Jul 2026· International Journal of Research Publication and Reviews· Vol 7, pp. 4069-4073· 0 citations
Abstract
This study examines the seismic performance of a multi-storey reinforced concrete building designed for Seismic Zone IV under IS 1893:2002, evaluated using performance-based seismic design (PBSD) principles. A special moment-resisting RC frame was modelled in SAP2000 v16 and analysed using linear static, nonlinear static (pushover), and nonlinear dynamic time-history methods, the latter using both a recorded ground motion (the 2001 Bhuj earthquake) and a spectrum-compatible motion generated from the IS 1893:2002 medium-soil design spectrum. Pushover analysis, evaluated using the ATC-40 Capacity Spectrum Method, located a performance point at a base shear of 397 kN and roof displacement of 128 mm, placing the structure within the Life Safety performance range with a maximum pushover displacement of 145 mm at 411.5 kN base shear. Time-history analysis produced substantially lower peak displacements of 34 mm (Bhuj) and 20 mm (IS 1893 medium soil), with peak base shears of 394 kN and 347 kN respectively. Hinge formation initiated at beam ends before spreading toward the base, consistent with the intended strong-column, weak-beam response. The results confirm that the structure satisfies its two-level performance objective: light, repairable damage under the Design Basis Earthquake, and controlled, non-collapse damage under the Maximum Considered Earthquake.
Seismic retrofitting of existing reinforced concrete (RC) buildings is often required because of deficiencies in their original design, changes in seismic provisions, or increased functional demands. This study evaluates the effectiveness of steel bracing for improving the seismic performance of a ten-story, plan-irreg...
H. Jarrahi, Abbas Sadeghi, S. Vaziri· Research on Engineering Stru...· 0 citations
This study investigates the seismic performance of multi-storey reinforced concrete (RC) buildings integrated with RC shear walls, using ETABS software for structural modelling and dynamic analysis. Building models with G+3, G+13, and G+23 storeys were analysed in accordance with IS 1893:2016 provisions, representing s...
E. Ganesh, K. Archana, Nayakanti Rajeev et al.· International Journal of Lat...· 0 citations
Moment-resisting frames (MRF) of reinforced concrete (RC) are the most popular structural system for multi-storey
construction in seismically active zones and the size and shape of the columns have significant impact on the seismic
performance of the MRF structure. The paper presents a comparative nonlinear static (pus...
Shahnavaj, Ankita Singhai, R. Satbhaiya· International Journal for Re...· 0 citations
High-rise reinforced concrete buildings are susceptible to seismic forces due to their slenderness and flexibility, necessitating effective lateral load-resisting systems. This study investigates the optimal placement of shear walls to enhance seismic performance. A seven-story symmetrical building model was developed...
S. Hasibuan, H. Prayuda, A. Alisibramulisi et al.· Media Komunikasi Teknik Sipi...· 0 citations
Quetta lies in one of Pakistan's most seismically active regions, where the Building Code of Pakistan (BCP-2007) assigns a design ground acceleration of 0.32 g and UBC-97 Seismic Zone 4 is adopted as the design basis. Despite this hazard, location-specific research on seismic isolation for the local building stock rema...
Sangeen Khan, Sami Ullah, Muhammad Habib et al.· Rock Mechanics Letters· 0 citations
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