neutrino

The Fermilab hosted international Deep Underground Neutrino Experiment experiment recently completed the excavation for the detector caverns located almost a mile underground. By the end of the decade, results from DUNE could illuminate why the Universe predominantly consists of matter.

The excavation of the caverns that will house the gigantic particle detectors of the Deep Underground Neutrino Experiment in Lead, South Dakota is complete. Final outfitting of the colossal caverns will begin soon and make way for the start of the installation of the DUNE detectors later this year.

The major part of the excavation of the caverns for the Long Baseline Neutrino Facility at SURF is nearing completion. The caverns will house the very large detectors for the Deep Underground Neutrino Experiment in Lead, South Dakota.

Fermilab’s MINERvA experiment was chosen as one of the nine runners up as part of the Physics World 2023 Breakthrough of the Year. The MINERvA research shows how information about the internal structure of the proton can be gleaned from neutrinos scattering from a plastic target.

Although neutrinos are the most common matter particle in the universe they are also known as ghost particles because they move through our bodies every second without ever interacting with us. Neutrinos won’t be scaring anyone on Halloween but they will be studied by scientists in the Deep Underground Neutrino Experiment led by Fermilab.

The University of Liverpool is addressing the most fundamental research questions in physics – leading and influencing global discovery driven scientific efforts to advance our understanding and description of nature. Fermilab is included in this video about pioneering precision and neutrino physics experiments, including the Muon g-2 experiment and commentary by Professors Graziano Venanzoni, Muon g-2 co-spokesperson.

From Popular Science: A new observatory under construction in China—the Jiangmen Underground Neutrino Observatory, or JUNO—plans to hunt the elusive neutrino with better sensitivity than ever before. Expected to be operational in 2024, this detector will not only be bigger, but also more sensitive to slight variations in neutrinos’ energies than any of its predecessors.

Unseen neutrinos, visible lives: A photographer journeys through the Midwest.

Current understandings of neutrino-nucleon interactions rely on data from experiments in the 1970s and ’80s. However, by using lattice quantum chromodynamics to predict stronger neutrino-nucleon interactions, scientists can determine oscillation properties of the elusive neutrinos in Fermilab’s DUNE experiment and other neutrino oscillation experiments.

Scientists are using a new machine learning tool called sparse convolutional neural networks, or SCNNs, to analyze data faster and more efficiently than ever before. SCNNs are expected to play a critical role in analyzing the data gathered from the upcoming DUNE experiment.