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The cryomodule from Fermilab is 12 meters (39 feet) long and will start the transport to SLAC on March 19, 2021. Photo: Fermilab

Fermilab delivers final superconducting particle accelerator component for world’s most powerful X-ray laser

Fermilab gives a sendoff to the final superconducting component for the LCLS-II particle accelerator at SLAC National Accelerator Laboratory in California. LCLS-II will be the world’s brightest and fastest X-ray laser. A partnership of particle accelerator technology, materials science, cryogenics and energy science, LCLS-II exemplifies cross-disciplinary collaboration across DOE national laboratories.

Method for determining electron beam properties could help future ultraviolet, X-ray synchrotron light sources

Fermilab user and University of Chicago PhD candidate Ihar Lobach explains how his team used Fermilab’s IOTA electron storage ring to glean insights that can be difficult to obtain on an electron beam and how this proof of principle could benefit the Advanced Photon Source Upgrade at Argonne National Laboratory.

A brief history of women of Fermilab

No aspect of Fermilab, past or present — the accomplishments of the Tevatron, the popular Arts and Lecture Series, the education efforts, the world-leading neutrino program — would be what it is today without the contributions of women. This International Women’s Day, we honor their contributions.

One of the DUNE near detector's subdetectors, SAND, will detect neutrinos with an electronic calorimeter, which measures particle energy, and a tracker, which records particle momenta and charge. A second subdetector will use liquid argon to mimic the neutrino interactions in the far detector. The third will use gaseous argon. Working together, they will measure particles with more precision than other neutrino detectors have been able to achieve. Credit: DUNE collaboration

Particle detector at Fermilab plays crucial role in Deep Underground Neutrino Experiment

DUNE’s near detector, located at Fermilab, will take vital measurements of neutrino beam energy and composition before it reaches the experiment’s far detector in South Dakota. Its unmatched precision measurements will offer its own opportunities for the discovery of new physics.