Ionic Interactions

List of Contributors Preface Contents of Volume II Chapter 1. Equilibrium Properties of Ionized Dilute Electrolytes I. Preliminaries II. Debye-Hückel Theory of Ionic Solutions III. Foundations of Modern Statistical Theories IV. Bogoliubov Theory of Molecular Distribution Functions V. Theory of Ionic Systems Including Long-Range and Short-Range Interactions VI. Thermodynamic Functions for the Model of Rigid Charged Spheres VII. Statistical Thermodynamics of Symmetrical Electrolytes with Large Bjerrum Parameters VIII. Conclusions References Chapter 2. Mass Transport Properties of Ionized Dilute Electrolytes I. Introduction II. Debye's Theory of the Conductivity of Strong Electrolytes III. Statistical Equations for Pair Distribution Functions and for Mean Velocities IV. Statistical Theory of Electrolytic Conductance for the Model of Rigid Charged Spheres V. Discussion of the Conductance Formula VI. Conclusion References Chapter 3. Statistical Thermodynamics of Ionic Association and Complexation in Dilute Solutions of Electrolytes Symbols 118 I. Introduction II. Statistical Theories of Ionic Association III. Thermodynamic Theories of Ionic Association IV. Thermodynamics of Ionic Association and Complexation V. Crystal-Field Contributions to Ionic Complexation VI. Experimental Methods to Calculate Association Constants ReferencesChapter 4. Statistical Thermodynamics of Molten Salts and Concentrated Aqueous Electrolytes I. Introduction II. Aqueous Electrolytes III. Molten Salts IV. Concentrated Electrolytes as Molten Salts V. Summary ReferencesChapter 5. Mass Transport in Fused Salts Symbols I. Preface II. Introduction III. Pure Fused Salts: Transport Parameters and Experimental Data IV. Transport Theories for Fused Salts V. Relaxation Phenomena in Fused Salts VI. Composition Dependence of Transport Properties in Fused Salt Mixtures References Author Index Subject Index