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Numerical evaluation of deformation capacity of laced steel-concrete composite beams under monotonic loading
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 Title & Authors
Numerical evaluation of deformation capacity of laced steel-concrete composite beams under monotonic loading
Thirumalaiselvi, A.; Anandavalli, N.; Rajasankar, J.; Iyer, Nagesh R.;
 Abstract
This paper presents the details of Finite Element (FE) analysis carried out to determine the limiting deformation capacity and failure mode of Laced Steel-Concrete Composite (LSCC) beam, which was proposed and experimentally studied by the authors earlier (Anandavalli et al. 2012). The present study attains significance due to the fact that LSCC beam is found to possess very high deformation capacity at which range, the conventional laboratory experiments are not capable to perform. FE model combining solid, shell and link elements is adopted for modeling the beam geometry and compatible nonlinear material models are employed in the analysis. Besides these, an interface model is also included to appropriately account for the interaction between concrete and steel elements. As the study aims to quantify the limiting deformation capacity and failure mode of the beam, a suitable damage model is made use of in the analysis. The FE model and results of nonlinear static analysis are validated by comparing with the load-deformation response available from experiment. After validation, the analysis is continued to establish the limiting deformation capacity of the beam, which is assumed to synchronise with tensile strain in bottom cover plate reaching the corresponding ultimate value. The results so found indicate about support rotation for LSCC beam with lacing. Results of parametric study indicate that the limiting capacity of the LSCC beam is more influenced by the lacing angle and thickness of the cover plate.
 Keywords
steel-concrete composite construction;shear connector;finite element analysis;concrete damage plasticity model;static response;
 Language
English
 Cited by
1.
Experimental investigation of steel-concrete composite beams with different degrees of shear connection under monotonic and fatigue loads, Advances in Structural Engineering, 2018, 21, 2, 227  crossref(new windwow)
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