For centuries, humans have sought to study the stars and celestial bodies, whether through observations made by naked eye or by telescopes on the ground and in space that can view the universe across nearly the entire electromagnetic spectrum. Each view unlocks new information about the denizens of space ' X-ray pulsars, gamma-ray bursts ' but one is still missing: the low-frequency radio sky. Researchers from MIT Lincoln Laboratory, the MIT Haystack Observatory, and Lowell Observatory are working on a NASA-funded concept study called the Great Observatory for Long Wavelengths, or GO-LoW, that outlines a method to view the universe at as-of-yet unseen low frequencies using a constellation of thousands of small satellites. The wavelengths of these frequencies are 15 meters to several kilometers in length, which means they require a very big telescope in order to see clearly. "GO-LoW will be a new kind of telescope, made up of many thousands of spacecraft that work together semi-autonomously, with limited input from Earth," says Mary Knapp, the principal investigator for GO-LoW at the MIT Haystack Observatory. "GO-LoW will allow humans to see the universe in a new light, opening up one of the very last frontiers in the electromagnetic spectrum."...

If you were to revisit photos of Howard Berg's cramped Harvard lab, where the details of bacterial chemotaxis were first worked out, or Sydney Brenner's Cambridge lab, where they cracked the genetic code, you'd recognize almost everything you saw. In both, glass bottles of reagents, racks of disposable plastic tips, and half-empty boxes of parafilm wrap cluttered the benches. pH meters dangled coils of cords next to old Gilson pipettes, resting on their sides. Ice buckets held a jumble of tubes, labels fading into illegibility. A tabletop centrifuge hummed in the corner, its brushed-metal body dented from hard use. Even the smell, if you could step inside the frame, would be familiar ' likely a faint mix of ethanol and agar. People commonly point to this seeming stagnation in laboratory design while opining on how laboratories of the future ought to look. We clearly need to update our equipment, especially as AI and computational tools advance. But in many respects, the fact that our scientific devices haven't changed much in the past 50 years also speaks to their tremendous ingenuity and versatility....

Over the past five years, the facility leased and operated the twin-engine turboprop, once commercially used for the regional transport of passengers and cargo. During this time, staff modified the aircraft with a suite of radar, sensing, and communications capabilities. Transitioning the aircraft from a leased to a government-owned asset retains the aircraft's capabilities for present and future R&D in support of national security and reduces costs for Lincoln Laboratory sponsors. With the acquisition of the Saab, the Flight Test Facility currently maintains five government-owned aircraft ' including three Gulfstream IVs and a Cessna 206 ' as well as a leased Twin Otter, all housed on Hanscom Air Force Base, just over a mile from the laboratory's main campus. "Of all our aircraft, the Saab is the most multi-mission-capable," says David Culbertson, manager of the Flight Test Facility. "It's highly versatile and adaptable, like a Swiss Army knife. Researchers from across the laboratory have conducted flight tests on the Saab to develop all kinds of technologies for national security."...

At the center of nuclear reactors across the United States, a new type of chromium-coated fuel is being used to make the reactors more efficient and more resistant to accidents. The fuel is one of many innovations sprung from collaboration between researchers at MIT and the Idaho National Laboratory (INL) ' a relationship that has altered the trajectory of the country's nuclear industry. Amid renewed excitement around nuclear energy in America, MIT's research community is working to further develop next-generation fuels, accelerate the deployment of small modular reactors (SMRs), and enable the first nuclear reactor in space. Researchers at MIT and INL have worked closely for decades, and the collaboration takes many forms, including joint research efforts, student and postdoc internships, and a standing agreement that lets INL employees spend extended periods on MIT's campus researching and teaching classes. MIT is also a founding member of the Battelle Energy Alliance, which has managed the Idaho National Laboratory for the Department of Energy since 2005....