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14 results for "antimatter"
Physicists at CERN successfully transported 92 antimatter particles in a truck, marking the first time antimatter has ever left the lab. This breakthrough could unlock new discoveries about why our universe exists.
Scientists at CERN just pulled off something humanity has never done before: successfully transporting antimatter from one lab to another. The historic 30-minute journey could open the door for antimatter research worldwide.
CERN researchers successfully transported antimatter particles around their campus in a portable trap, opening the door to delivering these rare particles to labs across Europe. This breakthrough could revolutionize our understanding of why the universe exists.
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In a world first, physicists at CERN successfully transported antimatter in a truck for 30 minutes, opening the door to studying the universe's rarest substance at labs worldwide. The achievement could help solve one of physics' greatest mysteries: why our universe exists at all.
CERN researchers successfully moved 92 antiprotons in a specially designed magnetic bottle on a 30-minute truck journey, making history as the first-ever antimatter transport. The breakthrough could unlock new ways to study the universe's deepest mysteries in quieter lab environments.
Four stadium-sized balloons just spent weeks floating over Antarctica, searching for antimatter and ghostly neutrinos that could unlock the universe's biggest mysteries. NASA's record-breaking mission brings scientists closer to understanding dark matter without the cost of launching rockets.
Scientists have finally captured definitive gamma-ray evidence of a supercharged supernova, revealing how the most magnetic objects in the universe are born. After nearly 20 years of searching, NASA's Fermi spacecraft witnessed a stellar explosion powered by a newborn magnetar spinning 700 times per second.
Scientists just broke ground on America's most ambitious physics experiment ever: a massive underground detector that could explain why anything exists at all. The project transforms an old South Dakota gold mine into a laboratory hunting the universe's most elusive particle.
Gravitational wave data reveals proof of rare supernovae so powerful they completely vaporize stars without leaving black holes behind. The discovery helps explain a mysterious gap in black hole sizes across the cosmos.
America's largest particle collider ended its groundbreaking 25-year run, but scientists are already building something even better in its place. The machine recreated conditions from microseconds after the Big Bang and solved mysteries about the building blocks of matter.
Physicists at Brookhaven National Laboratory just confirmed something amazing: the particles that make up our universe retain a special connection to the quantum vacuum where they originated. This breakthrough opens a new window into understanding how everything we see emerged from what looks like nothing.
In 1908, a cosmic airburst flattened 800 square miles of Siberian forest with hundreds times the energy of Hiroshima, yet left no crater. Scientists now understand why, and it's helping protect Earth today.
For the first time in nearly 20 years of searching, scientists have definitively detected gamma rays from a rare superluminous supernova, solving a cosmic mystery about what powers these exceptionally bright stellar explosions. The culprit: a newborn magnetar with the strongest magnetic field in the universe.
Scientists finally discovered what powers the brightest stellar explosions ever seen: ultra-magnetic newborn stars spinning hundreds of times per second. The breakthrough came after NASA's Fermi telescope detected gamma rays from a supernova 440 million light-years away.