In the news – DUNE partners

The DUNE experiment with study neutrinos and antineutrinos. A recent paper suggests DUNE might also be able to detect and confirm the existence of large extra dimensions.

A study published in the Journal of High Energy Physics proposes that the enigmatic behavior of neutrinos could be explained if there exist extra spatial dimensions on the scale of micrometers and the familiar three dimensions of space. The theory of large extra dimensions offers a potential explanation for the origin of the tiny neutrino masses not covered int he Standard Model of Physics.

A newly published white paper outlines the next 10 years of global research into the behavior of neutrinos that could explain why the universe has more matter than antimatter. One of those neutrino projects is DUNE, the most ambitious neutrino research project led by Fermilab. The paper was an ambitious undertaking of the more than 170 contributors from 118 organizations and was a result of Snowmass 2021/2022.

Senator John Thune of South Dakota has worked for decades to help convert an abandoned gold mine in South Dakota into the Deep Underground Neutrino Experiment.

Journalists were recently invited to tour JUNO, a $300 million science facility designed to measure neutrinos. The U.S.-based DUNE project will also measure neutrinos. If JUNO explains the story of neutrino masses before DUNE comes online, the Fermilab-led project would then be able to measure the question differently and confirm JUNO’s results.

The UK Science and Technology Facilities Council (STFC) awarded Lancaster University £928,000 for the DUNE Anode Plane Assemblies project and £901,000 for the DUNE Reconstruction Software and Distributed Computing initiative. These projects form part of a wider UK DUNE collaboration that is providing significant effort in areas key to the success of the DUNE project.

A successful test delivers DUNE steel beam a mile underground at Sanford Underground Research Lab in Lead, South Dakota.

Now that the excavation of 800,000 tons of rock from the Sanford Underground Research Facility is complete, LBNF-DUNE teams are working on the the far detector in South Dakota and the near detector at Fermilab in Illinois. The science collaboration includes more than 35 countries and DOE’s Office of Science is supporting the LBNF-DUNE to help answer some of physics’ biggest questions.

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.

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.