Simulation and Numerical Analysis on Anti-Float Anchor by Field Rock and Soil Tests

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Abstract:

This paper introduces the stress and deformation of anti floating anchor rod and explained the damage. Through field testing and numerical analysis, the article were studied the displacement and internal force of a basement tensile anti float anchor, results showed that: the axial force of bolt tension transfer is top-down transfer, axial force decreases, the stress concentrate on the end. When a force is applied to a certain load, end firstly generate damage, but with the deepening of the axial force, it is greatly reduced, which indicates that the anchor force is an effective length, rather than the longer the anchor pullout force is bigger; anchor group effect is a problem that can not be ignored, because the engineering community for its attention degree is not enough, so that the design of anti floating anchor the lack of a reliable basis, the test results can provide a reference for the future design of anti floating anchor. Prestressed anchors in the tension lock, prestressed loss are regularly.

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671-675

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October 2014

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© 2014 Trans Tech Publications Ltd. All Rights Reserved

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[1] Chen Xiaoxian. In the application of soil anchor anti floating structure [J]. The construction of Fujian science and technology, 2001, (4): 3-4.

Google Scholar

[2] Guo Xianyi, Zhang Xiaoping. Vertical anti floating anchor rod construction process engineering exploration[J]. Construction technology, 2007, 38 (3): 204-206.

Google Scholar

[3] Peng Tao, Wuwei, Chen Deba, et al. Application of anti float anchor prestress under complicated geological conditions[J]. Engineering Technology, 2000, (2): 31-33.

Google Scholar

[4] Yao Zhigang. Issues about the buoyancy of groundwater[J]. Ground and foundation, 2007, 21 (3): 319-324.

Google Scholar

[5] Li Guangxin, Wu Zhaomin. Buoyancy calculation and effective stress principle in clay[J]. geotechnical engineering technique, 2003, (2): 63-66.

Google Scholar

[6] Qiu Xiangrong, Deng, Huang Pingan. Discussion on several problems of groundwater buoyancy calculation [J]. Guangdong architecture and civil engineering, 2004, (11): 21-23.

Google Scholar