The art of building with Air
Mar 14, 2016
The art of building with Air
WhatOur Technologies
June. 2010
Brief history...
Inflast Project:“New methodologies for Design and Manufacturing of Inflated Structures”Finished: November 2000
Objective:Apply inflatable technology, developed in the aerospace industry, into the civil and architectural field.
We created in 2001 Buildair moved by the market technology transfer
June. 2010
Customers: Industries and companies of several
industrial fields
Ideas andConcepts
Basic research
Results and publications
TechnologyInnovation
Products and services
Spin
-off
com
pani
es
Technology and prototypes
CIMNE’s world-wide network
Tech. development
Relation with CIMNE-UPCJune. 2010
World Wide Network
Buildair Asia PacificPartnership with Hart engineering + SCSI Architects
Focus on events, renting and personalization
South AmericaPartnership with S&S architects and BoreasFocus on aeronautical and industrial applications
Buildair USAPartnership with Echelon AviationFocus on aeronautical and Military applications
Buildair SpainHeadquarters
Partnership with Airlight Ltd Spain and Switzerland
Focus on Large inflatable structures and bridges
Focus on aeronautical and Military
Buildair SpainHeadquartersBuildair SpainHeadquartersBuildair SpainHeadquarters
Partnership with Airlight Ltd
June. 2010
WhatOur Technologies
Low Pressure Pneumatic Structures
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When to use it?
When you need Flexibility
• Temporal coverage
• Seasonal needs
• Moving location
• You need it quickly
• You need it down very fast in emergency
situations.
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Why?
Because it has advantages
• Security
•Design & Customization
• Portability
• Easy to set-up
• Support
June. 2010
Very High Security levelJune. 2010
We use treated fabrics with at least a flame retardant M2 Classification (UNE 23.727)
Our structures are made of a very strong but light fabric.
If it is intentionally cut, the low-pressure constant air flow of the turbines provide stability to the structure and the repair kit allows our customer a quick fix to these situations.
Even in a greater emergency, the structure is quite light (300gr/m2 apx.) and it would rarely compromise the security of the visitors.
Architectural DesignWith our technology, form and size have no limits. We have designed and produced inflatable structures
bigger than 2.000m2.
Our inflatable structures are completely customized to meetthe wishes of our customers, having in mind functionality and the objective or idea that our client wants to communicate.
June. 2010
• Adequate textile strength• Reinforcements design • Proper sewing system, thread resistance and mechanical properties
Some stress analysis results
Form Finding Process and Stress validation Analysis
FlexibilityJune. 2010
PortabilityJune. 2010
Fast and Easy to Set UpOpen the storage bag
Spread and anchor
Wait until the structure is inflated completely
Connect the silent Air Fans
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SupportWind Loads Estimations
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+ Multiple alternative uses
•Events•Pavilions•Aircraft Shelters•Temporal facilities•Sports events•Pool covers•Storage covers for warehouse material•Temporary structures for emergencies and natural disasters.
June. 2010
WhatOur Technologies
Wide span roofs and quick deployment
bridges with Tensairity Technology
June. 2010
When to use it?
When you need flexibility
• Wide Spans
• Light Structure requirements
• Budget limits
• Emergencies
• Mobility
June. 2010
Why?
Because it has Advantages
• High load Resistance
• Light Weight
• Cost Effective
• Deployable
• Support
June. 2010
Airlight: Tensarity Partners and developers of the technology
High Load CapacityJune. 2010
High Load CapacityJune. 2010
Tensarity + Wood based bridge. Span 50m
Light WeightJune. 2010
Tensarity + Wood based bridge. Span 50m
Cost Effective Comparison with other systems
Tensairity Basic concepts and applications. M.Pedretti and J.Marcipar - TACOM-Warren, Michigan campus, May 6th 2010
Load capacity High Low High
Span Large Small Large
weight Heavy Very light Very light
Cost Expensive Expensive Cost effective
Others... ---High pressure
collapse in case of air loss
Low pressure and NO collapse in case
or air loss
TraditionalSteel Structure
High pressurePneumatic Structure
Tensairity Structure
Our Tensairity Structures are based on a new principle for light weight structures that is not dependent on the choice of materials. Being the pressure quite low, conventional fabrics are used like the ones for tents. Standard cables for the tension element and steel, aluminum or wood for the compression element. All these known materials to civil engineering are brought together in combination with no bracing or complicated joints. Tensairity is material efficient and therefore cost efficient..
June. 2010
Breakthrough proposal in terms of transportation and operations for these structures.
- 4 months from establishing requirements to delivering
- 10 to 50 meters span inflatable ultra-light-weight bridge.
- Up to 50 Tons capacity
- weighing five times less than those that exist currently (less than 1 ton).
DeployableThe Vehicle can transport its own Tensairity bridge
June. 2010
SupportJune. 2010
+ Multiple alternative usesJune. 2010
Aeronautic ApplicationsJune. 2010
Wide Span Roofs
Structures on Firefighting Path
June. 2010
Tensarity + Wood based bridge. Span 50m
Tensairity BridgesJune. 2010
Auxiliary FacilitiesJune. 2010
EventsJune. 2010
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See more at www.buildair.com
Can Berneda 8 (Pol. Ind. Molí d’en Xec) - 08291 - Ripollet (Barcelona)Barcelona)Barcelona - SpainT. +34 93 368 77 72 - F. +34 93 561 66 34 - [email protected]
Thank you very much for your attention
June. 2010