A study on the seismic effect of the rubber damping layer in a shallow-buried and unsymmetrial pressure tunnel based on a shaking table test

被引:0
|
作者
Jiang, Xueliang [1 ,2 ]
Yang, Hui [1 ,2 ]
Yu, Lei [2 ,3 ]
Qin, Shihui [2 ]
Shen, Bo [2 ]
Wang, Haodong [2 ]
Lin, Hang [4 ]
机构
[1] School of Civil Engineering and Engineering Management, Guangzhou Maritime University, Guangzhou,510725, China
[2] School of Civil Engineering, South Central University of Forestry and Technology, Changsha,410004, China
[3] Design and Research Institute Branch, Poly Changda Engineering Co.,Ltd., Guangzhou,510640, China
[4] School of Resources and Safety Engineering, Central South University, Changsha,410083, China
来源
关键词
Arches - Seismic response - Seismic waves - Trenching - Tunnel linings;
D O I
10.13465/j.cnki.jvs.2024.20.020
中图分类号
学科分类号
摘要
Based on the shaking table model tests of a shallow-buried and unsymmetrial pressure tunnel with and without a rubber damping layer whose geometric similarity ratio is 1 : 20, the damping coefficient change laws of the rubber damping layer on the tunnel lining's acceleration and strain were studied and the seismic reduction effect of the rubber damping layer were evaluated. The research conclusions are as follows.(1) The rubber damping layer does not change the trend of the acceleration time history curve at the inverted arch, but significantly reduces its peak horizontal and vertical acceleration response. Regardless of the type of seismic wave, the intensity of seismic excitation, and the location of the tunnel lining, the rubber damping layer can significantly reduce the horizontal and vertical acceleration response.(2) Regardless of the type of seismic wave and excitation intensity, the horizontal and vertical acceleration damping coefficients of the left arch shoulder of the tunnel lining are much larger than those of the right arch shoulder, which is related to the tunnel being in an eccentric compression state. The impact of seismic wave types on the horizontal acceleration damping coefficient is greater than that on the vertical acceleration damping coefficient.(3) There is no significant correlation between the acceleration damping coefficient and the seismic excitation intensity, but from a trend perspective, as the excitation intensity increases, the damping coefficient tends to decrease.(4) Regardless of the type of seismic wave, the intensity of seismic excitation, and the location of the lining, the rubber damping layer has significant reduction effect on the maximum and minimum principal strains. There is no significant correlation between the maximum and minimum principal strain damping coefficients of the lining and the excitation strength, but overall, the damping coefficient shows a trend of weakening with the excitation strength.(5) The rubber damping layer can play excellent damping effect in the shallow-buried and unsymmetrial pressure tunnel, and its damping effect is closely related to seismic strength, material parameters of the damping layer, and stress environment. These conclusions can provide a certain reference for the application of rubber damping layer in tunnel engineering. © 2024 Chinese Vibration Engineering Society. All rights reserved.
引用
收藏
页码:192 / 199
相关论文
共 50 条
  • [41] Study of shaking table test of seismic subsidence loess landslides induced by the coupling effect of earthquakes and rainfall
    Xiaowu Pu
    Lanmin Wang
    Ping Wang
    Shaofeng Chai
    Natural Hazards, 2020, 103 : 923 - 945
  • [42] Study on seismic response of a novel prefabricated box culvert with split components based on shaking table test
    Wu, Xiufeng
    Lu, Linlin
    Jin, Jiaxu
    Liu, Chengyang
    Ding, Zijun
    Ji, Peng
    JOURNAL OF BUILDING ENGINEERING, 2024, 84
  • [43] Numerical Study on Water Sealing Effect of Freeze-Sealing Pipe-Roof Method Applied in Underwater Shallow-Buried Tunnel
    Hong, Zequn
    Zhang, Jun
    Han, Lei
    Wu, Yuanhao
    FRONTIERS IN PHYSICS, 2022, 9
  • [44] Experimental and numerical study on the seismic response reduction effect of TMD on nuclear cabinets using shaking table test
    Go, Chaeyeon
    Kwag, Shinyoung
    Kwak, Jinsung
    Oh, Jinho
    Lee, Sangwoo
    Ju, Bu-Seog
    CASE STUDIES IN CONSTRUCTION MATERIALS, 2024, 21
  • [45] Study on seismic response characteristics of living stumps slope based on large-scale shaking table test
    Hui Yang
    Jun Yin
    Xueliang Jiang
    Bo Shen
    Haodong Wang
    Zhenzhen Wei
    Scientific Reports, 14 (1)
  • [46] Study of construction technology and mechanical effect of Guanjiao tunnel in shallow-buried sandy stratum in Xining-Golmud 2nd line
    Han Xian-min
    ROCK AND SOIL MECHANICS, 2010, 31 : 297 - 302
  • [47] Study of ground motion effect of trapezoidal valley site based on centrifuge shaking table test
    Li Ping
    Zhang Yu-dong
    Bo Tao
    Gu Jun-ru
    Zhu Sheng
    ROCK AND SOIL MECHANICS, 2020, 41 (04) : 1270 - +
  • [48] Effect of Soil-Bridge Interactions on Seismic Response of a Cross-Fault Bridge: A Shaking Table Test Study
    Guo, Kunlin
    Li, Xiaojun
    Wang, Ning
    Wen, Zengping
    Wang, Yanbin
    BUILDINGS, 2024, 14 (06)
  • [49] A study on restraining deformation of the seismic-isolated layer of houses based on shaking table of a full-scale house
    Takahashi, Takehiro
    Amano, Takahito
    Fukuwja, Nobuo
    Journal of Structural and Construction Engineering, 2014, 79 (699): : 565 - 574
  • [50] Shaking table test study on the seismic control of concrete-filled steel tube arch bridges based on dampers
    Li, Yong
    Song, Cheng
    Song, Linlin
    Zhao, Xiaosha
    Guan, Zhongzheng
    Wang, Yichao
    ARCHIVES OF CIVIL AND MECHANICAL ENGINEERING, 2024, 24 (02)