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Faculty and students in the Experimental Neutrino Physics group at Syracuse University are working on DUNE detector construction, operation and analysis. This includes collaboration work on the the 2×2 prototype, a new prototype “pixel” Liquid Argon Time Projection Chamber detector and the Short-Baseline Near Detector.

ABC-7 Chicago visited Fermilab to celebrate Hispanic Heritage Month with Jessica Esquivel. Her love of science brought her to Fermilab to do new research into the nature of the universe. Her love for her community is sharing that science and showing others their true potential.

Argonne recently hosted the 25th international workshop on Neutrinos from Accelerators attended by global experts in high energy physics. Fermilab Director, Lia Merminga was the keynote speaker to nearly 200 theorists and experimentalists attending NuFact who are investigating the elusive neutrino.

A repost of the U.S. Department of Energy’s Office of Science. Now that the excavation of the LBNF-DUNE project is complete, science and engineering teams are developing the detectors and systems DUNE will use to study neutrinos. The launch of LBNF/DUNE will bring a new era in understanding neutrinos and knowing more about our universe as a whole.

The 2×2 detector has captured its first neutrino interactions at Fermilab with help from scientists at SLAC. The prototype neutrino detector will help fine-tune a full-size version of the DUNE Near Detector Liquid Argon detector and will capture up to 10,000 neutrino interactions per day.

DOE has awarded the Fermi Forward Discovery Group, LLC a new management and operating contract for Fermilab, the nation’s leading particle physics and accelerator laboratory, for a five-year term beginning Jan. 1, 2025.

From National Geographic Spain, right click to translate. Why are particle accelerators so important as machines that help us find the answers to the questions of how the universe works and why we are here.

Fermilab’s Ron Ray speaks with the Infrastructure Show about the Deep Underground Neutrino Experiment and why the experiment will study to understand neutrinos.

Following nearly a decade of analysis, the CMS experiment has found that the W boson’s mass aligns perfectly with Standard Model predictions with remarkable accuracy.

At the beginning of the universe, equal amounts of matter and antimatter collided and there should have been nothing left. Yet, matter won out but why? Fermilab scientist Jessica Esquivel talks with NPR about the mysteries of neutrinos for answers.