Shaking Table Tests on Chinese Ancient Tenon-Mortise Structure Strengthened by Steel Components

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Abstract:

In order to protect Chinese ancient building, steel components were considered to strengthen its tenon-mortise joints and the strengthening effects were studied by shaking table tests.Based on actual sizes of an ancient building,a wooden frame model with a scale of 1:8 of the prototype structure was built considering Yan-wei type of tenon-mortise connections.Steel components were used to strengthen tenon-mortise joints of the model to enhance its stability.By white noise excitation values of basic frequency for model in both strengthened and unstrengthened conditions were obtained;By inputing El-Centro earthquake waves of different peak acceleration values,responses of displacement and acceleration for typical nodes of the model were obtained.Results show that after its tenon-mortise joints are strengthened by steel components, basic frequency of the model increases;Under earthquake the strengthened model responds with smaller peak displacement and acceleration values;With the increase of earthquake intensity,the steel components tend to perform better.Thus the steel components are effective for strengthening tenon-mortise joints of Chinese ancient buildings.

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3251-3255

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October 2012

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© 2012 Trans Tech Publications Ltd. All Rights Reserved

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[1] Q. Zhou W.M. Yan and X.S. Yang: Earthquake Resistant Engineering and Retrofitting, Vol.31 (2009), p.101

Google Scholar

[2] Z.M. Shi, Q. Zhou and H.K. Jin: Sciences of Conservation and Archaeology, Vol.21 (2009), p.15

Google Scholar

[3] Q.F. Xie, H.T. Zhao and J.Y. Xue: China Civil Engineering Journal, Vol.41 (2008), p.15

Google Scholar

[4] H.Z. Bin and B.J. Lu: Anhui Architecture, Vol.3 (2003), p.1

Google Scholar

[5] Q. Zhou and W.M. Yan:Journal of Water Resources and Architectural Engineering, Vol.9 (2011), p.1

Google Scholar