neutrino

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.

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

The Short-Baseline Near Detector’s wealth of data will enable researchers to study neutrino interactions with a level of precision never before achieved.

The Innovation Platform investigates how the NOvA experiment at Fermilab is working to determine the role of mysterious neutrinos. To find out more about the NOvA experiment’s goals and recent progress, Innovation Platform recently spoke to NOvA co-spokespersons Patricia Vahle, Professor of Physics at William & Mary, and scientist Alex Himmel from Fermilab.

The Black Hills Pioneer covers what is DUNE and why is it important in a special section covering underground science in the Black Hills region. Starting on page 11, an interview with DUNE Physics Coordinator, Chris Marshall, discusses how the project will work and the science of DUNE.

As part of the international NOvA collaboration, William & Mary scientists are one step closer to unraveling the mysteries of neutrinos, with new results recently presented at the Neutrino 2024 conference. The latest results from the collaboration move science toward larger discoveries about the “ghost” particles of the universe.

The international collaboration presented their first results with new data in four years, featuring a new low-energy sample of electron neutrinos and a dataset doubled in size.

Over the course of three years, scientists working on MINERvA recorded more than a million interactions of antineutrinos with other particles. This data allowed scientists to finally calculate the proton’s size using neutrinos, making this a statistically significant measurement of this characteristic.

The Sanford Lab Homestake Visitor Center in Lead, SD has a new centerpiece. A towering three-dimensional model that includes the Open Cut and 370 miles of drifts, ramps, and shafts that make up the Sanford Underground Research Facility was made to convey the giant caverns at SURF for the Long Baseline Neutrino Facility / Deep Underground Neutrino Experiment.

Tau neutrinos were observed for the first time in 2000 at Fermilab. Today, IceCube scientists have detected high-energy tau neutrinos from deep space, suggesting that neutrino transformations occur not only in lab experiments but also over cosmic distances.