Writing for Quanta Magazine, David Freedman spotlights Prof. Pablo Jarillo-Herrero’s discovery that when twisted to a “magic” angle, graphene can act as a semiconductor. Freedman writes that the “discovery has given scientists a relatively simple platform for exploring exotic quantum effects.”
Fast Company reporter Mark Wilson spotlights Prof. Neri Oxman’s work developing 3-D printed sculptures filled with melanin, the pigment that colors our skin and hair. Wilson writes that Oxman’s work shows how melanin could potentially be used in buildings to protect inhabitants for the elements, generate energy or absorb unwanted environmental materials.
Prof. Pablo Jarillo-Herrero speaks with Gizmodo reporter Ryan Mandelbaum about his work showing that when twisted to the right angle, graphene can serve as an insulator or semiconductor. “This sort of field of ‘twistronics’ is something with great potential in terms of scientific discovery and intellectual interest,” Jarillo-Herrero explains.
Prof. Polina Anikeeva speaks with Forbes contributor Poornima Peiris about her work developing materials that could be used to help explore and better understand the brain and nervous system. “I am not interested in just improving things, I want to work on innovative ideas,” says Anikeeva.
Wired reporter Matt Jancer writes about Embr Wave, a wearable device developed by several MIT alumni, which helps users regulate their body temperature. Jancer notes that a button on the Wave “turns it hotter or colder, and when it heats up or cools, your inner wrist you feel as if you turned on a personal thermostat only for you.”
MIT researchers found that the silicone gloves football players wear are 20 percent stickier than a human hand, reports David Waldstein for The New York Times. Prof. Anette Hosoi explained that the “key to their performance was how soft and deformable the silicone is, meaning it covers and adheres to the tiniest variations on the surface of the ball,” writes Waldstein.
WCVB-TV’s Mike Wankum visits MIT to learn more about Prof. Nicholas Fang’s work developing a new film that can be coated on windows and can block up to 70 percent of incoming solar heat. Wankum explains that the film “could lead to a future with less need for air conditioning.”
Nature reporter Elizabeth Gibney spotlights Prof. Pablo Jarillo-Herrero’s discovery that graphene can act as a superconductor when twisted to a magic angle. “I haven’t seen this much excitement in the graphene field since its initial discovery,” said ChunNing Jeanie Lau, a professor at Ohio State University, of the impact of Jarillo-Herrero’s findings.
Prof. Donald Sadoway speaks with CBC News reporter Paul Hunter about his work developing a rechargeable battery that is big enough to power an entire neighborhood, and uses liquid metals and molten salt. Hunter writes that “Sadoway's invention is radically different from anything else in the market.”
Prof. Pablo Jarillo-Herrero’s discovery that when graphene is rotated to a “magic angle” it can act as a high-temperature superconductor has been named the Physics World 2018 Breakthrough of the Year. Physics World reporter Hamish Johnston writes that the “discovery led to the development of ‘twistronics’, which is a new and very promising technique for adjusting the electronic properties of graphene.”
UPI reporter Tauren Dyson writes that MIT researchers have developed a coating that can reject up to 70 percent of incoming solar heat. “The film resembles transparent plastic wrap, implanted with tiny microparticles that contain water that releases when met with temperatures higher than 85 degrees Fahrenheit,” Dyson explains.
MIT researchers have developed a new see-through film that reflects 70 percent of the sun’s incoming heat and could be used to coat a building’s windows, reports the Xinhua news agency. The material, “can cool a building while still letting in a good amount of light, offering an affordable and energy-efficient alternative to existing smart window technologies,” Xinhua explains.
Researchers from MIT are using the brittle nature of graphene to mass produce cell-sized robots, writes David Grossman of Popular Mechanics. Called “syncells” or synthetic cells, the researchers hope they can be used in biomedical testing. “Inject hundreds into the bloodstreams and let the data fly back into sensors,” explains Grossman.
IEEE Spectrum reporter Mark Anderson highlights how Prof. Jeehwan Kim’s research group has developed techniques to produce ultrathin semiconducting films and harvest the materials necessary to manufacture 2-D electronics. Anderson explains that the group’s advances could make possible such innovations as high-efficiency solar cells attached to a car’s exterior and low-power, long-lasting wearable devices.
MIT researchers have developed a gel-like polymer that uses carbon dioxide from the air to grow, strengthen, and repair itself, reports Mu Xuequan for the Xinhua News Agency. “Although, it is not yet strong enough to be used as a building material, it could function as a crack filling or coating material,” Xuequan notes.