Nuclear Physics (NUP)

Section Information

Nuclear Physics focuses on the structure, properties, and interactions of atomic nuclei, as well as the fundamental forces and particles that govern nuclear matter. It explores nuclear reactions, radioactive processes, nucleosynthesis, and the behavior of matter under extreme conditions, contributing to advancements in energy, medicine, astrophysics, and fundamental physics.

Modern research in this field includes experimental and theoretical nuclear physics, nuclear structure and decay, nuclear astrophysics, particle–nucleus interactions, accelerator physics, nuclear instrumentation, and applications in fusion, fission, and radiation technologies. Advances in detectors, accelerators, computational modeling, and quantum theory continue to expand understanding of nuclear phenomena.

This section publishes experimental studies, theoretical models, computational simulations, reviews, and applied research addressing nuclear forces, reaction mechanisms, nuclear matter behavior, radiation interactions, and technological developments in nuclear science.

Scope

Nuclear Structure and Properties
- Shell models, collective models, and nuclear deformation
- Nuclear spin, parity, energy levels, and transition rates
- Exotic nuclei, halo nuclei, and isotopic stability
- Nuclear matter equations of state
Nuclear Reactions and Dynamics
- Scattering, fusion, fission, and fragmentation processes
- Reaction mechanisms and cross-section measurements
- Heavy-ion collisions and high-energy nuclear reactions
- Reaction modeling and simulation frameworks
Radioactivity and Nuclear Decay
- Alpha, beta, and gamma decay mechanisms
- Half-life measurements and decay chains
- Isotope production, radiotracers, and nuclear transformations
- Applications in medicine, industry, and environmental monitoring
Nuclear Astrophysics
- Nucleosynthesis processes including r-, s-, and p-processes
- Stellar burning, supernovae, and neutron star physics
- Cosmic ray interactions and primordial nucleosynthesis
- Astrophysical reaction rates and modeling
Fundamental Interactions and Particle–Nucleus Physics
- Weak, strong, and electromagnetic interactions in nuclei
- Neutrino interactions and neutrino–nucleus scattering
- Muon, proton, and neutron interactions with matter
- Tests of fundamental symmetries and beyond-standard-model physics
Nuclear Fusion, Fission, and Energy Applications
- Fusion reactions, confinement methods, and reactor concepts
- Fission physics, reactor design, and neutron transport
- Nuclear fuel cycles, waste management, and radiation shielding
- Safety, sustainability, and advanced nuclear technologies
Radiation Detection and Nuclear Instrumentation
- Detector design, spectroscopy, and measurement techniques
- Accelerator technologies and beam instrumentation
- Imaging systems and nuclear diagnostic tools
- Simulation tools for radiation transport and detector response
Computational and Theoretical Nuclear Physics
- Quantum many-body theory and nuclear modeling
- Lattice computations, mean-field models, and effective interactions
- Machine learning and AI-driven nuclear simulations
- Large-scale computational frameworks for nuclear systems