The Impact of QCD and Light-Cone Quantum Mechanics on Nuclear Physics
arXiv:hep-ph/9412221 · doi:10.1016/0146-6410(95)00006-5
Abstract
We discuss a number of novel applications of Quantum Chromodynamics to nuclear structure and dynamics, such as the reduced amplitude formalism for exclusive nuclear amplitudes. We particularly emphasize the importance of light-cone Hamiltonian and Fock State methods as a tool for describing the wavefunctions of composite relativistic many-body systems and their interactions. We also show that the use of covariant kinematics leads to nontrivial corrections to the standard formulae for the axial, magnetic, and quadrupole moments of nucleons and nuclei.
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- Transition form factors and helicity amplitudes for electroexcitation of negative- and positive parity nucleon resonances in a light-front quark model
- Transition from a relativistic constituent-quark model to the quantum-chromodynamical asymptotics: a quantitative description of the pion electromagnetic form factor at intermediate values of the momentum transfer
- Study of the in-medium nucleon electromagnetic form factors using a light-front nucleon wave function combined with the quark-meson coupling model
- Probing short-range nucleon-nucleon interactions with an Electron-Ion Collider
- Relativistic Quark Spin Coupling Effects in the Correlations Between Nucleon Electroweak Properties
- Neutron Charge Radius: Relativistic Effects and the Foldy Term
- Linking infrared and ultraviolet parameters of pion-like states in strongly coupled gauge theories