Verge reporter Loren Grush explores how researchers from MIT and other institutions have uncovered phosphine on Venus, a potential sign of life. “That’s why this is such an extraordinary detection, because it has to come from something completely unexpected,” says research scientist Clara Sousa-Silva. “At some point, you’re left with not being able to explain it. Except we do know of a strange way of making phosphine on terrestrial planets — and that is life.”
Scientists from institutions around the world, including MIT, have found detected phosphine gas in the clouds of Venus, reports Tom Metcalfe for NBC News. “If this signal is correct, there is a process on Venus we cannot explain that produces phosphine,” says research scientist Janusz Petkowski, “and one of the hypotheses is that it’s life in the clouds of Venus.”
Axios reporter Miriam Kramer writes about a new study co-authored by MIT researchers that details the detection of phosphine, a possible signal of life, in the atmosphere of Venus. “We've done everything we can, which is go through all the things that it isn't,” says research scientist Clara Sousa-Silva. “We've thought of every possible mechanism, plausible or implausible, that could make phosphine and we cannot come up with any."
Boston 25 spotlights how scientists from LIGO and Virgo have detected what may be the most massive black hole collision yet. “The result of the black holes colliding created the first-ever observed intermediate black hole, at 142 times the mass of the sun,” reports Boston 25.
Scientists from LIGO and Virgo have detected the largest collision between two black holes to date, which appears to have created an “intermediate-mass” black hole, reports Loren Grush for The Verge. Intermediate-mass black holes, “are really the missing link between [black holes with] tens of solar masses and millions,” says Prof. Salvatore Vitale. “It was always a bit baffling that people couldn’t find anything in between.”
Prof. Sara Seager speaks with Judi Ketteler of The Boston Globe about her new book, “The Smallest Light in the Universe.” Seager shares that the night sky still conjures up the same feelings of "awe and wonder,” that she felt as a child. “The only difference is, I wonder about the planets around those stars. I wonder if anyone’s on those looking back at us from their planet.”
Writing for The New York Times, Anthony Doerr reviews “The Smallest Lights in the Universe” and “The Sirens of Mars,” new books from Professor Sara Seager and alumna Sarah Stewart Johnson ’08, respectively. Doerr notes that “both writers exemplify the humanity of science: Seager and Johnson laugh, grieve, hope, fail, try, fail and try again.”
USA Today reporter Barbara VanDenburgh highlights Prof. Sara Seager’s new book in a roundup of “not to miss” upcoming releases. “After the unexpected death of her husband, an MIT astrophysicist looks to the stars for solace – and inside herself for answers – in this moving memoir,” writes VanDenburgh.
CNN reporter Kami Phillips spotlights Prof. Sara Seager’s new book, “The Smallest Lights in the Universe.” Phillips notes, “This moving memoir is a tear-jerking story of grief, love, loss and new beginnings that will leave you comforted, hopeful and optimistic all at the same time.”
Prof. Benjamin Weiss speaks with CNN reporter Ashley Strickland about how the Perseverance rover will select samples of Martian materials. "The key for this mission will be identifying samples so compelling that we can't afford to leave them," says Weiss. "We are selecting these for humanity, so we need to make sure they are the most exciting."
Michael Hecht of MIT’s Haystack Observatory speaks with Perry Russom of NECN about MOXIE, a new experimental device that will convert carbon dioxide in the Marian atmosphere into oxygen. Hecht explains that the inspiration for MOXIE lies in how it would be easier, “if we could make that oxygen on Mars and not have to bring this huge honking oxygen tank with us all the way from Earth.”
Prof. Tanja Bosak speaks with Vox reporter Brian Resnick about how Martian materials collected by the Perseverance rover might provide clues about early life forms on Earth. "These [Martian] rocks are older, by half a billion or a billion years, than anything that’s well preserved that we have on Earth,” says Bosak.
Boston Globe reporter Caroline Enos spotlights the contributions of MIT researchers to the Mars 2020 mission, in particular the Mars Oxygen In-Situ Resource Utilization Experiment or MOXIE. “MOXIE could have a big impact on future missions if it is successful,” Enos explains.
Haystack’s Michael Hecht, the principal investigator for the Mars MOXIE experiment, speaks with Max G. Levy of Smithsonian about the challenges involved in developing MOXIE’s oxygen-producing technology. “We want to show we can run [MOXIE] in the daytime, and the nighttime, in the winter, and in the summer, and when it’s dusty out," says Hecht, "in all of the different environments."
Michael Hecht, MOXIE principal investigator and director of research at MIT Haystack Observatory, speaks with CNN’s Ashley Strickland about MOXIE, an apparatus that was designed to convert carbon dioxide on Mars into breathable oxygen and fuel. With MOXIE, "you don't have to take an estimated 27 metric tons of oxygen to Mars,” says Hecht.