Latest Articles for Nuclear Physics

New formulas improve predictions of alpha decay in heavy atomic nuclei.

This article examines how neutron star collisions affect gamma-ray bursts and element formation.

This study examines how nucleons interact and cluster in Neon.

A look at how particle collisions reveal fundamental properties of matter.

This article explores how hot spot arrangements affect nuclear collision outcomes.

This article explores the charge radius differences in various silver isotopes.

Research reveals how electron scattering helps understand nuclear shape and deformation.

This article discusses the significance of two-nucleon emission in neutrino interactions.

A look into unique particle combinations in physics.

Learn about neutron stars, their formation, and unique properties.

Exploring block encoding in quantum computing for nuclear physics applications.

Research delves into resonances formed by heavy quarks and their interactions.

Research reveals spin behavior of quarks in quark-gluon plasma during heavy-ion collisions.

This article discusses how angular momentum forms and its significance in fission reactions.

This article presents a new method for studying few-body quantum systems using Monte Carlo techniques.

An overview of neutron-proton scattering and its significance in nuclear studies.

Research reveals new excited states of nitrogen, enhancing the understanding of nuclear structure.

Study of beta decay reveals important nuclear properties of Barium and Lanthanum isotopes.

New optical model potential enhances proton-nucleus interaction studies.

Researching T-odd gluon TMDs reveals deeper aspects of nucleon behavior.

This study investigates how mesons behave in dense nuclear environments.

Study reveals unique behavior of Ds(2317)+ and Ds(2317)− in dense environments.

A fresh approach enhances our knowledge of neutron star properties and equations of state.

Explore the behavior of atomic nuclei and their interactions through excited states and resonance.

New models improve predictions of rare radioactive decay processes.

Investigating how neutron stars cool reveals secrets about their structure and composition.

A study on the interactions of light and nucleons for deeper insights into matter.

Research reveals key details about matter under extreme conditions in neutron stars.

Research sheds light on quark-gluon plasma and thermoelectric effects in extreme conditions.

New methods enhance understanding of fluid dynamics in extreme nuclear conditions.

Researchers study fluctuations in particle production during nuclear collisions to understand fundamental forces.

Research explores dijet production and non-eikonal corrections in high-energy particle collisions.

A look at the possibilities of low energy nuclear fusion for clean energy.

Research reveals how light nuclei form in extreme nuclear environments during heavy-ion collisions.

Investigating meson production through high-energy electron collisions with nucleons.

A look into how magnetic fields influence particle behavior in heavy-ion collisions.

Research on baryonic vortices sheds light on matter under extreme conditions.

Vortex states offer fresh insights into particle interactions and proton behavior.

Examining how gamma rays influence energy in cosmic explosions.

Study reveals key interactions in nuclear photoproduction and their implications for nuclear physics.