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.
muons
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.
For the Muon g-2 experiment, researchers create billions of muons to study their surprising properties.
The Mu2e experiment at Fermilab will look for a never-before-seen subatomic phenomenon that, if observed, would transform our understanding of elementary particles: the direct conversion of a muon into an electron. An international collaboration of over 200 scientists is building the Mu2e precision particle detector that will hunt for new physics beyond the Standard Model.
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 The Big Think, January 6, 2022: Particle physics needs a new collider to supersede the Large Hadron Collider. Muons, not electrons or protons, might hold the key.
From Business AM (Belgium), January 1, 2022: In 2021, physicists around the world conducted some interesting experiments examining the Standard Model and ways it can’t explain every mystery of the universe. Last April, members of the Muon g-2 experiment at Fermilab announced their first measurement of the muon’s magnetic moment. This experiment was important was because the measurement did not perfectly match the Standard Model’s prediction of the magnetic moment.
Researchers from more than 50 countries collaborate with Fermilab to develop state-of-the-art technologies and solve the mysteries of matter, energy, space and time. Take a look at 10 ways Fermilab and its partners advanced science and technology in 2021.
Building experimental evidence suggests that the electron, muon and tau may feel different forces.
From Fuentitech, October 19, 2021: Physicists have long wondered if muons, electrons, and other leptons make a difference other than mass. The latest LHCb results suggest that the answer may be “yes” by revealing two minor anomalies that continue the strange pattern of “lost” muons shown in recent data from the LHCb. In April, the Muon g-2 experiment at Fermilab also found a discrepancy from the Standard Model but future results may also shed light on these differences.