Most ranges are shipped with anti-tip brackets that prevent both tip-over due to children climbing and shifting in the event of an earthquake. These should be installed at the time of purchase. For aftermarket solutions, search by product
This document summarizes techniques for earthquake resistant building construction. It discusses how earthquake resistant buildings differ from traditional buildings in their design. Some techniques discussed include using
In the next 30 years, there''s a 60% chance that a 6.7 magnitude earthquake will hit the greater Los Angeles area.. Thirty years sounds far off, but it''s already happened—an earthquake of a similar magnitude hit Southern
N-Grip is an earthquake-resistant metal fitting that protects people and equipment from an earthquake of seismic intensity 7 class. Anyone can easily install and remove it without damaging the floor. Damage to factory equipment and office
Earthquake resistant design of buildings depends upon providing the building with strength, stiffness and inelastic deformation capacity which are great enough to withstand a given level
The Earthquake Risk Reduction in Buildings and Infrastructure Program addresses these needs by (1) developing key measurement science tools to mitigate seismic risk to new and existing buildings and infrastructure
Preparing the foundation for a major earthquake. Earthquake-resistant buildings all have one thing in common—a strong concrete foundation. The foundation of a building is what everything else rests on and should be
Earthquake resistant design of buildings depends upon providing the building with strength, stiffness and inelastic deformation capacity which are great enough to withstand a given level of earthquake-generated force.
Developing a sufficient level of familiarity with this rationale, sometimes called the “philosophy of earthquake resistant design”, is essential before embarking on conceptual design for earthquake resistance followed by the required structural analysis and detailing calculations prescribed by seismic codes of practice.
Such a design achieves only “partial” protection against structural damage for the design seismic hazard and may incur considerable repair costs and downtime, while the probability for an enforced demolition in the aftermath of a seismic event exceeding the nominal design earthquake is likely.
Structures should withstand minor levels of earthquake induced ground motion without any damage to structural and to non-structural members. This design objective sets a no damage requirement for frequently occurring earthquakes during the lifetime of structures and corresponds to the “serviceability” limit state. 2.
In conclusion, the lessons learned from past earthquakes have been instrumental in shaping seismic-resistant structural design. By analyzing past failures and successes, engineers have been able to refine construction practices, develop innovative techniques, and implement stricter building codes.
Further, it is natural to expect that communities and non-expert individuals assume that contemporary code-compliant “earthquake resistant” structures are “earthquake-proof” and should suffer zero damage during earthquakes corresponding to the nominal “design earthquake”.
