Though looking at some historical examples of the uses of fabric in structure, such as the obvious Teepee of the North American Indian, a simple light weight timber structure wrapped in a fabric skin, secured in tension with pegs; the use of Shitomi (latticed shuttered) and Undare (Rattan blinds) in the traditional buildings of Japan used to prevent heat coming into the building and to block sunlight while allowing air to pass through the structure with Shoji Screens used as a way of drawing light in and dispersing it throughout a room; the use of fabric in Poze cu Piazza Maggiore Bologna, Italy for idendity and solar shading and the simple forms of stretched fabric use in the market squares of Burgos Plaza Mayor, Spain, I will look for comparisons in the principles for using fabric in architecture today.
An early example of the contemporary use of fabric in structure is an air-supported pool enclosure built in 1957, Buffalo, NY, USA by Birdair. Since then fabric has been used in a vast range of structures, including museums, shopping centres and sporting arenas.
The Milestones of Flight Museum for the Royal Air Force, Hendon designed by Feilden Clegg Bradley Architects LLP is essentially a barrel vault with a continuous roof light at the apex which allows daylight to fall on to the back of the fabric panels which internally clad the stainless steel structure and also acts as an environmental filter preventing harmful UV light from damaging the exhibits. FCB also utilise fabric structure in the construction of the National Cold War Exhibition Museum at RAF Cosford. The two elevations of the short ends of the building are filled with translucent fabric panels on demountable steel frames to allow aircraft to be taken out or replaced, and also provide diffuse daylight for the full height of the cathedral-scale interior.
Innovative design strategies such as organic solar, where nanotechnology is used to deposit or “print” a photo-active material to convert solar energy into electricity, opens up even more possibilities in terms of sustainable design through fabric. This “active” layer is extremely thin — only a few tenths of a micrometer thick, i.e. less than 1/1000 of a silicon cell, so potentially extremely cost effective. (http://fabricarchitecturemag.com/articles/0509_f1_photovoltaics.html)
