Latest Articles for Nuclear Physics

Investigating charmonium production sheds light on the early universe and quark-gluon plasma.

Investigating the structure of nuclei through dijet photoproduction in unique collisions.

This study clarifies findings on chiral-odd GPDs using the bag model.

Explore the fascinating properties of neutron stars and their significance in astrophysics.

Recent insights reveal the complex structure of nucleons with a core and mesonic cloud.

New studies enhance knowledge of quark-gluon plasma and QCD phase transitions.

This study examines how deuteron structure affects bremsstrahlung photon emission.

A look into double beta decay and its significance in nuclear physics.

Research on ordinary muon capture advances understanding of nuclear decay processes.

This article examines bremsstrahlung during proton-nucleus scattering and its implications.

Examining stability, causality, and fluid behavior in extreme conditions.

Research sheds light on hyperon polarization during high-energy collisions.

Examining electric and magnetic dipole strengths in nickel enhances understanding of nuclear structure.

Exploring heavy-ion collisions reveals the complex behavior of gluons in nuclear matter.

A new method streamlines modeling complex chemical reactions in Type Ia supernovae.

Discover how quarks interact and the significance of symmetry breaking in particle physics.

Exploring the behavior of protons through scattering and its significance in nuclear physics.

Research sheds light on magnesium decay and particle emissions.

A look at how DIS helps reveal valence quark distributions in protons and neutrons.

Investigating the influence of light clusters on nuclear matter behavior.

An overview of wobbling motion in triaxial nuclei and its significance.

This article examines charge changing processes in isotopes and their implications.

Exploring the complex behavior of fermionic gases and traditional method limitations.

Examining the explosive dynamics of supernovae through advanced 3D simulations.

This study examines electric currents in QCD influenced by magnetic fields.

This study focuses on convection's role in Type I X-ray bursts from neutron stars.

A look into the properties and transitions of quark matter in extreme conditions.

This article explores the complexities of solar modeling and recent advances in understanding solar composition.

Research aims to identify a critical point in the QCD phase diagram through heavy-ion collisions.

Researchers study Indium-115 decay to learn about weak interactions and neutrinos.

Researchers refine models to improve understanding of dimuon production from neutrino-nucleus collisions.

Recent research reveals new transitions in the actinium nucleus and their energy structure.

Research enhances understanding of nickel isotopes' nuclear properties through advanced techniques.

This article explores the formation of Borromean states in three-particle systems.

Research reveals crucial insights into gamma ray production from neutron-oxygen interactions.

This study examines the transitions in atomic nuclei, focusing on isoscalar and isovector contributions.

A new method improves nuclear structure predictions by accounting for three-body interactions.

Analyzing high-energy ion collisions to explore the fundamental nature of particles.

This article examines nucleon interactions during weak processes involving neutrinos.

Exploring the Skyrme model's implications for understanding nuclear matter and neutron stars.