From Science News, September 22, 2022: Emily Conover explains in this video why the universe contain so much more matter than antimatter told through the lens of a classic, 8-bit video game, with matter and antimatter locked in an epic battle for cosmic supremacy. Experiments like DUNE will examine ghostly subatomic particles known as neutrinos to provide clues.
From NBC News, May 4, 2022: A new research initiative that includes Fermilab scientist Alan Bross plans to scan Egypt’s Great Pyramid of Giza using energetic particles from space. The new device is a high-powered telescope to map the Great Pyramid’s internal makeup from all angles and could help scientists “see” inside the ancient structure to glean new details about its mysterious inner chambers.
From Science News, April 22, 2022: A more detailed survey of the Great Pyramid is being planned by a team of researchers who will place much larger detectors than previously used outside the pyramid measuring muons from multiple angles. The results will provide a 3-D view of what’s inside in the Great Pyramid, says Fermilab particle physicist Alan Bross.
From Live Science, March 14, 2022: Fermilab’s Alan Bross is leading a team planning to scan the Great Pyramid of Giza, the largest pyramid ever constructed in ancient Egypt. The team will use powerful scans to analyze muons in greater detail aiming to answer the question of what exists in two mysterious voids in the pyramid.
From World Nuclear News, December 7, 2021: A neutrino detection kit has been installed in the containment of Argentina’s Atucha 2 reactor in support of a US-Argentine experiment to learn more about the mysterious particles. Scientists of the vIOLETTA Project are using sensitive Skipper CCD equipment designed and prepared by Fermilab and Berkeley labs. It will be able to detect interactions between neutrinos and a silicon matrix. The experimental arrangement will give them insights on neutrinos at previously unexplored low energy ranges.
From Wired, December 5, 2021: Years of conflicting measurements have led physicists to propose a “dark sector” of invisible particles that could explain dark matter and the universe’s expansion. Now, four analyses released yesterday by the MicroBooNE experiment from Fermilab and another recent study from the IceCube detector at the South Pole both suggest that these more complex neutrino theories may be on the right track—though the future remains far from clear.
From Columbia News, September 8, 2021: A Q&A with physicist Georgia Karagiorgi explaining her fascination with neutrinos and particle physics and what she hopes to learn at the Fermilab.
From Wonderful Engineering, September 8, 2021: When it comes to traveling at the speed of light, Don Lincoln’s video, “How to travel faster than light”, explains how light travels at different speeds in different mediums.
From Forbes, Sept. 8, 2021: The Standard Model provides the framework of all the known and discovered fundamental particles, but has no way of providing expected values for what masses each particle should possess. Fermilab’s Main Ring, in operation for 25 years by physicists who used the accelerator for experiments, helped to create our current picture of the ultimate structure of matter, the Standard Model of particle interactions.
From WORT 89.9 FM-Madison WI, Aug. 26, 2021: General Counsel for Fermilab, John Myer, talks with 89.9 FM hosts, Ankur Malhotra and Austin Exum, about the major projects and practical applications of the research performed at Fermilab.