Study on the Method for Calculating Shear Strength of RC Beams Strengthened with Externally Prestressed Wire Rope

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Abstract:

Through shear test data analysis of 13 RC beams Strengthened with externally prestressed wire rope, shear failure mechanism was elaborated, and shear bearing capacity of reinforced beams were not only calculated respectively by truss -arch model and other simplified calculation methods, but also were compared with test data. Based on the result of comparation, shear capacity calculation method of RC beam Strengthed with externally prestressed wire rope was discussed. The analysis results show that the mechanism of the wire rope shear externally prestressed reinforced concrete beams against the shear is similar with stirrups inside beam. When the shear span ratio is less than 2.7, the static average ratio of the truss-arch model shear capacity caculation value and tested value is 1.02, and standard deviation statistics is 0.07. In another word, calculation value agree with experimental value. When the shear span ratio is larger than 2.7, the calculation value is bigger than test.

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1442-1446

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September 2011

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© 2011 Trans Tech Publications Ltd. All Rights Reserved

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[1] Xingguo Wang, Zhaoyang Zhou and Xiantao Zeng: Building Scientific Research of Sichuan.Vol.5 (2005), pp.46-49 (In Chinese)

Google Scholar

[2] Tong Zhao, Jian Xie and Ziqiang Dai: School of Civil Engineering, Tianjin University. Vol.7 (2007), pp.21-25 (In Chinese)

Google Scholar

[3] Khalifa Ahmed and Antonio Nanni. Construction and Building Materials. Vol.3 (2002), pp.135-146

Google Scholar

[4] Min Liu, Jianguang Guan and Fuquan Xu: Anti-seismic and Reinforcement and Reconstruction of Engine- ering. Vol.10 (2006), pp.50-54 (In Chinese)

Google Scholar

[5] Lijuan Xu: Shandong Metallurgy.Vol.8 (2002), pp.44-46 (In Chinese)

Google Scholar

[6] Liangtao Piao,Yuehong Wang. Journal of Huazhong University of Science and Technology, Vol.23 (2007), pp.35-38(In Chinese)

Google Scholar

[7] S.Y. Kim, etc. Engineering Structures, Vol.29 (2007), pp.2711-2722

Google Scholar

[8] People's Republic of industry standards: Standards Methods for Testing of Concrete Structure (GB 50152-1992)(China Communication Press, Beijing 1992) (In Chinese)

Google Scholar

[9] Jianshu Ye: Principles of structure design(China Communication Press, Beijing 2005)(In Chinese)

Google Scholar

[10] Pingyi Jia, Yantao Li, Lijun Wang: Journal of Hebei Institute of Architecture Civil Engineering .Vol.19 (2001), pp.7-9(In Chinese)

Google Scholar

[11] Tiecheng Wang, Guyi Kang: Building Structure. Vol.30 (2000), pp.31-33(In Chinese)

Google Scholar

[12] Jinxin Gong, Weiwei Wei, Shangchuan Zhao: Modern concrete structure and application of basic theory. (China Architecture & Building Press, Beijing 2009)(In Chinese)

Google Scholar

[13] People's Republic of Industry Standards: Design Code for Strengthening Concrete Structure (GB 50367-2006) (China Architecture & Building Press, Beijing 1992(In Chinese)

Google Scholar

[14] ACI Committee 318: Building Code Requirements for Structural Concrete (ACI 318-05) and Commentary (ACI 318R-05) (American Concrete Institute, 2005)

DOI: 10.1061/(asce)1076-0431(1996)2:3(120.3)

Google Scholar

[15] The European Standard EN 1992-1-1:2004. Eurocode 2: Design of Concrete Structures (British Standards Institution, 2004).

Google Scholar