
Imaging Nuclear Shapes by Smashing them to Smithereens
Scientists use high-energy heavy ion collisions in a new way to reveal subtleties of nuclear structure with implications for many areas of physics.
Scientists use high-energy heavy ion collisions in a new way to reveal subtleties of nuclear structure with implications for many areas of physics.
A revolutionary Coherent Correlation Imaging method visualizes electronic ordering in magnetic materials and opens a path to new data storage technologies.
Particles of light from collisions of deuterons with gold ions provide direct evidence that energetic jets get stuck.
Strange metals defy the 60-year-old understanding of electric current as a flow of discrete charges.
Ultrafast X-ray scattering and advanced numerical simulations decode distinct molecular structures and their equilibration dynamics in metal-metal complexes.
Scientists Gain new insights into the nature of the puzzling lambda 1405 hyperon resonance and its controversial partner.
Scientists are closing in on a major cornerstone of nuclear physics, Tin-100.
Scientists demonstrated a new way to produce the superheavy element livermorium (element 116) with titanium-50.
Integrating machine learning with real-time adaptive control produces high-performance plasmas without edge instabilities, a key for future fusion reactors.
New lattice simulations compute the spin and density correlations in neutron matter that affect neutrino heating during core-collapse supernovae.
Researchers open a new avenue for future brain-inspired computer hardware.
Robotic stacking of 2D layers provides the atomically clean interfaces critical for high performance assembled materials.