International Research Journal of Engineering and Technology (IRJET)
e-ISSN: 2395-0056
Volume: 11 Issue: 01 | Jan 2024
p-ISSN: 2395-0072
www.irjet.net
Static analysis and design of G+10 RCC framed structure by using ETABS N. Mallikarjuna1, K. Nagendra Babu2, Dr. G. Sivanatha reddy3, B. Keerthi4, T. Karuna sree5 3Assistant professor (Ad-hoc), Department of civil engineering, JNTUA college of engineering Pulivendula, Andhra
Pradesh, India.
1,2,4,5B. Tech(student), Department of civil engineering, JNTUA college of engineering Pulivendula, Andhra Pradesh,
India. ---------------------------------------------------------------------***---------------------------------------------------------------------
Abstract - ETABS stands for Extended Three-Dimensional Analysis of Building Systems. Static analysis in ETABS primarily involves the examinations of a structure’s behaviour under various static loads, aiming to determine its stability, strength, and deformation characteristics. It utilizes the finite element method to perform this analysis. This project presents a comprehensive study on the static analysis and design of a G+10 Reinforced Cement Concrete (RCC) framed structure employing ETABS software. The objective is to analyse the structural behaviour and ensure compliance with various design codes and standards. The study includes the modelling of the structure in ETABS, applying appropriate loads, and performing static analysis to evaluate its stability, strength, and performance under various conditions. Furthermore, the project explores the design aspects by considering factors like material properties, safety measures, and optimization techniques. The values of dead loads and live loads are taken as per [6]. Results obtained from the analysis are discussed, providing insights into the structural efficiency and integrity of the G+10 RCC framed structure designed through ETABS software.
structures under various loads, enabling precise assessment, design optimization, and ensuring compliance with international building codes and standards.
2. LITERATURE REVIEW: k. Naga Sai Gopal and N. Lingeshwaran (2017), In the project they used the ETABS software due to company suggestion and to final stress analysis in slab, shear force for the beam and area reinforcement for the column and design the foundation depends upon the reaction and height of the foundation level depends upon site and safe bearing capacity of the soil stability purpose designed the retaining wall in this project. Puneet Mittal; Nishant kad, all structures are analyzed & designed according to code requirements using manual calculations or by the use of many different analysis and design software like STAAD PRO, ETABS. But it has been found that it is difficult to perform manually, so to overcome this problem analyzing and designing is done by using software meant for this work.
Key Words: Static Analysis, ETABS, G+10, RCC, finite element method, static loads,
3. OBJECTIVES
1. INTRODUCTION Understanding the structural behaviour of high-rise constructions like G+10 buildings is paramount for ensuring their resilience. This research employs advanced ETABS software to meticulously analyse the static characteristics, investigating the stability, and deformation tendencies of this ten-story structure. By delving into the intricate details of its structural performance, this study aims to offer comprehensive insights essential for optimizing design methodologies and fortifying the safety standards of similar high-rise edifices in the field of construction. 1.1 About ETABS: ETABS specializes in performing structural analysis, modelling, and design of buildings. Its capabilities encompass diverse functionalities, including but not limited to finite element analysis, seismic analysis, and design code compliance checks. ETABS utilized for simulating and evaluating the behaviour of
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To carryout analysis and design of main structural elements of super structure such as slabs, beams and columns.
To perform analyse the forces, bending moments, stress, strain deformations or deflections for a complex structural system.
Verify building safety under various loads to prevent structural failures.
Ensure even stress distribution across structural elements for robustness.
Enhance structural efficiency while maintaining safety standards.
Assess building resilience in earthquakes and severe weather scenarios.
Confirm alignment with building codes and industry standards for construction approval.
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