Ultimate Load Capacity of the Cable Tower of Liede Bridge
Commenced in January 2007
Frequency: Monthly
Edition: International
Paper Count: 32799
Ultimate Load Capacity of the Cable Tower of Liede Bridge

Authors: Weifeng Wang, Xilong Chen, Xianwei Zeng

Abstract:

The cable tower of Liede Bridge is a double-column curved-lever arched-beam portal framed structure. Being novel and unique in structure, its cable tower differs in complexity from traditional ones. This paper analyzes the ultimate load capacity of cable tower by adopting the finite element calculations and model tests which indicate that constitutive relations applied here give a better simulation of actual failure process of prestressed reinforced concrete. In vertical load, horizontal load and overloading tests, the stepped loading of the tower model is of linear relationship, and the test data has good repeatability. All suggests that the cable tower has good bearing capacity, rational design and high emergency capacity.

Keywords: Cable tower of Liede Bridge, ultimate load capacity, model test, nonlinear finite element method

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1077697

Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 2070

References:


[1] Song Aiqing and WANG Jiying. Design of Modelling of Cabe Bent Tower of Extra Brige Over Liaohe River on Coastal Highway (J) Northern Communications 2009 (2) 86-89.
[2] Ying Zhiqing. Innovative Technics for Single Tower of Self-Anchored Suspension Bridge (J) Highway 2009 (2) 25-28.
[3] Zhao Donghai. Cantilever Formwork Construction Technology of Special-shaped Main Tower for Self-anchored Suspension Bridge (J) Railway Construction Technology 2009 (8) 47-50.
[4] Zhang Zhe and Wu Hongye et al. Tower Lifting Construction Analysis of A New Type Self-anchored Suspension Bridge (J) Journal of Wuhan University of Technology (Transportation Science & Engineering) 2009 (1) 21-24.
[5] Zhou Xinya. Full-scale segmental model experimental research on anchorage zone of cable tower of Shanghai MinPu Second Bridge (J) Shanghai Highways 2009 (2) 19-22.
[6] Zhang Guangqiao. Construction for Pylon of No.3 Yellow River Bridge in Jinan City (J) Highway 2009(11)71-76.
[7] Xiong Gang and Xie Bin et al. Space Analysis of Steel Anchor Box for Cable-tower Anchorage of Tianjin Baoding Bridge (J) Journal of Huazhong University of Science and Technology (Urban Science Edition) 2009 (4) 80-83.
[8] Xu Aimin, Chen Hengzhi and Xie Xu. Calculation Method for Ultimate Bearing Capacity of Structure and Its Convergence (J) China Journal of Highway and Transport 2006 (5) 65-70.
[9] Liu Yi and Li Aiqun et al. Investigation of FE Modeling Method for Tower Structure of Suspension Bridge 1. initial model (J) Special Structures 2006 (1) 78-81.
[10] Qiu Wenliang; Jiang Meng and Zhang Zhe. Influencing factors of ultimate load carrying capacity of self-anchored concrete suspension bridge (J) Journal of Harbin Institute of Technology 2009(8)128-131.
[11] Wu Feng and Dai Gonglian. Design and Space Stress of Self-Anchored Suspension Bridge's Maintower (J) East China Highway 2008(5)3-6.
[12] Liu Yongjian et al. Integral model test of steel truss bridge stiffened with rigid cables in construction stage (J) China Civil Engineering Journal 2010 (2) 72-78.
[13] Wang Huili and Qin Sifeng et al. Experiment Research on Self-anchored Cable-stayed Suspension Bridge Model (J) Journal of Wuhan University of Technology (Transportation Science & Engineering) 2010 (1) 57-59.
[14] Kang Houjun and Zhao Yueyu et al. Loading Method Study of the Model Test of Xiangtan Xiangjiang 4th Bridge (J) Journal of Hunan University (Natural Sciences) 2007 (10) 25-30.