Building for the future: Insights from earthquakes on
Through studying the aftermath of past earthquakes, we have gained valuable insights into how we can improve the structural design of buildings to make
Through studying the aftermath of past earthquakes, we have gained valuable insights into how we can improve the structural design of buildings to make
Novel materials like shape-memory alloys (SMAs) improve resilience by absorbing energy and returning to original forms after deformation.
Without the expertise and efforts of these men and women, this docu-ment and all it represents with respect to earthquake risk mitigation would not have been possible.
The diversity of approaches explored—ranging from advanced retrofitting techniques to innovative energy dissipation systems and streamlined
Our storage systems feature seismic-resistant, moment-resisting reinforcements, offering the strength and flexibility to evenly distribute seismic forces and absorb energy without collapsing.
Technology Suitability Assessment: Evaluate and select earthquake resistant technologies such as base isolation, energy dissipation systems, and structural reinforcement (FRP wraps, steel bracing) based
This resource page provides an introduction to the concepts and principles of seismic design, including strategies for designing earthquake-resistant buildings
Advanced strategies and innovations in earthquake-resistant design are presented in this paper, emphasising structural features comprising seismic joints, shear walls, base isolation
Hybrid dampers combine two or more devices into a single unit and are designed to overcome individual weaknesses and enhance overall strength. This study provides a
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