Jul 2026· IOP Conference Series: Earth and Environment· Vol 1649, pp. 012019· 0 citations· 10 references
Physics
Abstract
The adoption of a supplemental damping system in building structures dissipates a portion of the seismic input energy, thereby reducing the amount of energy dissipated through inelastic behaviour (hysteretic damping) within the structural elements. Viscoelastic Dampers (VEDs) are utilized to reduce post-earthquake damage and are employed in this study. However, since different VED layouts result in varying dynamic responses, a comparative study of the dynamic responses of structures with various VED layouts is conducted using nonlinear time history analysis (NLTHA). This research aims to compare inter-story drift and structural yielding by analysing the dissipated hysteretic energy and the amount of inelastic damping within the system elements of three building prototypes, each having a different VED horizontal distribution (layout configuration). A 30-story RC SMF is chosen as the seismic force-resisting system. The control variables are the number of VEDs per story and the location of the floors where the VEDs are installed. The results of the study show that a dense distribution of VEDs on the building facade (M1) provides the best performance, followed by a dense distribution in the building interior (M3), and a loose distribution on the facade with VEDs located at the corner bays (M2).
Energy dissipation devices, characterized by their capacity to reduce seismic demands, are widely implemented as effective and innovative solutions for the structural protection of buildings. Viscous Wall Dampers (VWD) also provide significant advantages, particularly in the design of high-rise reinforced concrete buil...
A. E. Çerçevik· Kahramanmaraş Sütçü İmam Üni...· 0 citations
Viscoelastic dampers, leveraging the synergistic mechanism of viscous dissipation and elastic recovery, simultaneously reduce seismic-induced structural displacement and acceleration responses while offering the advantages of simple construction and ease of installation, which hold broad prospects in both the seismic d...
Teng Ge, Wangwang Fang, Zhong-Wei Hu et al.· Applied Sciences· 0 citations
Seismic resilience is critical in the design of modern structural systems, particularly for steel moment‐resisting frames (MRFs). Traditional energy dissipation mechanisms, such as viscous or friction dampers, are effective but often involve high installation and maintenance costs. This study investigates the performan...
Konstantinos N. Kalfas, I. U. A. Chy, Vasileios C. Kamperidis· ce/papers· 0 citations
Earthquakes produce significant lateral forces on structures, which may lead to excessive displacement, structural
instability, and collapse if proper seismic resistant measures are not adopted. The present study focuses on the comparative
seismic performance evaluation of a G+11 reinforced cement concrete (RCC) buildi...
Utkarsh Mishra, R. Grover· International Journal for Re...· 0 citations
Nonlinear velocity dampers (NVDs) embedded in coupling beams may enhance the seismic performance of frame–core tube structures by dissipating energy and limiting structural damage. This study evaluates the seismic performance of a 20-story reinforced concrete (RC) frame–core tube building incorporating NVD-equipped cou...
Shen Liu, Bo Li, Hui Wang et al.· Buildings· 0 citations
Existing comparative studies on metallic mild steel dampers (SDs) and fluid viscous dampers (FVDs) are primarily limited by the coupling of device type with layout variations, the lack of a unified performance metric, and the absence of multi-level evidence under fixed structural configurations. This study overcomes th...