1411 - 1420 of 1533 results
From Science, Sept. 20, 2017: UK pledges $88 million to gigantic U.S. particle physics experiment — DUNE.
From Nature, Sept. 5, 2017: Maps of the cosmic microwave background have become iconic representations of the early universe. But when the Dark Energy Survey collaboration unveiled the analysis of their first year of data last month, many felt that a new era had started.
From How Stuff Works, Aug. 25, 2017: DUNE will entail shooting a powerful beam of neutrinos through Earth’s mantle and perhaps unlocking some of our universe’s greatest mysteries in the process.
From Forbes, Aug. 29, 2017: Latest results from the five year long Dark Energy Survey puts the Standard Model of our universe under the most precise test yet.
From USA Today, Aug. 9, 2017: Fermilab’s Bonnie Fleming and Chris Mossey talk about DUNE, LBNF, and how we can answers to questions about our universe may depend on once again striking gold in a mine buried a mile underground in rural South Dakota.
From BBC News, Aug. 3, 2017: Dark Energy Survey researchers have released the most accurate map ever produced of the dark matter in our universe.
From Quanta, Aug. 3, 2017: Fermilab scientists Josh Frieman and Scott Dodelson talk about the latest major result from the Dark Energy Survey, which could signal the start of a new era of cosmology.
From Daily Herald, July 26, 2017: The ICARUS neutrino detector — the largest liquid-argon particle detector ever built — ended its intercontinental journey Wednesday, rolling through the gates of its new home at Fermi National Accelerator Laboratory in Batavia.
From The Beacon-News, July 26, 2017: Fermilab scientist Catherine James reflects on the large box sitting on a flatbed that contained half of the ICARUS liquid-argon particle detector, at 60 feet long and 120 tons the largest of its kind, which she will work with when its installed and running by the end of the year.
From LiveScience, July 21, 2017: On the occasion of the LBNF/DUNE groundbreaking, Fermilab scientist Don Lincoln explains why neutrinos are so compelling.