
XURF (EXpandable SURFaces) Systems generates continuously morphable curved surfaces. Inspired by biological membranes, the resulting surfaces are rigid yet pliable and are able to respond to a variety of surfacing needs. Developed by Milgo/Bufkin, XURF allows the transformation of any flatsheet material into a three-dimensionally curved surface and can accomplish compound curvature with relative ease. Applications include interior and exterior architectural surfaces, structures, sculpture, and a variety of design products. Milgo/Bufkin has developed prototypes primarily using steel, which range from containers and lamps to structural ceiling and wall systems. [Contact:
Milgo/Bufkin, Brooklyn, NY.]
Labels: 41, digital, metal, multidimensional, process

Furore is a porous, synthetic-fur fabric inspired by expanded-metal technology. Designers Yvonne Laurysen and Erik Mantel developed the product for LAMA Concept using a special cutting technique. Furore is soft, light, and very flexible and is available in long- and short-hair formats as well as in various colors. The Interior collection includes plaids, bedspreads, and cushions, while the Fashion collection includes scarves, hats, and hair bands. [Contact:
LAMA Concept, Amsterdam, the Netherlands.]
Labels: 12, fabric, recombinant

S. Lövenstein BV integrates luminescent particles within gravel floors in order to enhance the emergency-exit signage within a building. The particles can be masked and evenly distributed throughout the surface of the seamless floor, or grouped in patterns like circles, lines, or arrows. They may also be used in combination with various colors of gravel. In the absence of light, such as in the event of a power outage, the particles become immediately recognizable as an evacuation guidance system. Autonomous, reliable, and maintenance free, Luminescent Gravel thus enhances emergency exiting while mitigating panic. [Contact:
S. Lövenstein BV, Gelderland, The Netherlands.]
Labels: 09, floor, light, mineral, safety, transformational

Unlike conventional petroleum-based plastics, polylactic acid (PLA) plastic is mass produced by chemical synthesis using raw materials derived from corn. The production of PLA contributes less CO2 to the atmosphere than that of conventional plastics and offers superior biodegradability after disposal. Because PLA plastics are often more expensive than conventional ones, researchers are developing ways to add value to PLA plastics.
NEC Corporation’s Dr. Masatoshi Iji has developed a PLA-based bioplastic with shape memory and recyclability. The polymer deforms with heat and external pressure and remains in that altered shape when cooled. Once reheated, the plastic returns to its original shape. Shape memory conventionally requires plastics with a cross-linked structure, which prohibits melting and thus recycling. However, NEC’s shape-memory polymer utilizes a characteristic called thermo-reversible cross-linking. The material can be deformed and restored to its original shape by heating at the temperature of a hairdryer (approx. 140°F [60°C]), but if heated to a typical molding temperature 320°F (160°C) the cross-linked structure dissociates, causing the material to melt and enabling easy recyclability.
This recyclable, shape-memory bioplastic allows users to deform the material into any shape, making possible all kinds of new products and applications, like futuristic wearable electronic equipment. [Contact:
NEC, Tsukuba, Japan.]
Labels: 06, plastic, transformational