Bruce Gellerman of WBUR spotlights Ambri, an MIT startup co-founded by Prof. Donald Sadoway and alumnus David Bradwell that creates liquid metal batteries. Ambri’s “molten metal technology is at the cutting edge of the emerging energy storage industry,” writes Gellerman.
Graduate student Maimuna Majumder writes for NPR about her research examining what caused an outbreak of the mumps in Arkansas in 2016. Majumder writes that her research shows, “why herd immunity is so important. When we vaccinate, we protect not only ourselves but the most vulnerable members of our communities, too.”
Popular Science reporter Rob Verger writes that MIT researchers have identified a way to prevent the body from developing scar tissue around medical implants. The “discovery involves using drugs to affect the behavior of a type of immune system cell called a macrophage in a way that prevents the buildup of scar tissue.”
In this article and video, Prof. Leia Stirling speaks with Devin Coldewey of TechCrunch about her research aimed at helping astronauts avoid stumbles and falls in space. Stirling explained that she and her colleagues developed a haptic feedback system to “potentially help someone navigate their environment and avoid obstacles at the same time.”
Amit Kumar, a research scientist at MIT and director of strategy and impact for the MIT Energy Club, speaks with Marshall Brennan of Nature Chemistry’s “Sceptical Chymist” blog. Kumar notes that he hopes his research will “help provide environmentally sound and sustainable solutions to the pressing need for clean water and energy.”
MIT researchers have developed a new low-power chip that could make voice control practical for simple electronic devices, reports Tim Moynihan for Wired. While other speech-processing platforms use the cloud to process voice commands, “the MIT chip handles much more of that processing itself.”
Clive Cookson of the Financial Times spotlights the work of Institute Professor Emerita Mildred Dresselhaus, who died at 86. Known as the “Queen of Carbon,” Dresselhaus’ research “led the way to round molecules with 60 carbon atoms, known as fullerenes or buckyballs, and ultimately to graphene,” explains Cookson.
New Scientist reporter Sam Wong writes that MIT researchers used high-speed cameras to examine how raindrops can spread soil bacteria. “The researchers estimate that a single raindrop can transfer 0.01 per cent of bacteria on the soil surface into the air, and up to a quarter of bacteria emitted from the land might become airborne in this way.”
Tiera Guinn, a senior at MIT, speaks with FOX 25 reporter Elizabeth Hopkins about her work at MIT and with NASA’s rocket launch program. “Since I was 11 years old, I've had the passion of designing airplanes and rockets," Guinn explains. Nowadays, being part of the team building and designing rockets “keeps me going each day."
Using high-speed cameras and fluorescent dye, MIT researchers have uncovered how rain drops can spread soil bacteria, reports Rae Ellen Bichell for NPR. The researchers found that in a few microseconds “a single raindrop can create hundreds of tiny airborne droplets, each one carrying as many as several thousand live bacteria.”
Popular Science reporter Kendra Pierre-Louis writes about a new study by MIT researchers that examines how rain drops help spread soil bacteria. The researchers found that “a single rain drop can transfer 0.01 percent of bacteria on the soil surface to the atmosphere.”
CSAIL researchers have developed a system that allows robots to correct their mistakes based on input from the brainwaves of human operators, reports Wired’s Matt Simon. “It’s a new way of controlling the robot,” explains Prof. Daniela Rus, “in the sense that we aim to have the robot adapt to what the human would like to do.”
Anthony Cuthbertson of Newsweek writes that CSAIL researchers have developed a system that allows robots to change their actions based on feedback from the brain waves of a human operator. “Imagine robots or smartphones that could immediately correct themselves when you realize they’re making a mistake,” says PhD candidate Joseph DelPreto.
CSAIL researchers have developed a system that allows robots to detect brain signals generated by human operators, writes Oscar Williams of Huffington Post. The researchers hope the new system could “pave the way for more seamless interactions between robots and humans.”
A feedback system developed by CSAIL researchers allows humans to correct a robot’s mistakes using brain signals, writes Janet Burns for Forbes. The system could be used as a “communication method for those who can't use verbal means, such as immobilized or even 'locked in' victims of paralysis,” explains Burns.