Drilling for neutrinos
Construction crews will excavate around 800,000 tons of rock to make space for the international Deep Underground Neutrino Experiment. But first, teams must carve out a quarter-mile-high ventilation shaft.
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Construction crews will excavate around 800,000 tons of rock to make space for the international Deep Underground Neutrino Experiment. But first, teams must carve out a quarter-mile-high ventilation shaft.
From Sanford Lab, July 2021: Explore all the Neutrino Day events July 9-10 to talk with scientists, participate in interactive activities, experience weird science demonstrations, take virtual tours of the underground, and visit the art gallery and library—all in real time! Use the free and simple platform, Gather.town, to virtually go to Neutrino Day town where you can enjoy the events and interact with others as you would in real life.
From Sanford Lab, July 6, 2021: Celebrate Neutrino Day with SURF’s Star Chronicles on Friday, July 9, and Saturday, July 10. See the line-up of virtual events streaming through Gather.town, a free and simple platform, where attendees can explore the events and interact with others as they would in real life.
The first module of the prototype pixel-based neutrino catcher developed for the Deep Underground Neutrino Experiment is on its way to Fermilab from the University of Bern.
From the Black Hills Pioneer, June 20, 2021: The former Homestake Gold Mine was the largest and deepest in the western hemisphere and today it is the largest science project attempted on U.S. soil. The LBNF/DUNE includes a collaboration of more than 1,300 scientists from 32 countries. Read more about the significant impacts LBNF/DUNE is having on South Dakota.
When studying mysterious subatomic particles, researchers at SURF in South Dakota use a different kind of particle detector, particle counters, to prevent run-of-the-mill dust particles from creating background noise and obscuring results.
From Science Magazine (UK), June 9, 2021: Brookhaven scientists have developed new ways for the MicroBooNE detector at Fermilab to filter out cosmic ray tracks to pinpoint elusive neutrino interactions with unprecedented clarity.
Ground-breaking image reconstruction and analysis algorithms developed for surface-based MicroBooNE detector filter out cosmic ray tracks to pinpoint elusive neutrino interactions with unprecedented clarity.
Alfons Weber has achieved full professorship teaching Experimental Particle Physics at Johannes Gutenberg University Mainz. His joint appointment at JGU and Fermilab represents the expansion of PRISMA+ neutrino physics research program.
From Forbes, June 1, 2021: Fermilab’s Don Lincoln explains how researchers use observations of high energy particles to better understand rare astronomical phenomena such as black holes, supernovae, colliding stars, and other cosmic calamities.