Granite Genesis: In-Situ Melting and Crustal Evolution

From the reviews: "Granite Genesis: In-Situ Melting and Crustal Evolution is a timely, well-structured, and enjoyable read. The authors provide a useful introduction to granite terminology and the 'granite debate' ... The book benefits in continuity and style from having only two authors and is easy to read. ... this book provides a valuable synthesis and is a great reference for all graduate students and professionals interested in granitic rocks, from their petrogenesis to emplacement mechanisms." (Victoria Pease, Geological Magazine, Vol. 146 (3), 2009)

• Preface.- Acknowledgements.- 1 Introduction.- 1.1 Rock genesis and its relationship to geosystems.- 1.2 Granites, migmatites and granite problems.- 2 Crustal melting: experiments and conditions.- 2.1 Introduction.- 2.2 Mineral melting.- 2.3 Rock melting – experimental evidence.- 2.4 Structure and composition of the crust.- 2.5 Water in the crust.- 2.6 Crustal heat and partial melting.- 3. In-situ melting and intracrustal convection: granite magma layers.- 3.1 Introduction.- 3.2 Crustal melting I: Initial melting and partial melt layer.- 3.3 Crustal melting II: Convection and formation of magma layer.- 3.4 Compositional variation within magma layer.- 3.5 Magma layer, granite layer and granite bodies.- 3.6 MI fluctuation (remelting) and granite sequence.- 3.7 Conclusion.- 4. Geological evidence for in-situ melting origin of granite layers.- 4.1 Migmatite to granite.- 4.2 Contact metamorphism.- 4.3 Xenoliths and mafic enclaves.- 4.4 Granite layer and granite exposures.- 4.5 Fluctuation of MI and downward younging granite sequence.- 5. Differentiation of magma layer: geochemical considerations.- 5.1 Introduction.- 5.2 Compositional variation.- 5.3 Strontium isotopes.- 5.4 Oxygen isotopes.- 5.5 Rare earth elements.- 5.6 Summary.- 6. Mineralisation related to in-situ granite formation.- 6.1 Introduction.- 6.2 Source of ore-forming elements.- 6.3 Formation and evolution of ore-bearing fluid.- 6.4 Types of mineral deposits.- 6.5 Age relationships.- 6.6 Temperature distribution.- 6.7 Formation and distribution of hydrothermal mineral deposits.- 6.8 Mineralised depth horizons.- 6.9 Mineralisation during elevated crustal temperatures.- 6.10 Mineralisation during granite remelting.- 6.11 Patterns of element redistribution and element fields.- 6.12 Summary.- 7. Heat source for crustal magma layers: tectonic models.- 7.1 Introduction.- 7.2 Crustal temperature disturbance related to plate convergence.- 7.3 Subduction and granite formation: western Pacific continental margin.-7.4 Continental collision and granite formation: Tethys Belt.- 7.5 Concluding statement.- 8. Geological effects of crystallisation of a crustal granite magma layer: SE China.- 8.1 Fault-block basins.- 8.2. Volcanism.- 9. Material and element cycling of the continental crust and summary.- 9.1. Rock cycling of continental material.- 9.2. Element cycling of the continental crust.- 9.3. Overview.- References.- Appendix 1 map of SE China.- Appendix 2 Results of experimental rock melting.- Index