Density Fluctuations in an Electrolyte from Generalized Debye-Hueckel Theory
arXiv:cond-mat/9601057 · doi:10.1103/PhysRevLett.76.2906
Abstract
Near-critical thermodynamics in the hard-sphere (1,1) electrolyte is well described, at a classical level, by Debye-Hueckel (DH) theory with (+,-) ion pairing and dipolar-pair-ionic-fluid coupling. But DH-based theories do not address density fluctuations. Here density correlations are obtained by functional differentiation of DH theory generalized to {\it non}-uniform densities of various species. The correlation length diverges universally at low density as (correcting GMSA theory). When one has as where the amplitudes compare informatively with experimental data.
arXiv comment5 pages, REVTeX, 1 ps figure included with epsf. Minor changes, references added. Accepted for publication in Phys. Rev. Lett
Cited by in corpus (25)
- Simulation studies of fluid critical behaviour
- Coulomb systems at low density
- Field theory fo charged fluids and colloids
- Screening length for finite-size ions in concentrated electrolytes
- Electrostatic Correlations and the Polyelectrolyte Self Energy
- Ginzburg Criterion for Coulombic Criticality
- Molecular Mean-Field Theory of Ionic Solutions: a Poisson-Nernst-Planck-Bikerman Model
- Charge Oscillations in Debye-Hueckel Theory
- Electrostatic Interaction between Long, Rigid Helical Macromolecules at All Interaxial Angles
- The liquid-vapor interface of an ionic fluid
- Critique of Primitive Model Electrolyte Theories
- The one-component plasma: a conceptual approach
- Interaction of intense vuv radiation with large xenon clusters
- Universality of Ionic Criticality: Size- and Charge-Asymmetric Electrolytes
- Ionic criticality : an exactly soluble model
- Field theoretical representation of the Hohenberg-Kohn free energy for fluids
- Self-Consistent Description of Vapor-Liquid Interface in Ionic Fluids
- Criticality in strongly correlated fluids
- Screening in Ionic Systems: Simulations for the Lebowitz Length
- Thermal and structural properties of ionic fluids
- Electrostatic contribution to colloidal solvation in terms of the self-energy modified Boltzmann distribution
- Classical strongly coupled QGP: VI. Structure Factors
- Generalizing the Debye-Huckel equation in terms of density functional integral
- Evaluating the partition function for systems with long range interactions
- Analysis of Generalized Debye-Hückel Equation from Poisson-Fermi Theory