Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case study

Suspension bridges are supported by main cables that continue beyond the pillars to deck-level supports and must be anchored at each end of the bridge. The dynamic characteristics of the main cables are key indicators used to assess the structural health status of a bridge. In situ real-time health...

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Main Authors: Huaping Ding, Qinghong Shen, Sidan Du
Format: Article
Language:English
Published: SAGE Publishing 2020-09-01
Series:Journal of Low Frequency Noise, Vibration and Active Control
Online Access:https://doi.org/10.1177/1461348418813760
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spelling doaj-21cb66f31c944b4c82d08f47a3aca1102020-11-25T03:34:06ZengSAGE PublishingJournal of Low Frequency Noise, Vibration and Active Control1461-34842048-40462020-09-013910.1177/1461348418813760Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case studyHuaping DingQinghong ShenSidan DuSuspension bridges are supported by main cables that continue beyond the pillars to deck-level supports and must be anchored at each end of the bridge. The dynamic characteristics of the main cables are key indicators used to assess the structural health status of a bridge. In situ real-time health monitoring is an effective way to assess the dynamic characteristics. This paper presents a case study using vibration-based wireless smart sensors deployed on the main cables of a large-scale three-pylon suspension bridge to obtain its dynamic features. The methods of anti-aliasing filtering, statistical analysis and main cable tension force estimation were proposed and embedded into wireless smart sensors to provide autonomous data processing. According to the analysis of the vibration data from the main cables, the results demonstrate that the main cables have been in a stable state over time, and wireless smart sensors are promising for autonomous main-cable monitoring of large-scale three-pylon suspension bridges.https://doi.org/10.1177/1461348418813760
collection DOAJ
language English
format Article
sources DOAJ
author Huaping Ding
Qinghong Shen
Sidan Du
spellingShingle Huaping Ding
Qinghong Shen
Sidan Du
Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case study
Journal of Low Frequency Noise, Vibration and Active Control
author_facet Huaping Ding
Qinghong Shen
Sidan Du
author_sort Huaping Ding
title Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case study
title_short Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case study
title_full Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case study
title_fullStr Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case study
title_full_unstemmed Autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: A case study
title_sort autonomous main-cable vibration monitoring using wireless smart sensors for large-scale three-pylon suspension bridges: a case study
publisher SAGE Publishing
series Journal of Low Frequency Noise, Vibration and Active Control
issn 1461-3484
2048-4046
publishDate 2020-09-01
description Suspension bridges are supported by main cables that continue beyond the pillars to deck-level supports and must be anchored at each end of the bridge. The dynamic characteristics of the main cables are key indicators used to assess the structural health status of a bridge. In situ real-time health monitoring is an effective way to assess the dynamic characteristics. This paper presents a case study using vibration-based wireless smart sensors deployed on the main cables of a large-scale three-pylon suspension bridge to obtain its dynamic features. The methods of anti-aliasing filtering, statistical analysis and main cable tension force estimation were proposed and embedded into wireless smart sensors to provide autonomous data processing. According to the analysis of the vibration data from the main cables, the results demonstrate that the main cables have been in a stable state over time, and wireless smart sensors are promising for autonomous main-cable monitoring of large-scale three-pylon suspension bridges.
url https://doi.org/10.1177/1461348418813760
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AT qinghongshen autonomousmaincablevibrationmonitoringusingwirelesssmartsensorsforlargescalethreepylonsuspensionbridgesacasestudy
AT sidandu autonomousmaincablevibrationmonitoringusingwirelesssmartsensorsforlargescalethreepylonsuspensionbridgesacasestudy
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