Hidden Brain podcaster Shankar Vedantam speaks with NGO leader and Maldives native, Hassan Maniku, who is working with researchers from the MIT Self-Assembly Lab to find a natural process to quickly build islands to combat the growing effects of rising sea levels on coastal communities. “People in the Maldives know they can’t stop the ocean from rising, they have to adapt to that reality and over the last several years, that is exactly what they have started to do,” says Vedantam.
Graduate student Benjamin Jenett speaks with Tech Briefs about his work developing a new kind of airplane wing that can adapt in the air to changing conditions. "If you can have an aircraft that can actively change its shape, then you can optimize its performance," says Jenett.
MIT researchers have created an ambulatory motor that can “walk” back and forth or make the gears of another machine move. “On its own, this little moving microbe is impressive enough,” writes Darrell Etherington for TechCrunch, “but its real potential lies in what could happen were it to be assembled with others of its ilk, and with other building-block robotics components made up of simple parts.”
Fast Company reporter Katharine Schwab writes that MIT startup Ministry of Supply worked with researchers at the MIT Self-Assembly Lab to develop a new sweater that can be adjusted for an individual’s specific size using heat. “The fabric shrinks when exposed to heat, thanks to both the structure of the knit and the combination of materials used,” explains Schwab.
In an article for The New York Times Magazine about design challenges, Jon Gertner highlights Prof. Skylar Tibbits’ idea to reimagine cell towers. By making cell towers responsive to external stimuli, Tibbits believes they can gain in flexibility and functionality, and will have “personality and an aesthetic of movement.”
Wall Street Journal reporter Robert Lee Hotz writes that MIT engineers have developed a flexible airplane wing that could improve a plane’s fuel consumption by improving the wing’s aerodynamics. Hotz explains that the wing’s “elastic airfoil can morph continuously to reduce drag, increase stall angle, and reduce vibration control flutter.”
MIT researchers have developed a self-assembling phone, reports Heather Kelly for CNN. “A phone that assembles itself could help manufacturers cut down on costs, or open the door for more experimental phone designs,” writes Kelly.
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.”
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.
“MIT’s Self-Assembly Lab joined Italian design studio Wood-Skin to create the Programmable Table, which transitions from flat to fully built with a gentle tug,” writes Liz Stinson for Wired. The table is engineered with creases milled into the wood that act like hinges, allowing it to fold into an upright shape.
Researchers in the MIT Self-Assembly Lab has developed a self-assembling coffee table, reports Megan Turchi for Boston.com. The table “can go from the delivery box to the living room in a few seconds.”