Preliminary Experimental Study of the Seismic Behavior of Reinforced Concrete Column with Distributed-Steel Bar

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Abstract:

A distributed–Steel Bar Reinforced Concrete (DSBRC) column was tested, a construction technique for composite steel and concrete material which can alleviate the difficulty for the arrangement of the stirrup in the column and the longitudinal reinforcement in the beam. An ordinary steel Reinforced Concrete (SRC) column was also tested for comparison. The specimens were subjected to quasi-static load reversals to model the earthquake effect. The hysteresis curve, resistance recession, skeleton curves and ductility ratio of columns were obtained. The experimental results present good seismic behavior of DSBRC column under cyclic loading as the square cross-section SRC column. Therefore it would be a good substitute of SRC column in civil engineering.

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2056-2062

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December 2012

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© 2013 Trans Tech Publications Ltd. All Rights Reserved

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[1] Ehab Ellobody and Ben Young: Eng Struct Vol. 28(2006), p.716–28

Google Scholar

[2] Uy B: J Constr Steel Res Vol. 57(2001), p.113–34

Google Scholar

[3] Shanmugam NE: Journal of Constructional Steel Research Vol. 57(2001), p.1041–80

Google Scholar

[4] Zeghiche J: Concrete-filled composite columns (University of Manchester, England 1988)

Google Scholar

[5] Shakir-Khalil H, MouliM: The Structural Engineer Vol. 68(1990), p.405–13

Google Scholar

[6] Zhao DZ, Wang QX and Guan P: Ind Constr Vol. 35(2005), p.84–93

Google Scholar

[7] Qingxiang Wang, Dazhou Zhao and Ping Guan: Engineering Structures Vol. 26 (2004), p.907–915.

Google Scholar

[8] Xu Chang, You-Yi Wei and Yan-Chun Yun: Construction and Building Materials Vol.28(2012), p.88–95

Google Scholar

[9] Hongtuo Qi, LanhuiGuo, JiepengLiu, DanGan and SumeiZhang: Thin-Walled Structures Vol. 49 (2011), p.1141–1150.

Google Scholar

[10] Qing Yua, Zhong Taob and Ying-Xing WuL: Thin-Walled Structures Vol. 46(2008), p.362 – 370.

Google Scholar

[11] ANSI/AISC 360-05: Specification for structural steel buildings (American Institute of Steel Construction, Chicago USA 2005)

Google Scholar

[12] Eurocode 4: Design of composite steel and concrete structures, part 1.1: general rules and rules for building. BS EN 1994-1-1 (British Standards Institution, London 2004)

DOI: 10.1680/dgte4.31517

Google Scholar

[13] Serkan Tokgoz and CengizDundar: Thin-Walled Structures Vol 48(2010), p.414–422

Google Scholar

[14] Zhong Tao, Brian Uy, Fei-Yu Liao b and Lin-Hai Han: Journal of Constructional Steel Research, Vol. 67(2011), p.1719–1732

Google Scholar

[15] Lin-Hai Han, Wen-Da Wanga and Xiao-Ling Zhao: Engineering Structures Vol. 20(2008), p.1647–1658

Google Scholar

[16] Hsuan-Teh Hu, Chiung-Shiann Huang and Zhi-Liang Chen: Journal of Constructional Steel Research Vol 61(2005), p.1692–1712.

Google Scholar

[17] Bu Nannan: Construction Technology Vol. 39(2010), pp.89-92. in Chinese

Google Scholar

[18] GB50152 : The Standard Methods for Testing of Concrete Structures (China Building Industry Press, China 1992). in Chinese

Google Scholar

[19] JGJ101-96: Specific criterion of Testing Methods for Earthquake Resistant Building (China Building Industry Press, China 1997). in Chinese

Google Scholar

[20] Zheng Wenzhong and Ji Jing: Earthquake Engineering and Engineering Vibration Vol. 7(2008/), pp.67-75

Google Scholar