| publication name | Nonlinear Finite Element Analysis for Reinforced Concrete Slabs Under Punching Loads |
|---|---|
| Authors | Ahmed A Mahmoud; Mohamed Said; Ahmed Salah |
| year | 2016 |
| keywords | Centric Loading; Slab Thickness; Punching Shear; Slabs; Finite Element |
| journal | International Journal of Civil Engineering & Technology (IJCIET) |
| volume | 7 |
| issue | 3 |
| pages | 392-397 |
| publisher | IAEME Publication |
| Local/International | International |
| Paper Link | https://www.researchgate.net/profile/Ahmed-Salah-8/publication/308204528_nonlinear_finite_element_analysis_for_reinforced_concrete_slabs_under_punching_loads/links/57dddf6708ae4e6f1849abd5/nonlinear-finite-element-analysis-for-reinforced-concrete-slabs-under-punching-loads.pdf |
| Full paper | download |
| Supplementary materials | Not Available |
Abstract
This paper presents an implementation of a three-dimensional nonlinear finite element model for evaluating the behavior of reinforced concrete slabs under centric load. The concrete was idealized by using eight-nodded solid elements. While flexural reinforcement and the shear were modeled as line elements, a perfect bond between solid elements and line elements was assumed. The nonlinear behavior of concrete in compression is simulated by an elastoplastic work-hardening model, and in tension, a suitable post-cracking model based on tension stiffening and shear retention models is employed. The steel was simulated using an elastic-full plastic model. The validity of the theoretical formulations and the program used was verified through comparison with available experimental data, and the agreement has proven to be good. A parametric study has been also carried out to investigate the influence of the slab thickness on column-slab connection response