux and the water levels observed at a nearby tide gauge. The results align with geotechnical data and simulations, especially in the region of interest, confirming muography's sensitivity to sediment dynamics. This work establishes muography as a robust tool for long-term, real-time monitoring of submerged infrastructure, offering significant advantages over conventional invasive techniques. The study underscores the potential for integrating muography into civil engineering practices to enhance safety and operational resilience in tidal environments.
format Preprint
id arxiv_https___arxiv_org_abs_2504_00582
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Towards Non-Invasive Sediment Monitoring Using Muography: A Pilot Run at the Shanghai Outer Ring Tunnel
Khaw, Kim Siang
Hoh, Siew Yan
Hu, Tianqi
Huang, Xingyun
Ng, Jun Kai
Takeuchi, Yusuke
Tan, Min Yang
Wang, Jiangtao
Wang, Yinghe
Wong, Guan Ming
Wu, Mengjie
Yan, Ning
Zeng, Yonghao
Chen, Min
Gao, Shunxi
Li, Lei
Shi, Yujin
Tan, Jie
Wang, Qinghua
Zeng, Siping
Yao, Shibin
Zhang, Yufu
Chen, Gongliang
Wang, Houwang
Lin, Jinxin
Zhan, Qing
Applied Physics
Instrumentation and Detectors
This study demonstrates the application of cosmic-ray muography as a non-invasive method for monitoring sediment accumulation and tidal influences in the Shanghai Outer Ring Tunnel, an immersed tube tunnel located beneath the Huangpu River in Shanghai, China. A portable, dual-layer plastic scintillator detector was deployed to conduct muon flux scans along the tunnel's length and to continuously monitor muon flux, allowing for the study of tidal effects. Geant4 simulations validated the correlation between muon attenuation and overburden thickness, incorporating sediment, water, and concrete layers. Key findings include a strong anti-correlation between the measured muon flux and the water levels observed at a nearby tide gauge. The results align with geotechnical data and simulations, especially in the region of interest, confirming muography's sensitivity to sediment dynamics. This work establishes muography as a robust tool for long-term, real-time monitoring of submerged infrastructure, offering significant advantages over conventional invasive techniques. The study underscores the potential for integrating muography into civil engineering practices to enhance safety and operational resilience in tidal environments.
title Towards Non-Invasive Sediment Monitoring Using Muography: A Pilot Run at the Shanghai Outer Ring Tunnel
topic Applied Physics
Instrumentation and Detectors
url https://arxiv.org/abs/2504.00582