
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 novel gene, BOOSTER, enhances plants’ photosynthesis efficiency and productivity.
Theorists identify new effects needed to compute the nuclear beta decay rate with a precision of a few parts in ten thousand.
A revolutionary Coherent Correlation Imaging method visualizes electronic ordering in magnetic materials and opens a path to new data storage technologies.
Theoretical calculations suggest charm tetraquarks may be less compact than previously thought.
Researchers developed and executed algorithms for preparing the quantum vacuum and hadrons on more than 100 qubits of IBM quantum computers.
Particles of light from collisions of deuterons with gold ions provide direct evidence that energetic jets get stuck.
Scientists discover that bond covalency is an important property of excited states in molecules containing metal-sulfur bonds.
Heavy ligands, like polyoxometalates, open a new frontier in the chemistry of actinide elements.
First precise measurement of a hard to detect bound charm quark pair state indicates it is not affected by the medium in high-energy proton-lead collisions.
Researchers use a co-design approach to quantify performance tradeoffs in multinode superconducting quantum computers.
Analysis of bacterial toxin-antitoxin systems sheds new light on how microbes interact with other members of their communities.