THE NECESSITY OF TRANSVERSE STEEL REINFORCEMENT FOR CONFINEMENT IN STRUCTURAL REINFORCED CONCRETE WALLS USING NONLINEAR STATIC AND DYNAMIC ANALYSIS METHOD

Himan Mohammad Eisa, Hajir Mohammad Eisa

DOI Number
https://doi.org/10.2298/FUACE200817012M
First page
161
Last page
175

Abstract


Reinforced concrete walls are one of the most efficient  and  earthquake-resistant systems. In order to provide adequate performance against seismic forces, their ductility should be provided by considering some design principles. Since confining the concrete increases the ductility of the reinforced concrete members, design instructions try to increase the ductility of the wall by utilizing transverse rebars in  a certain length of wall edges. In this study, the need for the transverse steel bars to apply confinement in concrete is compared with the equations suggested by previous studies for the displacement-based design of structural bearing walls. For this purpose, nonlinear static analysis and time history analysis was utilized. The results of the study indicate that the lateral deformation of the structural bearing walls  is less than the final limit specified by the design codes, even without considering the transverse steel bars for concrete confinement.


Keywords

Reinforced concrete structural wall, Nonlinear dynamic analysis, Pushover, OpenSees

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References


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