Table of Contents
Part I: Introduction
Foreword by Jerry L. Schnoor
1. Overview
2. Thermodynamic Principles
Part II: Acid/Base Chemistry
3. The Proton (H+) in Aquatic Chemistry
4. The Electroneutrality Equation, Mass Balance Equations, and the Proton Balance Equation
5. Quantitative Acid/Base Calculations for Any Solution of Acids and Bases
6. Dependence of α Values on pH, and the Role of Net Strong Base
7. Titrations of Acids and Bases
8. Buffer Intensity β
9. Chemistry of Dissolved CO2
Part III: Metal/Ligand Chemistry
10. Complexation of Metal Ions by Ligands
Part IV: Mineral Solubility
11. Simple Salts and Metal Oxides/Hydroxides/Oxyhydroxides
12. Solubility Behavior of Calcium Carbonate and Other Divalent Metal Carbonates in Closed and Open Systems
13. Metal Phosphates
14. Which Solid Is Solubility Limiting? Examples with Fe(II) for FeCO3(s) vs. Fe(OH)2(s) Using Log pCO2 vs. pH Predominance Diagrams
15. The Kelvin Effect: The Effect of Particle Size on Dissolution and Evaporation Equilibria
16. Solid/Solid and Liquid/Liquid Solution Mixtures
Part V: Redox Chemistry
17. Redox Reactions, EH, and pe
18. Introduction to pe–pH Diagrams: The Cases of Aqueous Chlorine, Hydrogen, and Oxygen
19. pe–pH Diagrams for Lead (Pb) with Negligible Dissolved CO2
20. pe–pH Diagrams for Lead (Pb) in the Presence of CO2 with Fixed CT, and Fixed CT and Phosphate
21. pe and Natural Systems
22. Redox Succession (Titration) in a Stratified Lake during a Period of Summer Stagnation
Part VI: Effects of Electrical Charges on Solution Chemistry
23. The Debye–Huckel Equation and Its Descendent Expressions for Activity Coefficients of Aqueous Ions
24. Electrical Double Layers in Aqueous Systems
25. Colloid Stability and Particle Double Layers