Relativistic impulse approximation in an additive potential model
Creators
- 1. Department of Physics and Astronomy, Rutgers University, Piscataway, New Jersey 08854
Description
Based on some arguments from relativistic field theory, the individual nucleons in a nucleus at rest are assumed to act as static sources for potentials which then enter the Dirac equation describing a projectile proton additively. The two-component version of the eikonal approximation is then used to estimate the scattering amplitude both for the full model and using the relativistic impulse approximation. In both cases the lowest order corrections to simple Glauber theory are quadratic in the nuclear densities, but dependence on the nucleon-nucleon interaction differs: In the complete model the corrections depend on the range of the nucleon-nucleon interaction even in the short range approximation, while in the relativistic impulse approximation they do not. Some numerical results are presented for the elastic scattering of 800 MeV protons on /sup 208/Pb
Additional details
Publishing Information
- Journal Title
- Phys. Rev., C
- Journal Volume
- 36
- Journal Issue
- 1
- Series
- Phys. Rev., C.
- Journal Page Range
- 264-271
- ISSN
- 0556-2813
- CODEN
- PRVCA
INIS
- Country of Publication
- United States
- Country of Input or Organization
- United States
- INIS RN
- 18078452
- Subject category
- S73: NUCLEAR PHYSICS AND RADIATION PHYSICS; S73: NUCLEAR PHYSICS AND RADIATION PHYSICS;
- Descriptors DEI
- DIRAC EQUATION; EIKONAL APPROXIMATION; ELASTIC SCATTERING; FIELD THEORIES; GLAUBER THEORY; IMPULSE APPROXIMATION; LEAD 208 TARGET; MEV RANGE 100-1000; NUCLEAR POTENTIAL; NUCLEON-NUCLEON INTERACTIONS; PROTON REACTIONS; RELATIVITY THEORY; SCATTERING AMPLITUDES
- Descriptors DEC
- AMPLITUDES; BARYON REACTIONS; BARYON-BARYON INTERACTIONS; DIFFERENTIAL EQUATIONS; ENERGY RANGE; EQUATIONS; FIELD EQUATIONS; HADRON REACTIONS; HADRON-HADRON INTERACTIONS; INTERACTIONS; MEV RANGE; NUCLEAR REACTIONS; NUCLEON REACTIONS; PARTIAL DIFFERENTIAL EQUATIONS; PARTICLE INTERACTIONS; POTENTIALS; SCATTERING; TARGETS; WAVE EQUATIONS