MIT researchers have developed a design tool to highlight the environmental factors that can reduce anxiety, homesickness and boredom during long-duration stays in space, writes Earth.com’s Luis Arrais. “Much like how in our homes the arrangement of our furniture, the size of our rooms, the people we live with, even the shelves we use to store our belongings all contribute to our sense of wellbeing,” says graduate student Mich Lin.
In an article for The Hill, contributor Juan Williams celebrates the homecoming of his nephew, MIT alumnus and NASA astronaut Christopher Williams PhD ‘12, who travelled 102 miles over the course of eight months on the International Space Station. “Inside the space station he [Christopher] and fellow astronauts measured how eyes change in zero gravity,” writes Juan. “They checked on how the human brain orients its sense of direction in space. They also tracked bone density and DNA changes to gauge the impact a long space journey has on the human body.”
Associate Prof. Areg Danagoulian has developed a satellite equipped with specialized neutron detectors that he hopes will fill the gaps in the 1967 Outer Space Treaty, which bans nuclear weapons in space without a way to verify satellites are not carrying them. “[I]f the concept proves to be practical enough to someone in charge, it could finally give us a way to verify that there really aren’t any nukes floating precariously over our heads,” writes Luis Prada for Vice.
Financial Times reporter Michael Peel features CubeSat, a proposed satellite sensor by Associate Prof. Areg Danagoulian, able to identify hidden nuclear weapons in space. “If one state suspects another of placing a nuclear weapon in orbit, the absence of a verification mechanism makes the crisis harder to manage,” says Danagoulian. “If a bad-faith actor knows that their attempt will be discovered via inspection, they will be more likely to decide it's not worth pursuing.”
Gizmodo’s Ellyn Lapointe reports on a new paper from Associate Prof. Areg Danagoulian, which offers a solution to verifying satellites aren’t carrying hidden nuclear weapons in space: an inspector satellite able to indicate the presence of uranium from neutron signals via sensor technology. Danagoulian’s proposal seeks to fill the gaps of The Outer Space Treaty (OST), established in 1967 and signed by 118 countries to ban nuclear weapons in space, which “has always lacked robust means of verification for space-based nuclear threats,” says Danagoulian.
In a new study, Associate Prof. Areg Danagoulian proposes a satellite-based sensor that could monitor suspicious craft for signs of nuclear activity in space with 99% accuracy, reports Andrew Paul for Popular Science. “You can fake intelligence, but you can’t fake physics,” says Danagoulian. “The goal right now is to get national labs to use this work for their own research, and to get policymakers to seriously consider this technology as a potential part of national technical means.”
Scientific American’s Adam Kovac highlights a paper by Associate Prof. Areg Danagoulian that proposes a satellite to detect and police hidden nuclear weapons in space by detecting spallation, the ejection of neutrons, from the bombardment of high energy protons, and uranium atoms. “If you detect those neutrons, that itself can be a telltale sign that there is an unusual amount of uranium on the satellite, and it’s most likely to be a nuclear weapon,” Danagoulian says.
Prof. Richard Binzel speaks with CBS Boston about the success of the Artemis II mission and the future of space exploration. "It's exciting we have humans back in space again," Binzel shared. "It's a real test of a spaceflight system. Surviving reentry and landing safely. That's the real accomplishment here. Showing we can go to the moon but also come back safely."
Using technology developed at MIT’s Lincoln Laboratory, the Artemis II astronauts are using lasers to send high-resolution video and images back to Earth, reports Hanna Ali for WBUR. Bryan Robinson, the leader of the Lincoln Laboratory Optical and Quantum Communications Group, explained that laser beams allow them to direct more energy at a target receiver. In other words, "you can communicate at higher data rates," Robinson said.
MassLive reporter John Micek writes about how the Artemis II astronauts are using optical communications technology developed at MIT Lincoln Laboratory to send high-resolution video and images of the lunar surface back to Earth.
The stunning images of the moon and Earth being shared by the Artemis II crew have been made possible thanks to new optical communications technology developed by researchers at MIT’s Lincoln Laboratory, reports Emily Maher for WCVB-TV. "It was just awe-inspiring to think humans haven't seen the Earth from pole-to-pole in over 50 years, and being part of helping to make that happen is very cool," said Corrie Smeaton, associate group leader of the Optical Engineering Group at Lincoln Lab.
Artemis II features laser communication technology developed by researchers at MIT’s Lincoln Laboratory, reports Mary Salanda for WCVB. “Known as the O2O, the Orion Artemis II Optical Communications System is mounted on the spacecraft and features a 4-inch telescope that relies on lasers to quickly transmit images from space, including from the far side of the moon.”
A new laser communication system developed by a team from MIT’s Lincoln Laboratory is aboard NASA’s Artemis II mission to the moon, reports Nick Stoico and Hannah Goeke for The Boston Globe. “It’s a culmination of a huge effort by a lot of people,” says Lincoln Lab Group Leader Bryan Robinson. “We’ve been waiting until now to get it off the ground.”
Onboard NASA’s Artemis II mission is an optical (laser) communication system developed by researchers from MIT’s Lincoln Laboratory , reports Steph Solis for Axios. The spacecraft will carry “an optical communication system that can produce 4K video in space during the roughly 10-day flight,” explains Solis.
The Jewish Herald-Voice takes an interstellar journey to the past, spotlighting how thirty years ago Prof. Jeffrey Hoffman set off on an expedition into space on the Space Shuttle Columbia, bringing with him the “first kosher Torah scroll in history to be taken into space.” Hoffman was the “first Jewish-American male astronaut to fly into space and saw the act of bringing religious objects into space as part of bringing his practice of Conservative Judaism with him.” He noted that: “It wasn’t that space made this Torah special; it was more that the Torah made space special.”