Dr. Julien de Wit speaks with Nell Greenfieldboyce of NPR about the three potentially habitable planets that he and his colleagues recently discovered. "These planets are Earth-sized, they are temperate — we can't rule out the fact that they are habitable — and they are well-suited for atmospheric studies," de Wit explains.
Los Angeles Times reporter Deborah Netburn writes that researchers have discovered three potentially habitable planets orbiting an ultracool dwarf star 40 light years away. "The team took a big risk even looking for planets around these stars," says MIT postdoc Julien de Wit, co-author of the paper. "But it has really paid off."
A team of astronomers, including researchers from MIT, have discovered three potentially habitable planets, reports Ashley Strickland for CNN. Strickland writes that the “results are just the beginning of a study that will continue for years. The researchers are already working on observations to see if the planets have water or methane molecules.”
Astronomers at MIT, in collaboration with an international team of scientists, have detected three planets, located 40 light years away, that could potentially be habitable. The “planets likely have permanent day and night sides. The next step is to look for signs of biological conditions on the planets.”
Huffington Post reporter Michael McLaughlin writes that a new study co-authored by MIT postdoc Julien de Wit details the discovery of three Earth-sized planets. The “planets orbit a star in the Aquarius constellations named Trappist-1,” writes McLaughlin. “But the planets are close enough to the star to have ‘temperate’ conditions on their surface.”
Boston Globe reporter Astead Herndon writes that an international team of astronomers, including researchers from MIT, have discovered three potentially habitable planets. “This is a paradigm shift,” says Julien de Wit, a postdoc at MIT. “These planets are the best shots for us to search for other habitats, and maybe even life.”
MIT researchers have developed a technique to help predict the thickness of a round shell, reports Alexandra Ossola for Popular Science. The findings “could help researchers create shells with a predictable thickness and a uniform consistency at an industrial scale. That’s useful for a range of products, including pills and aerodynamic vehicles.”
In this video, The Economist explores how MIT researchers have developed a new algorithm that can predict where and when rogue waves might strike. The algorithm “identifies groups of waves most likely to form a rogue wave. The MIT algorithm is so thrifty that a ship’s skipper can run it on a laptop.”
MIT researchers have developed an algorithm capable of predicting the onset of rogue waves, writes Jason Thomson for The Christian Science Monitor. The algorithm, “hunts through data collected about surrounding waves, sifting for signs of clusters that could coalesce and crest into one of these behemoths.”
MIT researchers have developed an algorithm that can predict rogue waves, reports Matt Burgess for Wired. Burgess explains that the algorithm uses “statistical data, collected from buoys in the ocean, to quantify the range of possible waves for any body of water.”
Popular Science reporter Mary Beth Griggs writes that MIT researchers have developed a new tool that could provide advanced warning of rogue waves. The tool should allow crews “to detect rogue wave minutes before they form, giving them enough time to adjust course, or at least hang on.”
Inside Higher Ed's Carl Straumsheim speaks with Dr. Peter Fritschel about how LIGO researchers selected Physical Review Letters to publish the team’s discovery of gravitational waves. After LIGO members cast their votes, Fritschel explained that PRL was a “pretty clear winner,” citing its reputation as a “premier journals for physics results.”
Tech Insider’s Chris Weller reports on a new study by MIT researchers that examines how sneezes travel and spread viruses. The findings could help researchers “predict and prevent disease spread,” Weller explains. “If they know how quickly a pathogen spreads via sneeze, then they can learn more about the risks posed by the viruses themselves.”
MIT researchers have found that two types of turbulence within plasma could explain the heat loss that takes place in fusion reactors, reports Thomas Tamblyn for The Huffington Post. “With the mystery solved, researchers can now better understand how the plasma reacts and then in turn start working on fundamental ways to combat it.”
Prof. Matthew Evans speaks with Joshua Sokol of New Scientist about the LIGO findings. “Until this detection, there was a question about the existence of binary black hole systems,” Evans explains. “So it is a pleasant surprise for us to have detected them.”