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Is particle physics at a dead end?

    From Prospect, August 29, 2022: The LHC is back running now colliding more intense beams, generating more collisions and collecting more data to sift. Fermilab’s Muon g-2 results offered an intriguing hint about muons that the LHC can follow up on by looking for new particles directly and the behavior it should induce in particles we know about.

    Particle physics and astronomy

      From Coast to Coast with George Noory, August 17, 2022: Fermilab’s senior scientist Don Lincoln talks about his time working on the Tevatron at Fermilab and the LHC at CERN. Listen to find out more about the restart of the LHC and the big mysteries in astronomy regarding dark matter and how galaxies defy physics.

      Physicists spotted rare W boson trios at the Large Hadron Collider

        From Science News, August 15, 2022: W bosons are particles that transmit the weak force, which is responsible for certain types of radioactive decay. Last April, Fermilab researchers reported the W boson was more massive than predicted, hinting that something may be amiss with the standard model. Now a team of scientists with ATLAS at the LHC are reporting rare boson triplets which continues to test the standard model for any cracks.

        Optical stochastic cooling improves particle accelerator beams

          From Techfragments, August 12, 2022: Jonathan Jarvis led a team of researchers who used the Integrable Optics Test Accelerator at Fermilab to demonstrate and explore a new kind of beam cooling technology. “Cooling” a beam reduces the random motion of the particles making the beam narrower and denser. Physicists could potentially use this new method to explore rare physics phenomena that help us understand our universe.

          Long-baseline neutrino experiments march on

            From Phys.org, August 3, 2022: Fermilab’s NOvA experiment reports analysis on oscillation data delivering some of the most accurate estimates to date describing neutrino oscillations and providing important hints on two important aspects of neutrino physics—the ordering of neutrino masses and the degree of charge-parity (CP) violation. These results set the stage for the next generation of “long-baseline” experiments, like Hyper-K and DUNE, which will dramatically boost our ability to probe elusive aspects of neutrino physics.