In the news – DUNE media

South Dakota Public Broadcasting recently went underground in Lead, SD to learn about major projects at SURF. This includes Lux Zeppelin, CASPAR and DUNE.

The B1M channel, the world’s largest online video channel for construction projects, describes the LBNF/DUNE project and how it will help us continue to advance particle physics research.

Fermilab directors and technicians were at Unicamp recently as part of the technical visit schedule of the research program for neutrino identification called LBNF/DUNE. The Brazilian team is developing the technology for photodetection of the light generated by the particle detectors and the production of highly pure liquid argon.

In South Dakota, at SURF, scientists have built three huge tunnels about 1,500 meters below the ground. Here, a massive experiment called DUNE is taking place with more than 1,400 scientists from 35 countries.

The BBC covers how the Deep Underground Neutrino Experiment will study the change in neutrinos and anti-neutrinos as they travel 800-miles from Fermilab in Illinois to SURF in South Dakota.

SDPB speaks with the science director at SURF about the outfitting massive underground caverns at SURF.
The caverns are currently having utilities, like fire suppression and duct work installed and will host cryostats for DUNE’s far detectors.

Crews with the Sanford Underground Research Facility will undergo the careful process of lowering about 380 steel beams a mile underground soon. Each beam weighs about 12,800 pounds.

Brazil is a leading collaborator in the development of innovative technologies for the DUNE experiment. The State University of Campinas (Unicamp) is developing technologies for the liquid argon purification process and the X-Arapuca light detector.

Discover magazine interviews Dr. Robert Wilson, one of the founding members of DUNE, about the goals of DUNE in studying the behavior of neutrinos.

A new study explores the possibility of studying the sun’s interiors using neutrinos. By studying oscillations at different energy levels, scientists can infer details about the sun’s density structure beyond what traditional models provide.