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Vertical Effects of Large Cable-stayed Bridges |
MIAO Wei, LIU Ping |
Jiangsu University of Science and Technology, Zhenjiang Jiangsu 212005, China |
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Abstract Vertical effects significantly affect the design and static analysis of large cable-stayed bridges. In the design of large cable-stayed bridges, the impact of cable sag must be considered. Generally, the Ernst equation is suitable when considering the cable sag effect for small spans (or the ratio of cable weight to tension). The Ernst formula assumes that a sag is a parabola curve and disregards the components of gravity. This assumption is inaccurate for some large-span bridges, and other accurate algorithms must thus be considered for analysis. In this work, the gravity and tensile force of cables are considered for long-span cable-stayed bridges. Furthermore, the effects of gravity on the directions of normal cables are considered. Analyses show that the gravitational components for cable directions should not be disregarded if the ratio of cable weight to tension force is large.
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Received: 22 July 2016
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Fund:Supported by the Research on the FSI Priciple of Membrane Structure Based on the Compressible Air Flow (No. 51508238) |
Corresponding Authors:
MIAO Wei,E-mail address:382349957@qq.com
E-mail: 382349957@qq.com
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[1] Geometric Nonlineraity Static Analysis of Long-span Cable-stayed Bridge at Construction Stage[D]. Chengdu:Southwest Jiaotong University, 2004.(in Chinese)
[2] YANG De-can, ZHANG Xian-rong, JIN Qing-ping. Calculation of Cable Force under Construction for Cable Stayed Bridges Considering Structural Geometric Non-linearity[J]. Journal of Wuhan University of Technology, 2005,29(6):833-840.(in Chinese)
[3] CAMARA A, ANGEL ASTIZ M. Applicability of the Strategies for the Elastic Seismic Analysis of Cable-stayed Bridges[J]. Revista Internacional De Metodos Numericos Para Calculo Y Diseno En Ingenieria, 2014, 30(1):42-50.
[4] MENG X, ZHANG C. Extradosed and Intradosed Cable-stayed Bridges with Continuous Cables:Conceptual Consideration[J]. Journal of Bridge Engineering, 2014,19(1):5-14.
[5] XU Li-qiang. Study of Comprehensive Mathod for Determining Reasonable Cable Force of Cable-stayed and Construction Control[D]. Wuhan:Wuhan University of Technology, 2007. (in Chinese)
[6] AHMAD J, CHENG S. Effect of Cross-Link Stiffness on the In-pane Free Vibration Behaviour of a Two-cable Network[J]. Engineering Structures, 2013, 52:570-580.
[7] ANISTOROAIEI C, HEYMEL U, JUNG R, et al. A Cable Stayed Bridge with Parallel Strand Cables:Elbe Bridge Schnebeck (Germany)-Detailed Design (part 2)[J]. Stahlbau, 2013, 82(7):522-530.
[8] CHENG B, WANG J, LI C. Compression Behavior of Perforated Plates in Steel Tower Anchorage Zones of Cable-stayed Bridges[J]. Journal of Constructional Steel Research, 2013,90(5):72-84.
[9] CHEN Zheng-qing. On-site Observation of Wind-rain Induced Vibration of Stay Cables and Its Control[J]. Journal of Architecture and Civil Engineering, 2005, 22(4):5-10. (in Chinese)
[10] GU Yin, ZHONG Hua, ZHUO Wei-dong. Lower-tower Cable-stayed Bridge Seismic Vulnerability Analysis[J]. China Civil Engineering Journal, 2012, 45(S1):218-2222. (in Chinese)
[11] HU Chuan-chao.Stayed Cable Construction Technology and Application of Low Pylon Cable-stayed Bridge[J]. West Mining Engineering, 2008, 24(4):204-209.(in Chinese)
[12] NIETO F, JURADO J A, HERNANDEZ S, et al. Application of Computational Methods in the Assessment of the Aeroelastic Response of Cable Supported Bridges[J]. Revista Internacional De Metodos Numericos Para Calculo Y Diseno En Ingenieria, 2014, 30(2):136-144.
[13] RAHEEM S E A, HAYASHIKAWA T. Energy Dissipation System for Earthquake Protection of Cable-stayed Bridge Towers[J]. Earthquakes and Structures, 2013, 5(6):657-678. |
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