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Finite Element Analysis of a Multistory Reinforced Concrete Building for Safe Educational and Sports Infrastructure

Huu-Dien Nguyen(1),


(1) Long An University of Economics and Industry
Corresponding Author

Abstract


This study presents a finite element analysis of a ten-story reinforced concrete building to evaluate internal forces, structural displacements, and reinforcement requirements for safe educational and sports-related infrastructure. The structural model was developed using ETABS based on TCVN 5574:2018. Dead load, live load, wall load, finishing load, and wind load were applied through relevant load combinations. The building satisfied displacement and drift requirements, while critical bending moments, shear forces, and axial loads were identified for beam and column design. Reinforcement detailing also met code requirements. The findings highlight the importance of finite element modeling in supporting safe, reliable, and serviceable buildings for educational, physical education, and sports activity environments.

Keywords


ETABS; Finite element method; Reinforced concrete building; Sports infrastructure; Structural analysis; Wind load.

References


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