NEWS RELEASES

Check out the first of a two-part series exploring how artificial intelligence helps researchers from around the world perform cutting-edge science with the lab’s state-of-the-art facilities and instruments. In this part you’ll learn how SLAC researchers collaborate to develop AI tools to make molecular movies, speeding up the discovery process in the era of big data.

Particle accelerator scientists have made the measurements, crunched the numbers and consolidated the data on the performance of the brightest electron accelerator for nuclear physics research. In a new study, more than 100 authors have detailed the original and current operating parameters, main systems and subsystems, and capabilities and limits of Jefferson Lab’s main particle accelerator, the Continuous Electron Beam Accelerator Facility (CEBAF).

Walt Akers, chief systems engineer for experimental nuclear physics at Jefferson Lab was tasked with creating a 3D-printed model of a section of the Electron-Ion Collider (EIC), a next-generation particle accelerator being built at the DOE’s Brookhaven National Laboratory in partnership with Jefferson Lab. He took his inspiration from toy building blocks.

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 studying complex particle beam dynamics in particle accelerators to designing next-generation machines, his almost four decades of work have recently been recognized by his peers by being named a Fellow of the American Physical Society in October 2024.

The latest addition to the computational arsenal of Jefferson Lab is an extraordinary machine with the admittedly ordinary name of “24s.” The 24s cluster at Jefferson Lab will work to unlock the mysteries of the nucleus of the atom. It was funded by the Nuclear and Particle Physics LQCD Computing Initiative of DOE’s Office of Nuclear Physics.

New results published in Physical Review Letters describe a first-time glimpse of the internal structure of the neutron thanks to the development of a special, 10-years-in-the-making detector installed in Experimental Hall B at Jefferson Lab.

Axions are the most likely candidate for enigmatic dark matter that dominates the universe. Astrophysicists are searching for evidence of high-mass axions produced during supernovae. UC Berkeley and Berkeley Lab scientists propose that a quick way to find these axions is to look for a gamma ray burst coincident with a neutrino burst from a nearby core collapse supernova. But we need a fleet of gamma ray telescopes to insure we capture these rare events.