Research and application of rapid reconstruction technology to existing bridge guardrails based on UHPC connection

Yinggen Li, Zhiyong Li, Zheng Luo, Nan Yu

Advances in Bridge Engineering ›› 2024, Vol. 5 ›› Issue (1) : 0. DOI: 10.1186/s43251-024-00135-3
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Research and application of rapid reconstruction technology to existing bridge guardrails based on UHPC connection

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Abstract

A novel prefabricated segmental guardrail is proposed to facilitate connections between guardrails and between guardrails and bridge decks by casting ultrahigh-performance concrete (UHPC) joints in situ. Through finite element crash simulation analysis of three types of vehicles and crash tests of real vehicles, the prefabricated segmental guardrail with a UHPC connection was systematically evaluated in terms of its energy-absorbing capacity, vehicular acceleration, post-impact trajectory of the impacting vehicle, and behaviour of the guardrail upon impact. During the evaluation process, performance comparisons of the prefabricated segmental guardrails are made with the monolithic concrete guardrails. The results indicate that the performance of the prefabricated segmental guardrail with a UHPC connection was superior to that of the conventional concrete monolithic guardrails: it exhibited a higher level of crash performance, the occupants of the impacting vehicle were better protected, and the impacting vehicle exhibited better post-collision stability. Finally, the convenience of the prefabricated segmental guardrails with UHPC connections was proven in practical engineering applications.

Keywords

UHPC connection / Segmented prefabricated guardrails / Rapid construction / Finite element simulation / Crash tests of real vehicles

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Yinggen Li, Zhiyong Li, Zheng Luo, Nan Yu. Research and application of rapid reconstruction technology to existing bridge guardrails based on UHPC connection. Advances in Bridge Engineering, 2024, 5(1): 0 https://doi.org/10.1186/s43251-024-00135-3

References

[]
Bandelt MJ, Adams MP, Wang H, Najm H, Bechtel A, Shirkorshidi SM, et al (2023) Advanced Reinforced Concrete Materials for Transportation Infrastructure: Final Report. In: New JIOT, The CONJ, Rutgers U, editors
[]
Basit S, Maki T, Mutsuyoshi H, Ishihara Y, Tajima H. Influence of reinforcement arrangement details on mechanical behavior of precast concrete barrier with loop connection. Structures., 2020, 27: 1682-92,
CrossRef Google scholar
[]
Charron JP, Niamba E, Massicotte B. Static and Dynamic Behavior of High- and Ultrahigh-Performance Fiber-Reinforced Concrete Precast Bridge Parapets. J Bridge EnG., 2011, 16: 413-21,
CrossRef Google scholar
[]
Chen L, Wu H, Fang Q, Zhang T. Numerical analysis of collision between a tractor-trailer and bridge pier. Int J Prot Struct., 2018, 9: 484-503,
CrossRef Google scholar
[]
Fan J, Shirkhorshidi SM, Adams MP, Bandelt MJ. Predicting corrosion in reinforced UHPC members through time-dependent multi-physics numerical simulation. Constr Build Mater., 2022, 340: 127805,
CrossRef Google scholar
[]
Fan J, Adams M, Bandelt M (2023) “Service Life Prediction of RC and UHPC Bridge Decks Exposed to Regional Environments”. International Interactive Symposium on Ultra-High Performance Concrete 3(1):29. https://doi.org/10.21838/uhpc.16656
[]
Fang Z, Jiang H, Liu A, Feng J, Li Y. Shear-friction behaviour on smooth interface between high-strength and lightweight concrete. Mag Concrete Res., 2020, 72: 68-87,
CrossRef Google scholar
[]
Gendron F, Desmettre C, Charron J. Structural Behavior of Novel Precast TL-5 Bridge Barriers Using Ultrahigh-Performance Fiber-Reinforced Concretes. J Bridge Eng., 2022, 27: 4021113,
CrossRef Google scholar
[]
Hung C, El-Tawil S, Chao S (2021) A Review of Developments and Challenges for UHPC in Structural Engineering: Behavior, Analysis, and Design. J Struct Eng (United States) 1473121001
[]
JTG B05-01 (2013) Standard for Safety Performance Evaluation of Highway Barriers. Ministry of Transport of the People’s Republic of China, China
[]
Khodayari A, Mantawy IM, Azizinamini A. . Experimental and Numerical Investigation of Prefabricated Concrete Barrier Systems Using Ultra-High-Performance Concrete Transport Res Rec J Transport Res Board., 2023, 2677: 624-34
[]
Liu C, Itoh Y, Kusama R (2007) Modeling and Simulation of Collisions of Heavy Trucks with Concrete Barriers. J Transport Eng. 133462–8
[]
LSTC (2014) Livermore Software Technology Corporation. LS-DYNA keyword user’s manual
[]
Murray YD (2007) User’s manual for LS-DYNA concrete material model 159. United States. Federal Highway Administration. Office of Research, Development, and Technology
[]
Namy M, Charron J, Massicotte B. Structural Behavior of Bridge Decks with Cast-in-Place and Precast Concrete Barriers: Numerical Modeling. J Bridge Eng., 2015, 20: 4015014,
CrossRef Google scholar
[]
Namy M, Charron J, Massicotte B. Structural behavior of cast-in-place and precast concrete barriers subjected to transverse static loading and anchored to bridge deck overhangs. Can J Civil Eng., 2015, 42: 120-9,
CrossRef Google scholar
[]
Patel G, Sennah K, Azimi H, Lam C, Kianoush R. Development of a precast concrete barrier wall system for bridge decks. PCI J., 2014, 59: 83-102,
CrossRef Google scholar
[]
Jeon SJ, Choi MS, Kim YJ (2011) “Failure mode and ultimate strength of precast concrete barrier.” ACI Struct J 108(1):99
[]
Shao Y, Nguyen W, Bandelt MJ, Ostertag CP, Billington SL. Seismic Performance of High-Performance Fiber-Reinforced Cement-Based Composite Structural Members: A Review. J Struct Eng., 2022, 148: 3122004,
CrossRef Google scholar
[]
Sohail MG, Kahraman R, Al Nuaimi N, Gencturk B, Alnahhal W. Durability characteristics of high and ultra-high performance concretes. J Build Eng., 2021, 33: 101669,
CrossRef Google scholar
[]
Yang J, Xu G, Cai CS, Kareem A. Crash performance evaluation of a new movable median guardrail on highways. Eng Struct., 2019, 182: 459-72,
CrossRef Google scholar

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