Experimental and Numerical Analysis on Bending Behavior of Hybrid Bridge Deck System Composed of Transversely Connected OSD and Composite Deck

IF 1.1 4区 工程技术 Q3 CONSTRUCTION & BUILDING TECHNOLOGY International Journal of Steel Structures Pub Date : 2024-03-28 DOI:10.1007/s13296-024-00823-w
Changyuan Dai, Qingtian Su, Changyu Shao, Chunlei Zhang
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Abstract

The outer lanes and emergency lanes of the bridge deck of long-span bridges in which orthotropic steel deck is adopted were replaced with Ultra-High-Performance-Concrete (UHPC) composite deck to create a hybrid bridge deck system. A transverse connection detail was proposed to connect the two different bridge deck forms. Static bending tests and theoretical analysis were conducted on the transverse connection detail to obtain failure modes, ultimate load-carrying capacity, crack resistance, and the collaborative bending performance under positive and negative moments. A calculation method for the ultimate load-carrying capacity considering residual stresses in the UHPC after cracking was provided. The results show that the transverse connection detail has good plastic deformation capacity and collaboratively supports both sides of the bridge deck. The error in predicting the ultimate load-carrying capacity of specimens under positive bending moments using the proposed theoretical calculation method is 3.9%, and for specimens under negative bending moments, the load-carrying capacity is controlled by local buckling of the steel, with a 3.1% difference between theoretical and measured values.

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由横向连接的 OSD 和复合材料桥面板组成的混合桥面板系统弯曲行为的实验和数值分析
采用正交异性钢桥面的大跨度桥梁的外车道和应急车道被超高性能混凝土(UHPC)复合材料桥面所取代,从而形成了混合桥面系统。提出了连接两种不同桥面形式的横向连接细节。对横向连接细节进行了静态弯曲试验和理论分析,以获得失效模式、极限承载能力、抗裂性以及正负弯矩下的协同弯曲性能。考虑到开裂后 UHPC 中的残余应力,提供了极限承载能力的计算方法。结果表明,横向连接细节具有良好的塑性变形能力,并能协同支撑桥面两侧。使用所提出的理论计算方法预测正弯矩下试件的极限承载能力,误差为 3.9%;对于负弯矩下的试件,承载能力受钢材局部屈曲控制,理论值与测量值相差 3.1%。
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来源期刊
International Journal of Steel Structures
International Journal of Steel Structures 工程技术-工程:土木
CiteScore
2.70
自引率
13.30%
发文量
122
审稿时长
12 months
期刊介绍: The International Journal of Steel Structures provides an international forum for a broad classification of technical papers in steel structural research and its applications. The journal aims to reach not only researchers, but also practicing engineers. Coverage encompasses such topics as stability, fatigue, non-linear behavior, dynamics, reliability, fire, design codes, computer-aided analysis and design, optimization, expert systems, connections, fabrications, maintenance, bridges, off-shore structures, jetties, stadiums, transmission towers, marine vessels, storage tanks, pressure vessels, aerospace, and pipelines and more.
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