Inelastic transition densities
Inelastic scattering transition densities in single particle operator reduced matrix elements between initial and final nuclear states for nucleon angular momentum calculations
Braley, R. C.↗
Engineering topics
Ford, W. F.
Publications and source records attributed to Ford, W. F..
Deformed Brueckner-Hartree-Fock calculation for light nuclei
For the first time the Brueckner-Hartree-Fock (BHF) method was applied to nuclei whose intrinsic structure is nonspherical. One aim was to investigate whether the energy dependent reaction matrix calculated from a realistic nucleon-nucleon interaction leads to deformations similar to, or different from, those obtained from energy independent interactions in Hartree-Fock (HF) calculations. Reaction matrix elements were calculated as a function of starting energy for the Hamada-Johnston interaction, using a Pauli operator appropriate to O-16 and a shifted oscillator spectrum for virtual excited states. Binding energies, single-particle energies, radii, and shape deformations of the intrinsic state in unrenormalized as well as renormalized BHF are discussed and compared with previous HF studies. Results are presented for C-12, O-16, and Ne-20.
Braley, R. C.↗
Projected Hartree-Fock spectra with Wood- Saxon basis functions
Projected Hartree-Fock energy spectra using basis wave functions with harmonic oscillator and Wood-Saxon radial dependence
Braley, R. C.↗
An efficient method of energy projection
Nucleus energy spectra projection from Hartree- Fock intrinsic wave functions model space, using coupled orbital matrix elements
Braley, R. C.↗
A comparison of DWBA and coupled channels in the 2s-1d shell
DWBA optical model coupled channels comparison in 2s-1d shell for predicting proton scattering elastic cross sections
Ascuitto, R. J.↗
A systematic method of calculating reduced matrix elements of single-particle operators
Inelastic transition density method for calculating reduced matrix elements of single particle operators
Braley, R. C.↗
A microscopic test of inverted nucear coexistence
Microscopic structure analysis of inverted nuclear coexistence using Hartree-Fock method
Braley, R. C.↗
Microscopic coupled channel study of inelastic proton scattering from Ne 20
Projected Hartree-Fock wave function analysis of inelastic proton scattering from neon-20
Ascuitto, R. J.↗
Microscopic coupled-channel study of inelastic proton scattering from Ne 20
Coupled channel calculation of inelastic proton scattering from Ne 20 using Hartree-Fock wave functions
Ascuitto, R. J.↗
A microscopic test of inverted nuclear coexistence
Inverted coexistence possibility of spherical and deformed states in Si 28 and S 32 nuclei
Braley, R. C.↗
A comparison of DWBA and coupled channels in the 2s-1d shell
Comparing coupled channels and distorted wave Born approximation optical model parameters in 2s-1d shell to investigate inelastic nucleon scattering
Ascuitto, R. J.↗
Projected Hartree-Fock spectra with Wood- Saxon basis functions
Investigating short-range behavior of wave function by comparing projected Hartree-Fock spectra using basis functions having harmonic oscillator and Wood-Saxon radial dependence
Braley, R. C.↗
A separable potential with hard core effects
Separable potential with hard core effects, treating short range repulsion in nucleon-nucleon interaction, generating T matrix for existing data
Ford, W. F.↗
Electron scattering from light deformed nuclei
High energy electrons elastic scattering from 2s-1d shell nuclei based on Dirac equation solution in Glauber approximation
Braley, R. C.↗
A systematic method for calculating reduced matrix elements
Matrix elements systematic calculation method in terms of inelastic transition densities to evaluate nuclear properties
Braley, R. C.↗
Basis spaces in Hartree-Fock calculations
Basis functions with harmonic oscillator radial dependence in Hartree-Fock calculations for light deformed nuclei
Bar-Touv, J.↗
Inelastic scattering calculations with projected Hartree-Fock wave functions.
Inelastic proton scattering cross sections for target nuclei in 2s-1d shell calculated in distorted wave Born approximation with projected Hartree-Fock wave functions
Braley, R. C.↗