Plasma, the fourth state of matter, consists of a gas in which electrons are no longer bound to atoms, which allows ...

A beam of electrons crossed just a few millimeters of plasma, then helped trigger an effect that usually belongs to massive research sites. In this case, the light produced fell in the extreme ...

A tiny discrepancy in particle physics has loomed for decades as an exciting possible crack in one of science's most ...

Scientists have activated the smallest particle accelerator ever built—a tiny device roughly the size of a coin. This advancement opens new doors for particle acceleration, promising exciting ...

Researchers in Prague have developed a theoretical framework for using beam-driven nonlinear plasma waves as 'relativistic mirrors' to generate bright attosecond X-ray pulses. The work connects ...

Particle accelerators reveal the heart of nuclear matter by smashing together atoms at close to the speed of light. The high-energy collisions produce a shower of subatomic fragments that scientists ...

New experimental results show particles called muons can be corralled into beams suitable for high-energy collisions, paving the way for new physics. New experimental results show particles called ...

Innovative machine learning techniques are rapidly transforming particle accelerator physics by integrating advanced data analytics with established accelerator models. This integration has led to ...

Alex Bogacz, a senior scientist at the U.S. Department of Energy's Thomas Jefferson National Accelerator Facility since 1997, has spent his career in accelerator physics solving problems. From ...

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Traditional particle accelerators, including radiofrequency linear accelerators and synchrotrons, have pushed physics forward for decades. They are also expensive, physically large, and limited in how ...