Simulation Behaviour of Precast Concrete Connection with Embedded Box Section under Static Loading
DOI:
https://doi.org/10.11113/jt.v74.4543Keywords:
Precast concrete connection, embedded steel box sectionAbstract
This study is concerned with 18 precast concrete beam-column connections incorporating embedded steel box-section using Finite Element (EF) modelling. The variables considered were: length and width of the embedded steel member. The results indicate that connection containing a wider flange of the embedded member can resist more vertical loading. Also, the deflection at ultimate load increases as the width of the embedded steel section increase. Generally, there are a few design methods available in the codes; this study also evaluates the available design formulas using FE simulation results and the data from other researchers. From the evaluation and the analysis it was shown that twice the width of the embedded width should be taken as the effective width of the connection when the PCI (Precast Concrete Institute) design equations are used. Â
References
2004. PCI Design Handbook. 6th. Chapter 6: 54–57.
Marcakis, K. and Mitchell, D. 1980. Precast Concrete Connections with Embedded Steel Members. J. Precast and Presterssed Institute. 25(4): 88–116.
Mattock, A. H., and Gaafar, G. H. 1982. Strength of Embedded Steel Sections as Brackets. ACI Journal. 79(2): 83–93.
Lemieux, K. and Sexsmith, R. 1998. Behaviour of Embedded Steel Connectors in Concrete Tilt-up Panels. ACI Structural Journal. 95(4): 400–411.
Harries, K. A., Gong, B., and Shahrooz, B. M. 2000. Behavior and Design of Reinforced Concrete, Steel, and Steel-Concrete Coupling Beams. Earthquake Spectra. 16(4): 775–799.
Shahrooz, B. M., Fortney, P J., and Passati, G. A. 2001. Seismic Performance of Hybrid Shear Wall Buildings. Sons Inc. 441–582.
Gong, B., and Shahrooz, B. M. 2001. Steel-Concrete Composite Coupling Beams- Behaviour and Design. Engineering Structures. 23(11)1: 480–1490.
Park, W. S., Yun, H. D., Hwang, S. K., and Han, B. C., Yang, S. 2004. Shear Strength of the Connection between a Steel Coupling Beam and a Reinforced Concrete Shear Wall in a Hybrid Wall System. Journal of Constructional Steel Research. 61(7): 912–941.
Park, W. S., and Yung, H. D. 2005a. Bearing Strength of Hybrid Coupling Shear Wall Connections. Journal of The Korea Concrete Institute. 17(65): 1065–1074.
Park, W. S., and Yung, H. D. 2005b. Seismic Behaviour of Coupling Beams in a Hybrid Coupling Shear Walls. Journal of Construction Steel Research. 62(10): 1492–1524.
Park, W. S., and Yung, H. D. 2005c. Seismic Behaviour of Steel Coupling Beams Linking Reinforced Concrete Shear Walls. Engineering Structures. 62(10): 1024–1039.
Park, W. S., and Yung H. D.2006a. The Steel Coupling Beam-Wall Connection Strength. Journal of The Korea Concrete Institute. 62(10): 135–145.
Park, W. S., and Yung, H. D. 2006b. Panel Shear Strength of Steel Coupling Beam-Wall Connections and a Hybrid Wall System. Journal of Construction Steel Research. 62(10): 1026–1038.
Park, W. S., and Yung H. D. 2006c. Bearing Strength of Steel Coupling Beam Connections Embedded Reinforced Concrete Shear Wall. Engineering Structures. 28(9): 1319–1334.
Elliot, K. S. 2002. Precast Concrete Structures. Chapter 9. 300–315.
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