Application of Differential Thermal Analysis in Cement Chemistry

Preface ix - Acknowledgments xiii - Abbreviations xv - I. Differential Thermal Analysis Technique - II. Theory and Typical Applications 28 - II.l Theoretical Considerations 28 - II.2 Typical Applications 34 - III. Formation of Portland Cement Clinker and Polymorphism of C3S and C2S 54 - III.1 Formation of Portland Cement Clinker 54 - 111.2 Polymorphism of C3S 71 - III.3 Polymorphism of C2S 75 - IV. Hydration of Portland Cement 81 - IV.l Systems Containing CaO, AI20 a, Si02, and H20 at Ordinary Temperatures 81 - IV.2 Hydration of Portland Cement 88 V. Hydration of Individual Phases in Portland Cement 111 - V.l Hydration of C3A 111 - V.2 Hydration of C3S and B-C2S 127 - V.3 Hydration of the Ferrite Phase 135 - VI. Hydration of C3A in Presence of Salts 139 - VI.1 Hydration of C3A in Presence of Gypsum 139 - VI.2 Hydration of C3A in Presence of Lignosulfonate 155 - VI. 3 Hydration of C3A in Presence of Calcium Chloride 159 - VI.4 Hydration of C3A in Presence of Calcium Carbonate 160 - VII. Autoclaved Cementitious Products 165 - VIII. Non-Portland Cements Based on Silicates and Aluminates 196 - VIII.1 Slags and Slag Cements 196 - VIII.2 High Alumina Cement 206 - VIII.3Pozzolanas and Pozzolanic Cements 213 - VIII.4 Oil Well Cement 222 - VIII.5 Hydraulic Lime 223 - VIlI.6 Expanding Cement 227 - VIII.7 Acid-Proof Cement 230 - IX. Other Non-Portland Cements 231 - IX.l Magnesium Oxychloride and Oxysulfate Cement 231 - IX.2 Gypsum Plaster 251 - IX.3 Sand-Lime Mortar 271 - IX.4 Phosphate Cement 275 - X. Aggregates 276 - Subject Index 297 - Author Index 303 -