Over time, particle physics and astrophysics and computing have built upon one another’s successes. That coevolution continues today. New physics experiments require computing innovation, including cluster computing for the Tevatron, and more recently machine learning and quantum problem-solving.
Accommodations necessitated by the global pandemic made participation in academic conferences easier for physicists with and without disabilities.
The Society for Advancement of Chicanos/Hispanics and Native Americans in Science helps students and professionals find community.
Even experiments that aren’t looking for dark matter directly, such as Muon g-2, could give us hints about the mysterious substance that permeates our universe.
A CERN photographer and videographer writes about his experiences documenting the ongoing upgrade that will turn the Large Hadron Collider into the High-Luminosity LHC.
Scientists from Fermilab and other institutions hoping to find new, long-lived particles at the Large Hadron Collider recently realized, with CMS, they may already have the detector to do it.
The ATLAS experiment at CERN sees possible evidence of quark-gluon plasma production during collisions between photons and heavy nuclei inside the Large Hadron Collider.
Back when it was theorized, scientists weren’t sure they would ever detect the neutrino. Now scientists, including some at Fermilab, are searching for a version of the particle that could be even more elusive.
For the first time, African physicists and other researchers are creating a grassroots strategy for the future of physics research and education.
The newly discovered tetraquark provides a unique window into the interactions of the particles that make up atoms.