Construction and Design of a Cable-Stayed Bridge with Concrete-Filled Steel Tube as a Main Girder

Bo Tian, Ge Wang, Kai Wen, Ting Zhou

PDF(1788 KB)
PDF(1788 KB)
Prestress Technology ›› 2024, Vol. 2 ›› Issue (1) : 27-40. DOI: 10.59238/j.pt.2024.01.003
Scientific Research

Construction and Design of a Cable-Stayed Bridge with Concrete-Filled Steel Tube as a Main Girder

Author information +
History +

Abstract

Herein, a main girder structure for a cable-stayed bridge with concrete-filled steel tubes serving as the main longitudinal ribs is proposed. The feasibility of this structure is verified by calculation and analysis. Then, economic analysis of this structure compared with other types of cable-stayed bridges with main girder structures of the same kind of span is carried out. The results show that the structure is feasible and econom-ical, and it has superior seismic performance, especially in high-intensity and complex mountainous terrain regions in western China.

Keywords

cable-stayed bridge / composite structure / concrete-filled steel tube / cable-girder anchorage / shear lag / initial stress / shear stud / economic index

Cite this article

Download citation ▾
Bo Tian, Ge Wang, Kai Wen, Ting Zhou. Construction and Design of a Cable-Stayed Bridge with Concrete-Filled Steel Tube as a Main Girder. Prestress Technology, 2024, 2(1): 27‒40 https://doi.org/10.59238/j.pt.2024.01.003

References

[[1]]
Yan G. Modern Cable-Stayed Bridge; Southwest Jiaotong University Press: Chengdu, 1996.
[[2]]
Xiang H. Conceptual Design of Bridge; China Communications Press: BeiJing, 2011.
[[3]]
Yu J. The Bridge Type Quadrant Diagram and New Basic Bridge Type: Umbrella Truss Bridge. Prestress Technology 2023, 1, 15-29, doi:10.59238/j.pt.2023.03.002.
[[4]]
Han L. Concrete Filled Steel Tubular Structures-Theory and Practice, 3rd Edition ed.; Science Press: BeiJing, 2016.
[[5]]
Tian B.; Zhou T.; Wen K. Study on Key Technology of Assembling Installation of Long-Span Composite Girder Cable-Stayed Bridge. Prestress Technology 2023, 1, 81-88, doi:10.59238/j.pt.2023.01.007.
[[6]]
Zhou S.; Liu Q.; Chen Z. Effect of Initial Stress on Bearing Capacity of Dumbbell Concrete-Filled Steel Tube Arch Bridge. Engineering Mechanics 2008, 25, 159-165+178.
[[7]]
Xu Z. Elasticity, 5th Edition ed.ed.; Higher Education Press: BeiJing, 2016.
[[8]]
Liu Y.; Chen C.; Zheng S. Analysis of Force Mechanism of Pylon Anchorage Structure of Fixed-End Steel Anchor Box Type. Bridge Construction 2015, 33-38.
[[9]]
Jiang J.; Ou Q. Refined Force Analysis of Composite Beam of Long Span Wide Cable-Stayed Bridge. Municipal Engineering Technology 2019, 37, 72-75,81, doi:10.3969/j.issn.1009-7767.2019.04.025.
[[10]]
Ning B.; Dai H. Analysis of Shear Lag Effect in Deck Slabs of Cable-Stayed Bridge with Steel Plates and Concrete Slabs Composite Girders. World Bridges 2023, 51, 82-88, doi:10.20052/j.issn.1671-7767.2023.02.013.
[[11]]
Dai W.; Xiao W.; Yang H.; Zhang S. Shear Lag Effects of Cable-Stayed Bridge with П-shape Cross-Section Main Girder. Journal of Transport Information and Safety 2009, 27, 165-168, doi:10.3963/j.ISSN1674-4861.2009.04.039.
PDF(1788 KB)

Accesses

Citations

Detail

Sections
Recommended

/