Self-consistent scattering theory of the pair distribution function in charged Bose fluids
arXiv:cond-mat/0210664 · doi:10.1103/PhysRevB.67.172503
Abstract
We use a density functional theoretical approach to calculate the pair distribution function and the effective interactions in homogeneous fluids of spinless charged bosons. The scheme involves the self-consistent solution of a two-particle scattering problem with an effective scattering potential which embodies many-body effects and is adjusted to the compressibility sum rule. Numerical results are presented over an extensive range of density in both three and two dimensions.
7 pages, 4 figures
References in corpus (4)
- Short-range correlation in the uniform electron gas: Extended Overhauser model
- Self-consistent Overhauser model for the pair distribution function of an electron gas in dimensionalities D=3 and D=2
- Rigorous Density Functional Theory for Inhomogeneous Bose-Condensed Fluids
- Spin-density functional approach to thermodynamic and structural consistence in the charge and spin response of an electron gas
Cited by in corpus (4)
- Monte Carlo simulations of two-dimensional charged bosons
- Analytic theory of ground-state properties of a three-dimensional electron gas at varying spin polarization
- Ground-state and dynamical properties of two-dimensional dipolar Fermi liquids
- Theory of correlations in strongly interacting fluids of two-dimensional dipolar bosons