NP Highlights

New experiments demonstrate the correlation of natural radiation, unpaired electrons, and decoherence in superconducting qubit devices.

Newly implemented techniques expand scientific understanding of isotopes whose nuclei have the “magic numbers” of protons and neutrons.

Nuclear theorists explore the properties of dense neutron matter to get at the core of neutron stars.

A fast, new approach to complex theoretical analysis of the bulk properties of atomic nuclei brings analysis to personal computers.

Scientists find the radioactive nucleus selenium-72 is football-shaped, answering a longstanding question about the nuclear shape of selenium isotopes

Team combines many innovative accelerator accomplishments to keep gold ions cold and advance nuclear physics research.

Diagnostic test will improve performance of collider as physicists explore sources of proton spin.

The SNO+ Experiment, over a mile underground, places new limits on grand unified theories and studies neutrinos from the Sun.

New computer simulations reveal the explosive scene after ultra-dense stars collide, as well as where heavy elements may have originally formed.

A new device may provide up to six times better contrast of tumors in the breast, while halving the radiation dose to patients.

Expanding our understanding of the structure and decay properties of some of the most exotic elements.

Built with detector technologies used in nuclear physics experiments, the system monitors radiation treatments in hard-to-reach areas.

The recently observed “fingerprints” of neutron-rich magnesium-40 suggest an unexpected change in nuclear structure.

Following in the footsteps of supernovas, a new approach offers a more natural way to make new extremely heavy elements.

Pairs of sub-atomic particles may catalyze reactions that happened moments after the Big Bang.

Researchers use advanced nuclear models to explain 50-year mystery surrounding the process stars use to transform elements.

Low-momentum (wimpy) quarks and gluons contribute to proton spin, offering insights into protons’ behavior in all visible matter.

Production of actinium-227 ramps up for use in a drug to fight prostate cancer that has spread to bone.

The radii of three proton-rich calcium isotopes are smaller than previously predicted because models didn’t account for two nuclear interactions.

Scientists use software to "develop" images that trace neutrinos' interactions in a bath of cold liquid argon.

The spin direction of protons was reversed, for the first time, using a nine-magnet device, potentially helping tease out details about protons.

Since the 1980s, scientists have known that quark and antiquark spins within a proton account for, at best, a quarter of the overall proton spin.

A precision measurement of the proton’s weak charge narrows the search for new physics.

A re-analysis of data suggests that proton-neutron pairs in a nucleus may explain why their quarks have lower average momenta than predicted.

Inside every proton in every atom in the universe is a pressure cooker environment that surpasses the atom-crushing heart of a neutron star. That