Sarah Charley

Learn about the Standard Model of particle physics and how physicists use it to predict the (subatomic) future.

Higgs-boson pairs could help scientists understand the stability of our universe. The trick is finding them.

Missing visits to the museum? Or in need of some home-school activities? Check out these five do-it-yourself physics demos from Ketevan Akhobadze, an exhibit developer for the Lederman Science Center at Fermilab.

Symmetry writer Sarah Charley answers life and relationship questions through the lens of fundamental physics. Instead of using analogies from elsewhere in life to explain science, she’ll use physics analogies to explore human nature. This time, she tackles unwanted gifts, when to give up on a dream and how friendships might be like Newtonian mechanics.

Later this decade, the Large Hadron Collider will be upgraded to the High-Luminosity LHC. What does “luminosity” mean in particle physics, and why measure it instead of collisions?

Matter and antimatter particles can behave differently, but where these differences show up is still a puzzle. Scientists on the LHCb experiment at the Large Hadron Collider study much more subtle differences between matter particles and their antimatter equivalents. A recent analysis allowed them to revisit an old mystery — an asymmetry between asymmetries.

When two heavy ions collide inside a particle accelerator, they produce a near-perfect fluid through which an assortment of fundamental particles swim. For scientists to accurately simulate even a tiny drop of this hot and dense subatomic brew with a classical computer, it would take longer than the age of the universe. Scientists show how quantum computing could be a game-changer in our understanding of quantum processes.

Results from the ProtoDUNE single-phase detector at CERN pave the way for detectors 20 times larger for the international Deep Underground Neutrino Experiment, hosted by Fermilab.

A recent observation of an extremely rare subatomic process allows scientists to test the Standard Model’s boundaries.

Extremely massive fundamental particles could exist, but they would seriously mess with our understanding of quantum mechanics.