


imagine a fabric that grows...a garment that forms itself without a single stitch!
The fashion that starts with a bottle of wine...
Micro'be' fermented fashion investigates the practical and cultural biosynthesis of clothing - to explore the possible forms and cultural implications of futuristic dress-making and textile technologies.
Instead of lifeless weaving machines producing the textile, living microbes will ferment a garment.
A fermented garment will not only rupture the meaning of traditional interactions with body and clothing; but also raise questions around the contentious nature of the living materials themselves.
This project redefines the production of woven materials.
By combining art and science knowledge and with a little inventiveness, the ultimate goal will be to produce a bacterial fermented seamless garment that forms without a single stitch.
Designer Jiri Evenhuis, in collaboration with Janne Kyttanen of Freedom of Creation, was the first to toy with the idea of using 3D printers to create textiles. “Instead of producing textiles by the meter, then cutting and sewing them into final products, this concept has the ability to make needle and thread obsolete,” Evenhuis has said.
A decade later, designer-researchers like Freedom of Creation in Amsterdam and Philip Delamore at the London College of Fashion are cranking out seamless, flexible textile structures using software that converts three-dimensional body data into skin-conforming fabric structures. The potential for bespoke clothing, tailored to the specific individual, are as abundant as the patterns that can be created, from interlocking Mobius motifs to tightly woven meshes.
Nickel titanium, also known as nitinol, is a metal alloy of nickel and titanium, where the two elements are present in roughly equal amounts.
Nitinol alloys exhibit two closely related and unique properties: shape memory and superelasticity (also called pseudoelasticity). Shape memory refers to the ability of Nitinol to undergo deformation at one temperature, then recover its original, undeformed shape upon heating above its "transformation temperature". Superelasticity occurs at a narrow temperature range just above its transformation temperature; in this case, no heating is necessary to cause the undeformed shape to recover, and the material exhibits enormous elasticity, some 10-30 times that of ordinary metal.
Nitinol's extraordinary ability to accommodate large strains, coupled with its physiological and chemical compatibility with the human body have made it one of the most commonly used materials in medical device engineering and design.