Research on the Overall and Local Mechanical Behaviors of Steel Box Girder Cable-Stayed Bridge via Incremental Launching Construction

  • Piyun Zhang Yunnan Jiaotou Highway Construction Sixth Engineering Co., LTD
  • Xinwen Jiang Yunnan Jiaotou Highway Construction Sixth Engineering Co., LTD
  • Huilian Gan Yunnan Jiaotou Highway Construction Sixth Engineering Co., LTD
Article ID: 333
1057 Views, 104 PDF Downloads
Keywords: Incremental Launching Construction, Steel Box Girder Bridge, Overall Stress Analysis, Local Stress Analysis, Elastic Cushion, Safety

Abstract

In this paper, a large-span cable-stayed bridge with double pylons and double cable planes is employed to study the overall and local mechanical behaviors. The steel box girder bridge is constructed by incremental launching with the maximum span of 50 m. Through the overall stress analysis, the most unfavorable stress position of the structure in the incremental launching construction is identified; the refined local stress analysis is carried out for the girder section at this position, and the local stress characteristics of the structure are studied. The mechanical performance and the applicability of incremental launching are determined by comparing four kinds of elastic cushion. This paper aims at improving the safety of incremental launching construction of steel box girder bridge, and can provide reference for similar projects.

References

Xu T. Research on big-span steel box girder mechanical characteristics and construction monitoring (in Chinese). Changsha University of Science & Technology; 2011.

Xie F. Influence analysis of the incremental launching of steel box girder and local stability control (in Chinese). International Conference on Civil, Architecture and Environmental Engineering; 2016.

Liu Y, Fan X. Dynamic reliability prediction for the steel box girder based on multivariate Bayesian dynamic Gaussian copula model and SHM extreme stress data (in Chinese). Structural Control & Health Monitoring 2020; 27(6): 556–589.

Zhou L, Chen L,Xia Y, et al. Temperature-induced structural static responses of a long-span steel box girder suspension bridge. Journal of Zhejiang University - Science A 2020; 21(7): 580–592.

Benmohammed N, Ziane N, Meftah SA, et al. Distortional effect on global buckling and post -buckling behaviour of steel box beams. Steel and Composite Structures 2020; 35(6): 717–727.

Wang J, Xiang H. Geometric state transfer method for construction control of a large-segment steel box girder with hoisting installation (in Chinese). Journal of Zhejiang University - Science A 2020; 21(5): 382–391.

Wang H, Zhu Q. Temperature distribution analysis of steel box-girder based on long-term monitoring data (in Chinese). Smart Structures and Systems 2020; 25(5): 593–604.

Rosignoli M. Bridge launching. London: Thomas Telford Publishing; 2002.

Fontan AN, Diaz JM, Baldomir A, et al. Improved optimization formulations for launching nose of incrementally launched prestressed concrete bridges. Journal of Bridge Engineering 2011; 16(3): 461–470.

Granata MF, Margiotta P, Arici M. A parametric study of curved incrementally launched bridges. Engineering Structures 2013; (49): 373–384.

Jung KH, Kim KS, Sim CW, et al. Verification of incremental launching construction safety for the Ilsun Bridge, the world’s longest and widest prestressed concrete box girder with corrugated steel web section. Journal of Bridge Engineering 2011; 16(3): 453–460.

Wang J, Lin J, Xu R. Incremental launching construction control of long multispan composite bridges (in Chinese). Journal of Bridge Engineering 2015; 20(11): 165–178.

Ding S, Fang J, Zhang S, et al. A construction technique of incremental launching for a continuous steel truss girder bridge with suspension cable stiffening chords (in Chinese). Structural Engineering International 2020; (10): 1–6.

Schmidt H. Foundation and substructures of Hochmosel-Bridge - design and construction. Olaf Bautechnik 2019; 96: 21–30.

Chai H, Song Y. Mechanical analysis for incremental launching construction of long-span continuous steel truss bridge. International Conference on Mechanics and Architectural Design (MAD); 2017.

Liang S, Lv G, Lin Y et al. Research on reasonable connections between webs and bottom plates in pre-pressed concrete composite box girder with corrugated steel webs. International Conference on Material Science and Civil Engineering (MSCE); 2017.

Zhang P. Force analysis and research of key problems in the incremental launching construction of bridge (in Chinese). Southwest Jiaotong University; 2014.

Li C, Wang J, Dong C, et al. Combining Ansys with MATLAB to simulate and optimize the process of steel-box girder bridge by incremental launching method (in Chinese). Computer and Communications 2008; (6): 136–142.

Song Y. Study on structural performance of steel box girder bridge during the incremental launching construction stage (in Chinese). Beijing Jiaotong University; 2010.

Qu Y. Calculation and analysis on the steel box girder of span cable-stayed bridge incremental launching method (in Chinese). Southwest Jiaotong University; 2017.

GB 50017:2017 Standard for design of steel structures.

Published
2023-10-21
How to Cite
Zhang, P., Jiang, X., & Gan, H. (2023). Research on the Overall and Local Mechanical Behaviors of Steel Box Girder Cable-Stayed Bridge via Incremental Launching Construction. Insight - Civil Engineering, 6(1). https://doi.org/10.18282/ice.v6i1.333
Section
Articles