Exact-finite-range distorted-wave Born-approximation and coupled-channel Born-approximation reaction calculations

Journal Article · Sat Sep 01 04:00:00 EDT 1979 · Phys. Rev., C; (United States)

DOI:https://doi.org/10.1103/PhysRevC.20.1037· OSTI ID:6093815

Maguire, C F

The traditional formulation of the exact-finite-range calculation is demonstrated to have a procedural flaw which impeded unnecessarily the computational time. A revised method is shown to be in principle significantly more efficient than currently existing approaches. When the exact calculation is applied to the /sup 28/Si(/sup 19/F, /sup 16/O)/sup 31/P reaction, the spin-orbit potential predictions are found to disagree with recently published no-recoil approximation analyses.

• Research Organization: Physics Department, Vanderbilt University, Nashville, Tennessee 37235
• OSTI ID: 6093815
• Journal Information: Phys. Rev., C; (United States), Journal Name: Phys. Rev., C; (United States) Vol. 20:3; ISSN PRVCA
• Country of Publication: United States
• Language: English

Related Subjects

651415* -- Nuclear Properties & Reactions
A=20-38
Theoretical-- Nuclear Reactions & Scattering-- (-1987)
73 NUCLEAR PHYSICS AND RADIATION PHYSICS
BORN APPROXIMATION
CALCULATION METHODS
CHARGED-PARTICLE REACTIONS
COUPLED CHANNEL THEORY
COUPLING
CROSS SECTIONS
DIRECT REACTIONS
DWBA
ENERGY RANGE
EVEN-EVEN NUCLEI
FINITE-RANGE INTERACTIONS
FLUORINE 19 REACTIONS
HEAVY ION REACTIONS
INTERACTIONS
INTERMEDIATE COUPLING
ISOTOPES
L-S COUPLING
LIGHT NUCLEI
MATRIX ELEMENTS
MEV RANGE
MEV RANGE 10-100
MULTI-NUCLEON TRANSFER REACTIONS
NUCLEAR REACTIONS
NUCLEI
ODD-EVEN NUCLEI
OXYGEN 16
OXYGEN ISOTOPES
PHOSPHORUS 31
PHOSPHORUS ISOTOPES
SILICON 28 TARGET
STABLE ISOTOPES
STRIPPING
TARGETS
THREE-NUCLEON TRANSFER REACTIONS
TRANSFER REACTIONS