Scientists have kept a particle of antimatter trapped for months. That is unusual, because antimatter vanishes the moment it touches normal matter. Physicists use magnetic fields inside a vacuum to hold antiparticles away from the walls of a container. Keeping them longer lets teams measure them with far more precision. The work may help explain why the universe holds so much matter and so little antimatter.
Antimatter particles have the same mass as normal particles but the opposite charge. When the two meet, they destroy each other and release energy. Labs such as CERN have built traps for antihydrogen for years. Early traps held atoms for fractions of a second. Later versions stretched that to minutes. Months of storage would let scientists study gravity and light spectra in new detail.
Basic physics rarely changes your day, but it shapes future technology. Better antimatter tools could aid medical scans and energy research.

Scientists have kept a particle of antimatter trapped for months. That is unusual, because antimatter vanishes the moment it touches normal matter. Physicists use magnetic fields inside a vacuum to hold antiparticles away from the walls of a container. Keeping them longer lets teams measure them with far more precision. The work may help explain why the universe holds so much matter and so little antimatter.

Antimatter particles have the same mass as normal particles but the opposite charge. When the two meet, they destroy each other and release energy. Labs such as CERN have built traps for antihydrogen for years. Early traps held atoms for fractions of a second. Later versions stretched that to minutes. Months of storage would let scientists study gravity and light spectra in new detail.

Basic physics rarely changes your day, but it shapes future technology. Better antimatter tools could aid medical scans and energy research.

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