Do magnetized quark stars stay cool inside forever?

The interiors of the universe’s most extreme objects are like laboratories carved out of the imagination. In magnetars—compact stars with magnetic fields so intense they bend the rules of everyday physics—the matter inside can reach densities and field strengths that push our theories to the limit. A new study from Arizona State University asks a…

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When trees map city heat what we learn

Cities are heating up in the same way a city budget can suddenly swell when unforeseen costs pop up. The urban heat island effect is not just a meteorology term to throw around in a climate lecture; it is a lived reality for millions who step outside and feel the heat, especially in streets paved…

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Rydberg Atoms Map Electron Beams in Real Time

The most powerful beams in science come with their own critics—their interactions with the world can ruin sensitive measurements. So researchers have long sought ways to study charged particle beams without tipping the scales. A recent experiment led by Rob Behary at William & Mary points the way toward a new kind of eye for…

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When Graphs Learn to Spot the Unseen in Open Worlds

Graphs are the hidden streets of modern AI: social networks where friends connect, citation maps where topics cross-pollinate, product graphs where shoppers discover new things. In these networks, the challenge isn’t just to classify a node, but to tell when a node doesn’t fit the pattern of anything the system has seen before. That’s the…

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Heat Waves in the Age of AI Weather Forecasts

Extreme heat is not just a meteorology problem; it’s a public health deadline. When thermometers surge, people suffer—especially the most vulnerable in cities with aging power grids, crowded housing, or limited access to cooling. As climate change nudges heat waves toward longer durations and higher peaks, forecasts become lifelines: they guide hospital preparations, energy management,…

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