- Project plans
- Project activities
- Legislation and standards
- Industry context
Last edited 10 Jan 2018
Using springs in construction to prevent disaster
Natural disasters can be devastating for communities and infrastructure. In the past, buildings have been ill-equipped to face earthquakes, hurricanes, and floods, but as technology advances so too does the possibility for greater resilience.
 Resisting earthquakes with base isolation
Building structures that are resilient to earthquakes is of utmost importance in some regions, as collapse of structures causes most earthquake-related deaths. As the seismic waves cause the ground to shake, buildings can partially or completely collapse.
There have been a number of solutions suggested or put into practice by architects. One of these methods is known as base isolation and involves using a system of springs or bearings which effectively float the building above its foundations. As the building is attached to the foundations by a flexible yet strong material, when an earthquake hits, the structure is able to move slightly without being disconnected from its foundations.
This method has been used in practice, and a house in Santa Monica, California benefitted during the Northridge earthquake of 1994.
As buildings and structures continue to grow in height, it has become increasingly important to find ways to protect them from strong winds, typhoons and hurricanes.
It stands at 508 m (1,667 ft) tall and has 101 floors. Due to the height of the structure, it was essential to ensure its ability to withstand typhoon winds and earthquake tremors. This was achieved through the installation of a tuned mass damper. These are typically created from concrete blocks which use a spring mechanism to move in opposition to the resonance frequency oscillations of the structures.
The tuned mass damper in the Taipei 101 consists of a steel pendulum weighing 660 metric tonnes. This is suspended from the 92nd to the 88th floor and sways to decrease resonant amplifications of lateral displacements in the building. This movement helps to protect the building from the effects of earthquakes and strong winds.
 Related articles on Designing Buildings Wiki
- Compression springs.
- Design Flexibility.
- Future Proofing Construction.
- Key qualities of springs.
- Managing and Responding to Disaster.
- Planning for Floods.
- Risk in Building Design and Construction.
- Spring materials.
- Taipei 101.
- Torsion springs and their benefits.
--European Springs and Pressings Ltd 12:10, 18 Aug 2017 (BST)
Featured articles and news
EIRs define what is needed from the employer's internal team and suppliers for project development.
The full keynote speech by Sir James Bevan, Environment Agency CEO, on the future of flood protection.
After 6 years, the Metropolitan Police admit they supplied information to the construction workers blacklist.
It's nearly two years since level 2 BIM was made a minimum requirement on certain public projects. But what actually is it?
Renowned water expert Prof. Martin van Veelen challenges political leaders to do more on safe and clean water supplies.
Inquiry criticises PwC for "milking the Carillion cow dry".
A recent roundtable discussed the future of transport in the UK – including the role of connected and autonomous vehicles.
Architects report cancelled projects and uncertainty concerns in a new RIBA survey on Brexit.
Quality helps eliminate defects, but it can also drive improvement and increase profit.
PII provides insurance cover against negligence claims and is widely used where services are being provided.
Rogers Stirk Harbour + Partners release first images of their planned new addition to the Toronto skyline.