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.
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From NSF’s NOIRLab, June 8, 2021: The Dark Energy Camera (DECam) built and tested by Fermilab, one of the most powerful digital cameras in the world, has taken its one-millionth exposure. DECam’s million exposures include science observations as well as test and calibration exposures taken by the camera while it was being fine-tuned after its construction and installation on the Blanco telescope in 2012.
From Yahoo, May 30, 2021: Scientists from the Dark Energy Survey collaboration have just released the best dark matter map yet, but it’s not answering every question — if anything, the cosmos may be more mysterious than ever.
From Physics Today, June 1, 2021: How do you transport a 15 000-kilogram magnetic ring with the same width as a basketball court from central Long Island to suburban Chicago? In 2011 Fermilab shut down its particle collider, the Tevatron, which made space to host a project like Muon g – 2, to house the high-intensity proton source that would generate the muons.
From Cosmos, May 29, 2021: The Dark Energy Survey collaboration released the most precise look at the universe’s evolution to understand dark matter and dark energy by studying how they shape the large-scale structure of the universe.
From Physics Today, May 30, 2021: How the Muon g-2 results from Brookhaven and Fermilab have challenged the standard model.
From the University of Chicago News, June 3, 2021: University of Chicago Professor Dan Hooper, who worked on the muon g-2 experiment, discusses how the g-2 result challenges “standard model” and open a whole new kind of physics.
From CNN, June 3, 2021: Fermilab’s Don Lincoln covers the capabilities of the Dark Energy Spectroscopic Instrument, or DESI, in mapping the structure of the entire cosmos.
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.