Resolving a Mathematical Puzzle in Quarks and Gluons in Nuclear Matter
Researchers have resolved a longstanding puzzle in theoretical calculations for heavy ion and electron-ion collision experiments.
Researchers have resolved a longstanding puzzle in theoretical calculations for heavy ion and electron-ion collision experiments.
Data on protons emitted from wide range of gold-gold collision energies shows absence of a quark-gluon plasma (QGP) at the lowest energy.
Research advances the chemistry and improves the purity of isotopes for targeted alpha therapy used in the treatment of cancers.
Scientists can tune the strength of astatine-211 bonds with chemicals called ketones, laying the groundwork for a new class of radiopharmaceuticals.
A newly proposed approach aids chemical studies of rare, toxic, radioactive, and precious isotopes by requiring 1,000 times less material.
National laboratory researchers partner with a private company to achieve 100-million-degree temperatures inside a high magnetic field spherical tokamak.
Theorists find new electromagnetic effects that shift the spin-dependent coupling of the nucleon to the weak force and point out the implications for new physics in beta decay.
Scientists test nuclear theory models in mid-sized nuclei using high resolution Indium-115 decay data.
New calculations provide insights into the dynamics of the chiral magnetic effect in heavy ion collisions.
Modeling nuclear matter in two dimensions greatly simplifies understanding interactions among “cold,” dense quarks—including in neutron stars.
The SNO+ experiment has for the first time shown that neutrinos from a nuclear reactor over 240 km away can be detected with plain water.
Researchers find that different conformers of a type of atmospheric molecular intermediates react differently with the pollutant dimethyl amine.