Researchers at MIT have developed a waterproof glue based on the proteins that allow shellfish to cling to rocks, reports Brooks Hays for UPI. "We're trying to figure out if by adding other mussel foot proteins, we can increase the adhesive strength even more and improve the material's robustness," said Professor Timothy Lu.
“A team of MIT researchers has built an all-liquid battery prototype that's designed to store excess energy from solar and wind power plants,” writes Francie Diep for Popular Science. “[F]uture versions of this battery could release energy captured during more productive times into nations' power grids.”
Francie Diep writes for Popular Science about a new waterproof adhesive developed by Professor Timothy Lu’s team. “The glue, which works underwater, incorporates proteins that mussels normally use to adhere to rocks, jetties, and larger sea critters,” writes Diep.
CBS News reports that MIT engineers have identified several combinations of genes that make bacteria more vulnerable to antibiotics. This research could help in the fight against “superbugs,” drug-resistant bacteria that kill at least 23,000 people per year in the U.S.
Nidhi Subbaraman of BetaBoston writes about the annual MADMEC competition hosted by the Department of Materials Science and Engineering: “[T]eams presented their projects Friday afternoon, and judges from MIT, MIT-spinoff Ambri, and materials giants Saint-Gobain and Dow Chemical, picked the winning trio.”
Mark Peplow writes for Nature about a new molten-metal battery designed by Professor Donald Sadoway’s team: “A battery made of molten metals could help to make sources of renewable energy more viable by storing the excess electricity generated by these intermittent sources.”
Professor Donald Sadoway’s team has designed a battery that makes use of molten metals, which could allow for large-scale power storage, reports Jonathan Webb for the BBC. “Previous battery designs have largely been too expensive to help store energy on the scale of a national power grid,” writes Webb.
“MIT researchers are engineering the next generation of space-wear: a skin-tight pressurized suit fit for awesome planetary exploration,” reports The Associated Press. “The researchers have engineered active compression garments that have small, springlike coils that contract in response to heat.”
“A team from MIT and Duke created flexible polymers that can change color and texture in response to a controlled voltage, essentially allowing them to camouflage an object with the flip of a switch,” reports Jim Festante for Slate. This mimics the ability of cephalopods in nature to rapidly change color.
Nidhi Subbaraman writes for BetaBoston about a new skin-tight spacesuit design from Professor Dava Newman’s team. “It promises to offer astronauts the same protection but a lot more mobility and comfort,” writes Subbaraman.
Professor Dava Newman’s team has designed a new lightweight, flexible suit for astronauts that provides pressurization through mechanical means rather than gas, as current spacesuits do. “The theoretical suits would be made from coils that spring back to a ‘remembered’ shape when heated,” reports Rachel Feltman for The Washington Post.
Brooks Hays of United Press International reports on the latest iteration of MIT’s skin-tight spacesuit, the BioSuit. “Ultimately, the big advantage is mobility, and a very lightweight suit for planetary exploration,” said Professor Dava Newman.
Jordon Golson of Wired reports on a new traffic control system created by MIT researchers: “The ‘RoadRunner’ system, developed for Singapore by graduate student Jason Gao and his advisor Li-Shiuan Peh, issues a digital ‘token’ to each car entering a congestion-prone area.”
USA Today’s Kristin Musulin reports on a new algorithm developed by MIT researchers that allows their cheetah robot to operate untethered. “This is the first time we show that an electrically powered robot can run and jump over one-foot height obstacles,” says Professor Sangbae Kim.
“Researchers at MIT have built a four-legged robot that runs like the super-fast spotted feline and can even run on its own power,” writes Amina Khan for The Los Angeles Times about MIT’s robotic cheetah. “[T]he researchers think that it could eventually reach speeds of 30 miles per hour.”