According to The Economist, MIT researchers are using 3-D printing to modernize the coiling method of glass production. The researchers have “already used their device to print a range of objects, including optical prisms and decorative vessels.”
“MIT's Mediated Matter Group has figured out a way to put molten glass through a 3D printer, creating beautiful sculptures,” writes Mary Beth Griggs for Popular Science. The printer lays down individual layers of melted glass, bringing it up to a finished sculpture.
In an article for BetaBoston about 3-D printing, Scott Kirsner highlights the Fab Foundation and Fab Labs, which aim to provide people worldwide with access to digital fabrication tools. “Innovation is a very chaotic, messy process. It doesn’t work in sterile boxes,” says Prof. Neil Gershenfeld. “Globally, these Fab Labs bring bright, inventive people out of the woodwork.”
Pheobe Gavin reports for Slate on self-assembling origami robots developed by Professor Daniela Rus’ team that could one day be refined for use in surgery or other medical applications: “The origami robot can walk, swim, push objects, climb inclines, and carry objects twice its weight.”
Wired reporter Liat Clark writes that researchers at the MIT Media Lab have developed a 3-D printed biological wearable that “could theoretically generate drugs, fuel and food when exposed to sunlight.”
MIT researchers have designed a 3D-printed soft material with a modifiable surface texture inspired by the cuttlefish, writes Maria Temming for Scientific American. The team “discovered their modifiable surfaces are not only useful for camouflage but a spectrum of other applications.”
In this video, CNN examines a new printable origami robot developed by MIT researchers that can dissolve in a variety of liquids. CNN explains that the researchers hope that the robot could one day be used to perform medical tasks inside the human body.
New Scientist reporter Rowan Hooper writes about how MIT researchers have developed a 1.7-centimeter long origami robot that can self-fold, walk and swim. Hooper explains that, “using liquid-soluble materials, different versions of the robot can dissolve in either water or acetone, leaving only the permanent magnet behind.”
BetaBoston reporter Nidhi Subbaraman writes that MIT researchers have developed a small self-folding robot that they hope will one day lead to bio-compatible robots that “could enter the body, perform surgery guided from afar, and dissolve away as harmlessly as surgical stitches.”
MIT researchers have created a tiny, self-assembling, origami robot that they hope could one day be small enough to enter the human body and perform medical tasks, reports Lauren Walker for Newsweek. “Driven by magnetic fields, the robot can travel on both land and water at the speed of three or four centimeters per second," Walker explains.
Lauren O’Neil of CBC News reports on a new self-folding origami robot created by researchers at MIT’s Computer Science and Artificial Intelligence Laboratory (CSAIL). The robot “could eventually become small enough to fold into the human body, perform medical tasks, and then dissolve itself when finished — all by itself,” O’Neil reports.
Chris Baraniuk of New Scientist writes that Prof. Neri Oxman has designed a 3-D printed wearable technology inspired by the human gastrointestinal tract. “Oxman is experimenting with the idea of futuristic wearables that can do useful things such as produce consumables or give off scents,” writes Baraniuk.
Conor Gaffey writes for Newsweek about new body armor being developed by researchers at MIT and the Technion-Israel Institute of Technology. The design is based on fish scales and “mimics the overlapping layers of hard scales and soft tissues found in certain fish, using 3D printers,” reports Gaffey.
"The idea here is to take existing material systems like fibres, sheets, strands and three-dimensional objects and program them to change shape and property on demand," says Skylar Tibbits, director of the Self Assembly Lab of his group’s new materials that can be programmed to transform autonomously.
Steve Annear of Boston Magazine writes about ‘Sesame Rings’ first developed by a group including MIT undergraduates. The ring acts as a stored-value MBTA pass for using public transportation in and around Boston.