Upgraded capabilities ready to explore quarks and gluons ready at the Large Hadron Collider.
New research could change our view of neutron stars and other systems with neutron-rich nuclei.
First description of common particle’s properties provides insights into the nature of the universe.
New detector component picks up particles composed of heavy quarks to probe primordial quark-gluon plasma.
Researchers count the number of radioactive krypton-81 atoms remaining in ice using a laser trap.
The recently upgraded CEBAF accelerator delivers its highest-energy electron beams into a new experimental complex for the first time.
An optimized nuclear force model yields a high-precision interaction with an unexpected descriptive power.
Advances in theory have made it possible to predict cooling behavior observed in accreting neutron stars.
Scientists make the first experimental determination of the weak charge of the proton and extract the weak charges of the neutron and up and down quarks.
Argonne superconducting radiofrequency technology boosts a variety of applications.
Particles flowing from heavy ion collisions at RHIC and LHC reveal properties of new form of matter.
US-led experiments at the LHC recreate the brightest, most dense quark gluon plasma.
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