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Numerical Analysis of Regular Wave Effects on Different Types of Deep Water Piers |
ZUO Sheng-rong1, LIU Jie2,3, YANG Ji-xin2 |
1. Hubei Provincial Road & Bridge CO., LTD., Wuhan Hubei 430056, China;
2. School of Transportation, Wuhan University of Technology, Wuhan Hubei 430063, China;
3. CCCC Taixing Investment Construction Co., Ltd., Taizhou Jiangsu 225400, China |
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Abstract Wave force effects vary with regular waves on different sections of bridge piers of different sizes in deep water. To solve this problem, this study calculates the wave forces in deep water piers under different wave parameter conditions, as well as the value of wave forces in the different sections of piers, using the computational fluid dynamic numerical analysis method. Results show that in the case of other conditions being the same, the section sizes and wave force are large. With increasing wave length and wave height, wave forces basically multiply. On the free surface at the pier bottom, wave forces gradually decrease to zero. Wave forces are loaded on piers with different sizes. The maximum displacement at the pier top is small, and the maximum stress increases at the pier bottom. The natural frequency is high.
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Received: 26 January 2016
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Fund:Supported by the Project of National High Technology Research and Development Program (863) (No. 2007AA11Z107) |
Corresponding Authors:
ZUO Sheng-rong,E-mail address:zola1028@sina.com
E-mail: zola1028@sina.com
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[1] YI Jia-xun. Fluid Mechanics[M]. ZHANG Ke-ben, et al translated. Beijing:Higher Education Press, 1983. (in Chinese)
[2] DEAN R G. Relative Validities of Water Wave Theories[J]. Journal of Waterways, Harbors and Coastal Engineering Division, 1970, 96(1):105-119.
[3] LI Yu-cheng, HE Ming. Positive Wave Force acting on the Small-scale Square Column[J]. Acta Oceanologica Sinica,1996,18(3):107-119. (in Chinese)
[4] WANG Jun-jie. Several Methods for Solving Acoustic Scattering Problems and Numerical Model of Wave Force Acting on Large Scale Cylinder[D]. Xi'an:Northwest University, 2008. (in Chinese)
[5] ZUO Qi-hua. Nonlinear Wave Loads on Square Cylinder[J]. The Ocean Engineering,1993, 11(1):50-57. (in Chinese)
[6] JTJ 213-9, Seaport Hydrology Specification[S].
[7] ZHOU Xi-reng, SUN Ke-li, CHENG Qing-yang, et al. The Mechanical Mechanism and Numerical Analysis of Large Cylindrical Shell Structure System[J]. Journal of Tianjin University, 1996(Sl):56-63. (in Chinese)
[8] ZHAO Yao-nan. Wave-period for Maximum Wave-load Acting on Piles[J]. Acta Oceanologica Sinica, 1981,3(3):487-499. (in Chinese)
[9] SHEN Qing, CHEN Xu-jun. Dynamic Analysis of a Mooring Multi-body System Coupled with Fluid and among Bodies[J]. Shipbuilding of China, 2002, 43(2):81-84. (in Chinese)
[10] YAN Chao, YU Jian. ON the Achievements and Prospects for the Methods of Computational Fluid Dynamic[J]. Advances in Mechanics, 2011,41(5):562-589. (in Chinese)
[11] SHEN Hui-ming, ZHAO De-you, LUO Zhi-yong. Solution to Eigenvalues of Fluid-solid Coupling Vibration Problem[J]. Journal of Dalian University of Technology, 1990, 30(3):369-372. (in Chinese)
[12] YASUZAWA Y, SAITO Y. Vibration Analysis of Stiffened Plate in Contact with Water Using Finite Elements and Boundary Elements[J]. Transaction of the West-Japan Society of Naval Architects, 1993,42(86):147-160
[13] YANG Ji-xin, LEI Fan. Analysis of Vibration of Underwater Bridge Pier Structure[J]. World Bridges, 2009, 3(3):40-42. (in Chinese)
[14] YAN Kai,ZOU Zhi-li,LI Xian-li. The Results Contrast with Different Theory Formula of Second-order Diffraction Wave Force[J].Engineering Mechanics, 2013,30(4):31-37. (in Chinese)
[15] JU Gen-guo, LÜ Feng-wu, WANG Bin. Random Dynamic Response Analysis on Steel-pipe Pile Construction Platform Based on Wave Force[J]. Journal of Railway Science and Engineering, 2006, 3(5):70-74. (in Chinese) |
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