From Nature, May 5, 2021: The established theory of the standard model, and has passed a vast number of experimental tests with flying colors. But one such test — the determination of the magnetic moment of an elementary particle known as the muon — has resulted in a long-standing discrepancy between theory and experiment.
The U.S. Department of Energy has given the U.S. High-Luminosity Large Hadron Collider Accelerator Upgrade Project approval to move full-speed-ahead in building and delivering components for the HL-LHC, specifically, cutting-edge magnets and accelerator cavities that will enable more rapid-fire collisions at the collider. The collider upgrades will allow physicists to study particles such as the Higgs boson in greater detail and reveal rare new physics phenomena. The U.S. collaborators on the project may now move into production mode.
From Inside Science, Nov. 12, 2020: A recent experiment has created a one-way quantum network between two labs, reaching a milestone on the path to creating a quantum internet. Fermilab Deputy Director Joe Lykken weighs in.
From Argonne National Laboratory, May 5, 2020: Using Argonne’s supercomputer Mira, researchers have come up with newly precise calculations aimed at understanding a key gap between physics theory and measurements by the Muon g-2 experiment
From WBUR’s Here & Now, Feb. 12, 2020: The United States will soon have its first new particle collider in decades. Earlier this year, the Department of Energy announced that Brookhaven National Laboratory in Upton, New York, will be home to the Electron-Ion Collider, which will investigate what’s inside two subatomic particles: protons and neutrons. DOE Undersecretary for Science Paul Dabbar mentions the Deep Underground Neutrino Experiment.
From Brookhaven National Laboratory, Oct. 11, 2019: Dmitri Denisov, a leading physicist and spokesperson of the DZero experiment, has been named deputy associate lab director for high-energy physics at Brookhaven National Laboratory. In this role, Denisov is responsible for Brookhaven’s strategic planning in high-energy physics and oversees a wide range of particle physics projects at the lab.
From Exascale Computing Project, May 28, 2019: Fermilab scientist Andreas Kronfeld is featured in this piece on the Excascale Computing Project, quantum chromodynamics and lattice QCD. Kronfeld, the principal investigator of ECP’s LatticeQCD project, explains how exascale computing will be essential to extending the work of precision calculations in particle physics to nuclear physics. The calculations are central for interpreting all experiments in particle physics and nuclear physics.
Physicists often find thrifty, ingenious ways to reuse equipment and resources. What do you do about an 800-ton magnet originally used to discover new particles? Send it off on a months-long journey via truck, train and ship halfway across the world to detect oscillating particles called neutrinos, of course. It’s all part of the vast recycling network of the physics community.
From 9 to 5 Google, Nov. 15, 2018: The LHC’s massive physics experiments will require computing capacity that is an estimated 50-100 times higher than today. Google finds the challenge exciting and has already been working with Fermilab and Brookhaven National Laboratory to store and analyze data from the LHC using the Google Computer Engine.