Note: Intro -- Half-title -- Title -- Copyright -- Dedication -- Contents -- Preface -- Notes and references -- Acknowledgments -- Abbreviations -- Prologue -- Notes and references -- 1 The planets: their formation and differentiation -- 1.1 Planetary formation -- 1.2 The solar nebula and the giant planets -- 1.2.1 The depletion of the volatile elements in the inner nebula -- 1.3 Planetesimals and the accretion of the terrestrial planets -- 1.4 The random nature of terrestrial planet formation -- 1.4.1 Meteorites and planetary composition -- 1.4.2 Uncompressed density and bulk planetary compositions -- 1.5 Types of crusts -- 1.6 Geochemical processes during crust formation -- 1.6.1 Europium as a universal tracer -- Synopsis -- Notes and references -- 2 A primary crust: the highland crust of the Moon -- 2.1 The composition of the Moon -- 2.2 The lunar surface -- 2.3 Structure of the crust -- 2.3.1 Tectonics -- 2.3.2 Lunar stratigraphy -- 2.4 Craters and multiring basins -- 2.4.1 A lunar cataclysm? -- 2.5 Composition of the lunar highland crust -- 2.5.1 Anorthosites -- 2.5.2 KREEP -- 2.5.3 The Mg-suite -- 2.5.4 Lunar highland terranes -- 2.5.5 The Cayley Plains: a cautionary tale -- 2.5.6 Tektites and the Moon -- Synopsis -- Notes and references -- 3 A secondary crust: the lunar maria -- 3.1 The maria -- 3.1.1 Mare basalt ages -- 3.2 Composition of the mare basalts -- 3.2.1 The interior of the Moon -- 3.3 Origin of the mare basalts -- 3.3.1 An impact origin? -- 3.4 The magma ocean -- 3.4.1 The depletion in europium -- 3.4.2 Depth of melting -- 3.5 Large-impact model for lunar origin -- Synopsis -- Notes and references -- 4 Mercury -- 4.1 The planet -- 4.1.1 The composition and internal structure of Mercury -- 4.2 Origin of Mercury -- 4.3 Surface structure -- 4.3.1 The heavily cratered terrain -- 4.3.2 The intercrater plains. , 4.3.3 The Caloris Basin: a mercurian cataclysm? -- 4.3.4 The smooth plains -- 4.4 The origin of the plains: a Cayley Plains analog? -- 4.4.1 Lobate scarps -- 4.5 The crust of Mercury -- 4.5.1 Primary and secondary crusts on Mercury? -- 4.5.2 Atmosphere -- Synopsis -- Notes and references -- 5 Mars: early differentiation and planetary composition -- 5.1 The origin of Mars -- 5.1.1 A volatile-rich and oxidized planet -- 5.2 The interior of Mars -- 5.2.1 Core -- 5.2.2 Mantle -- 5.2.3 Crust -- 5.3 Martian stratigraphy -- 5.4 Cratering record and the age of the martian surface -- 5.4.1 Crustal dichotomy -- 5.4.2 Quasi-circular depressions -- 5.4.3 Tharsis and Valles Marineris -- 5.5 Early plate tectonics? -- 5.5.1 Crustal magnetization and plate tectonics -- 5.6 Samples from Mars -- 5.6.1 Martian meteorites -- 5.6.2 Shergottite crystallization ages -- 5.7 Early differentiation on Mars and magma oceans -- 5.8 Multiple reservoirs and the age of the earliest crust -- 5.9 The composition of Mars -- 5.9.1 A cautionary note -- Synopsis -- Notes and references -- 6 Mars: crustal composition and evolution -- 6.1 Sampling martian crust -- 6.2 Crustal dimensions -- 6.2.1 Hypsometry -- 6.3 Igneous diversity in a basaltic crust -- 6.3.1 SNC meteorites and crustal contamination -- 6.3.2 Hemispheric dichotomy, Surface Types 1 and 2 and martian andesites -- 6.3.3 Gusev plains and Meridiani Planum -- 6.3.4 Alkaline volcanism and the Columbia Hills -- 6.4 The sedimentary rock cycle on Mars -- 6.4.1 Water, wind and ice -- 6.4.2 Surficial processes -- 6.4.3 Soils and dust -- 6.4.4 Sedimentary rocks on Mars -- 6.4.5 Meteoritic components -- 6.5 Bulk composition of the crust -- 6.5.1 Compositional evolution of the martian surface -- 6.6 Heat flow and crustal heat production -- 6.6.1 Compositional variation with depth -- 6.7 Crustal evolution on Mars. , 6.7.1 Tertiary crusts on Mars? -- Synopsis -- Notes and references -- 7 Venus: a twin planet to Earth? -- 7.1 The enigma of Venus -- 7.2 Surface features of Venus -- 7.2.1 Plains -- 7.2.2 Channels -- 7.2.3 Volcanoes -- 7.2.4 Coronae -- 7.2.5 Tesserae -- 7.2.6 Ishtar Terra and Aphrodite Terra -- 7.3 Impact craters and the age of the surface -- 7.4 Heat production and rates of volcanism -- 7.4.1 A one-plate planet -- 7.5 Crustal composition -- 7.5.1 Pancake domes: rhyolites on Venus? -- 7.5.2 The differentiation of Venus -- 7.6 The geological history of Venus -- 7.6.1 Water on Venus -- Synopsis -- Notes and references -- 8 The oceanic crust of the Earth -- 8.1 The sea floor and plate tectonics -- 8.2 Structure of the oceanic crust -- 8.3 Mid-ocean ridges -- 8.3.1 Formation processes at mid-ocean ridges -- 8.4 Mid-ocean ridge basalts (MORB) -- 8.4.1 Interaction with seawater -- 8.5 Oceanic island basalts (OIB) -- 8.6 Composition of the oceanic crust -- 8.7 Mantle structure -- 8.7.1 Mantle plumes -- 8.8 Composition of the Earth -- 8.8.1 Core -- 8.8.2 Mantle -- Synopsis -- Notes and references -- 9 The Hadean crust of the Earth -- 9.1 The Hadean crust and mantle -- 9.2 A terrestrial magma ocean -- 9.3 The early crust -- 9.3.1 The bombardment record -- 9.4 The early continental crustal myth -- 9.5 Isotopic constraints:… -- 9.5.1 Mantle keels in the Hadean? -- 9.6 A model for the Hadean -- Synopsis -- Notes and references -- 10 The Archean crust of the Earth -- 10.1 The Archean -- 10.1.1 The earliest Archean rocks -- 10.1.2 Akilia island, southwest Greenland -- 10.2 The Archean upper crust -- 10.2.1 Archean high-grade terrains -- 10.3 The Archean bulk crust -- 10.3.1 The Archean oceanic crust -- 10.3.2 Heat flow in the Archean -- 10.4 The formation of the TTG suite -- 10.4.1 Adakites and the TTG suite -- 10.4.2 The evidence from sanukitoids. , 10.5 Plate tectonics in the Archean? -- 10.5.1 The subcrustal lithosphere and mantle keels -- 10.6 Meteorite impacts in the Archean -- Synopsis -- Notes and references -- 11 The Post-Archean continental crust -- 11.1 The Archean Proterozoic transition -- 11.2 Changes in crustal composition during the Archean Proterozoic transition -- 11.3 The Post-Archean upper crust -- 11.3.1 Paradoxes: niobium and lead -- 11.4 The lower crust (Post-Archean) -- 11.4.1 Anorthosites -- Synopsis -- Appendices -- Area, thickness and density of the present continental crust -- Age of the continental crust -- Sedimentary rocks as crustal samples -- Notes and references -- 12 Composition and evolution of the continental crust -- 12.1 Heat flow constraints -- 12.2 Composition of the bulk crust -- 12.3 The andesite model -- 12.3.1 Delamination and its problems -- 12.3.2 The formation of andesites -- 12.3.3 Granites and granites -- 12.4 Alternatives: basaltic compositions -- 12.5 Alternatives: felsic compositions -- 12.6 Crustal growth and its episodic nature -- 12.6.1 The freeboard constraint -- 12.6.2 Recycling -- 12.6.3 Continental break-up and assembly -- Synopsis -- Notes and references -- 13 Crusts on minor bodies -- 13.1 Minor bodies in the Solar System -- 13.2 Observational problems -- 13.2.1 Nanophase iron -- 13.2.2 Eros and Itokawa -- 13.3 Vesta, a differentiated asteroid -- 13.3.1 Evolution of Vesta -- 13.3.2 Eucrites and the Moon -- 13.4 The Galilean satellites -- 13.5 The extraordinary crust of Io -- 13.5.1 Volcanic activity -- 13.5.2 Mountains -- 13.5.3 Nature of the crust -- 13.6 The thick icy crust of Europa -- 13.7 Two crusts on Ganymede -- 13.8 Callisto, an ancient crust -- 13.9 Sand dunes on Titan -- 13.10 Nitrogen ice on Triton -- Synopsis -- Notes and references -- 14 Reflections: the elusive patterns of planetary crusts -- 14.1 Too many variables. , 14.1.1 Sampling -- 14.2 Earth-like planets elsewhere? -- 14.3 Planetary evolution and plate tectonics -- Notes and references -- Author index -- Subject index.

Note: Front Cover -- Parallel Computational Fluid Dynamics: Implementations and Results Using Parallel Computers -- Copyright Page -- Preface -- Acknowledgements -- Table of Contents -- Part 1: Invited Speakers -- Chapter 1. Multiblock Structured Algorithms in Parallel CFD -- Chapter 2. Using Hundreds of Workstations for Production Running of Parallel CFD Applications -- Chapter 3. Parallel Computation of Frontal Processes -- Chapter 4. Modelling the Global Ocean Circulation on the T3D -- Chapter 5. Concurrent Distributed Visualization and Solution Steering -- Chapter 6. From R& -- D in Parallel CFD to a Tool for Computer Aided Engineering -- Chapter 7. Parallel Computation of Unsteady Supersonic Cavity Flows -- Part 2: Reacting Flows -- Chapter 8. A Data-Parallel LU Relaxation Method for Reacting Viscous Flows -- Chapter 9. Parallel Simulation on Rayleigh-Bénard Convection in 2D by the Direct Simulation Monte Carlo Method -- Chapter 10. Distributed Implementation of KIVA-3 on the Intel Paragon -- Chapter 11. A Parallel Tool for the Study of 3D Turbulent Combustion Phenomena -- Chapter 12. Numerical Simulation of Reacting Mixing Layer with Combined Parallel Approach -- Chapter 13. On the Optical Properties of a Supersonic Mixing Layer -- Chapter 14. Computation of Chemically Reacting Flow on Parallel Systems -- Chapter 15. Development of a Parallel Spectral Element Method Code Using SPMD Constructs -- Chapter 16. Parallel Computation of Turbulent Reactive Flows in Utility Boilers -- Part 3: Euler Solvers -- Chapter 17. A Comparison of Different Levels of Approximation in Implicit Parallel Solution Algorithms for the Euler Equations on Unstructured Grids -- Chapter 18. Analysis of Efficiency of Implicit CFD Methods on MIMD Computers. , Chapter 19. Parallel Solutions of Three-Dimensional Compressible Flows Using a Mixed Finite Element/Finite Volume Method on Unstructured Grids -- Chapter 20. Implementation of a Fractional Step Algorithm for the Solution of Euler Equations on Scalable Computers -- Chapter 21. Parallelization of a Highly Unstructured Euler-Solver Based on Arbitrary Polygonal Control Volumes -- Chapter 22. Performance of a Euler Solver Using a Distributed System -- Chapter 23. Implementation and Results of a Time Accurate Finite-Volume Euler Code in the NWT Parallel Computer -- Part 4: Algorithms -- Chapter 24. Development and Implementation of Parallel High Resolution Schemes in 3D Flows over Bluff Bodies -- Chapter 25. High Order Padé-type Approximation Methods for incompressible 3D CFD Problems on Massively Parallel Computers -- Chapter 26. Parallel Computations of CFD Problems Using a New Fast Poisson Solver -- Chapter 27. A Parallel Free Surface Flow Solver -- Chapter 28. A New Domain Decomposition Method Using Virtual Sub-domains -- Part 5: Spectral Methods -- Chapter 29. A Commercial CFD Application on a Shared Memory Multiprocessor using MPI -- Chapter 30. Parallel Computation with the Spectral Element Method -- Chapter 31. A Parallel Implementation of a Spectral Multi-domain Solver for Incompressible Navier-Stokes Equations -- Chapter 32. A Parallel Spectral Element Method for Compressible Hydrodynamics -- Part 6: Large Scale Applications -- Chapter 33. Large Scale Simulations of Flows about a Space Plane Using NWT -- Chapter 34. Large Scale Navier-Stokes Aerodynamic Simulations of Complete Fighter Aircraft on the Intel Paragon MPP -- Part 7: Performance Issues -- Chapter 35. Benchmarking the FLOWer Code on Different Parallel and Vector Machines -- Chapter 36. The Effect of the Grid Aspect Ratio on the Convergence of Parallel CFD Algorithms. , Chapter 37. Master-Slave Performance of Unstructured Flow Solvers on the CRAY-T3D -- Part 8: Flow Visualization -- Chapter 38. Runtime Volume Visualization for Parallel CFD -- Chapter 39. Integration of Particle Paths and Streamlines in a Spatially-Decomposed Computation -- Chapter 40. Interactive Volume Rendering on Clusters of Shared-Memory Multiprocessors -- Part 9: Multigrid Methods -- Chapter 41. Application of Parallel Multigrid Methods to Unsteady Flow: A Performance Evaluation -- Chapter 42. Multigrid Aircraft Computations Using the OPlus Parallel Library -- Chapter 43. A Parallel Multigrid Method for the Prediction of Turbulent Flows with Reynolds Stress Closure -- Part 10: Applications -- Chapter 44. Cell-Vertex Multigrid Solvers in the PARAGRID Framework -- Chapter 45. Fluid Flow in an Axisymmetric, Sudden-Expansion Geometry -- Chapter 46. Implicit Navier-Stokes Codes in Parallel for Aerospace Applications -- Chapter 47. FIESTA-HD: A Parallel Finite Element Program for Hydrodynamic Device Simulation -- Chapter 48. Parallel Computation of a Tip Vortex Induced by a Large Aircraft: Wing -- Chapter 49. Shape Design Optimization in 2D Aerodynamics Using Genetic Algorithms on Parallel Computers -- Chapter 50. A Model for Performance of a Block-structured Navier-Stokes Solver on a Cluster of Workstations -- Chapter 51. Further Acceleration of an Unsteady Navier-Stokes Solver for Cascade Flows on the NWT -- Chapter 52. Load Balancing Strategy for Parallel Vortex Methods with Distributed Adaptive Data Structure -- Chapter 53. Portable Parallelization of the Navier-Stokes Code NSFLEX -- Chapter 54. Towards an Integrated CFD System in a Parallel Environment -- Chapter 55. Parallel Multi-block Computation of Incompressible Flows for Industrial Applications -- Part 11: Turbulence -- Chapter 56. Parallel Benchmarks of Turbulence in Complex Geometries. , Chapter 57. Parallel Computation of 3-D Small-Scale Turbulence Via Additive Turbulent Decomposition -- Chapter 58. A Message-Passing, Distributed Memory Parallel Algorithm for Direct Numerical Simulation of Turbulence with Particle Tracking -- Chapter 59. Simulation of Stratified Turbulent Channel Flows on the Intel Paragon Parallel Supercomputer -- Part 12: Adaptive Schemes -- Chapter 60. Parallel Implementation of an Adaptive Scheme for 3D Unstructured Grids on a Shared-Memory Multiprocessor -- Chapter 61. A Parallel Adaptive Navier-Stokes Method and Partitioner for Hybrid Prismatic/etrahedral Grids -- Chapter 62. Parallel Adaptive hp Finite Element Approximations for Stokesian Flows: Adaptive Strategies, Load Balancing and Domain Decomposition Solvers -- Chapter 63. Parallel Processing for Solution-Adaptive Computation of Fluid Flow -- Chapter 64. Distributed CFD on Cluster of Workstations Involving Parallel Unstructured Mesh Adaptation, Finite-Volume-Galerkin Approach and Finite-Elements -- Part 13: Climate Modeling -- Chapter 65. Semi-Lagrangian Shallow Water Modeling on the CM-5 -- Chapter 66. A Reduced Grid Model for Shallow Water Flows on the Sphere -- Chapter 67. Application of a Parallel Navier-Stokes Model to Ocean Circulation -- Chapter 68. A Portable and Efficient Parallel Code for Astrophysical Fluid Dynamics -- Part 14: Navier-Stokes Solvers -- Chapter 69. Towards Modular CFD Using the CERFACS Parallel Utilities -- Chapter 70. A Fully Implicit Parallel Solver for Viscous flows -- Numerical Tests on High Performance Machines -- Chapter 71. Space- and Time-Parallel Navier-Stokes Solver for 3D Block-Adaptive Cartesian Grids -- Chapter 72. A Newton-GMRES Method for the Parallel Navier-Stokes Equations -- Chapter 73. A Parallell, Globally-Implicit Navier-Stokes Solver for Design. , Chapter 74. Parallel Solution of Viscous Incompressible Flow on Multi- Block Structured Grids Using MPI -- Chapter 75. Comparing the Performance of Multigrid and Conjugate Gradient Algorithms on the CRAY T3D -- Chapter 76. Domain Decomposition/Fictitious Domain Methods with Nonmatching Grids for Navier-Stokes Equations Parallel Implementation on a KSR1 Machine -- Chapter 77. A Parallel Implicit Time Accurate Navier-Stokes Solver -- Chapter 78. Parallel Implementation of Newton's Method for 3-D Navier- Stokes Equations -- Part 15: Distributing Computing -- Chapter 79. Dynamic Load Balancing in a 2D Parallel Delaunay Mesh Generator -- Chapter 80. Parallel Visualisation of Unstructured Grids -- Chapter 81. A Dynamic Load Balancing Technique for Solving Transonic and Supersonic Flows on Networked Workstations -- Part 16: Mesh Partitioning -- Chapter 82. Scalable Parallel Generation of Partitioned, Unstructured Meshes -- Chapter 83. Evaluation of the JOSTLE Mesh Partitioning Code for Practical Multiphysics Applications -- Part 17: Internal Flows -- Chapter 84. Parallel Computation of Unsteady Supersonic-Inlet Flows -- Chapter 85. Parallel, Axisymmetric, Aerodynamic Simulation of a Jet Engine -- Chapter 86. An Investigation of Load Balancing Strategies for CFD Applications on Parallel Computers -- Part 18: Software Tools -- Chapter 87. CPULib - A Software Library for Parallel Applications on Arbitrary Meshes -- Chapter 88. Host-node Client-Server Software Architecture for Computational Fluid Dynamics on MPP Computers -- Chapter 89. Software Tools for Parallel CFD on Composite Grids.

Note: Front Cover -- Moon Rocks and Minerals -- Copyright Page -- Table of Contents -- Dedication -- PREFACE -- ACKNOWLEDGMENTS -- CHAPTER 1. INTRODUCTION -- CHAPTER 2. THE ROCKS AND SOILS -- THE CRYSTALLINE ROCKS (TYPE A AND B) -- BRECCIAS (TYPE C) -- FINES (TYPE D) -- ALSO CALLED SOILS -- ANORTHOSITES IN THE SOILS -- SHOCK (IMPACT) METAMORPHISM -- REGOLITH AND SOIL MECHANICS -- LUNAR GLASSES -- TEKTITES -- CHAPTER 3. THE MINERALS -- AUGITE-PIGEONITE (THE PYROXENES) -- PYROXFERROITE -- PLAGIOCLASE (AND POTASSIUM FELDSPAR) -- ILMENITE -- OLIVINE -- CHROMITE-ULVOSPINEL-SPINEL -- ARMALCOLITE -- TROILITE -- IRON -- RUTILE -- CRISTOBALITE, TRIDYMITE AND QUARTZ -- APATITE -- WHITLOCKITE -- COPPER (INCLUDING BRASS) -- TIN -- ZIRCON -- BADDELEYITE -- MICA -- AMPHIBOLE -- ARAGONITE -- PENTLANDITE -- IRON-NICKEL -- COHENITE -- SCHREIBERSITE -- UNIDENTIFIED MINERALS -- CHAPTER 4. CHEMISTRY OF SAMPLES BROUGHT BY APOLLO 11 AND 12 -- INTRODUCTION -- CHEMICAL ABUNDANCE DATA -- PRIMITIVE, PRIMORDIAL OR COSMIC ABUNDANCES -- MAJOR AND MINOR ELEMENTS -- CHEMICAL CLASSIFICATION OF ROCKS -- BRECCIAS (TYPE C) -- FINE MATERIAL (SOIL) (TYPE D) -- COMPARISON OF MAJOR ELEMENT ABUNDANCES WITH TERRESTRIAL ROCKS AND METEORITES -- TRACE ELEMENT ABUNDANCES -- GEOCHEMICAL CLASSIFICATION OF THE ELEMENTS -- ARRANGEMENT OF DATA -- THE LARGE CATIONS (SEE TABLE 4-4.) -- THE RARE EARTHS (RE) (SEE TABLE 4-5.) -- EUROPIUM DEPLETION -- YTTRIUM -- THE LARGE HIGHLY CHARGED CATIONS (SEE TABLE 4-6.) -- THE FERROMAGNESIAN ELEMENTS (SEE TABLE 4-7.) -- CHALCOPHILE ELEMENTS (SEE TABLE 4-9.) -- THE PLATINUM GROUP ELEMENTS (SEE TABLE 4-10.) -- OXYGEN -- CARBON -- HALOGENS -- COMPARISON OF CHEMICAL COMPOSITION OF APOLLO Ð (TRANQUILLITY BASE) AND APOLLO 12 (OCEAN OF STORMS) SAMPLES -- APOLLO 12 ROCKS AND FINE MATERIAL -- INTERNAL VARIATIONS IN THE APOLLO 12 ROCKS. , RELATION OF TERRESTRIAL ROCKS AND METEORITES TO APOLLO 12 ROCKS -- CHAPTER 5. BIOSCIENCE AND ORGANIC MATTER -- TOTAL CARBON -- ORGANIC CARBON -- CARBIDES -- METHANE -- OXIDES OF CARBON -- ALKANE HYDROCARBONS -- AROMATIC HYDROCARBONS -- AMINO ACIDS -- PORPHYRINS -- BIOLIPIDS IN GENERAL -- ORGANIC SULFUR COMPOUNDS -- CARBONACEOUS MATERIAL -- ISOTOPE ABUNDANCES FOR CARBON AND SULFUR -- ORGANISMS -- SUMMARY -- CHAPTER 6. PETROLOGY: Experimental Studies and Origin of the Lavas -- INTRODUCTION -- EFFECTS OF HIGH PRESSURE ON LUNAR BASALTS -- MELTING BEHAVIOR OF APOLLO 11 BASALTS -- MELTING BEHAVIOR AT HIGHER PRESSURES -- SILICATE LIQUID IMMISCIBILITY -- RESIDUUM -- MESOSTASIS -- PETROGENESIS - ORIGIN OF THE LAVAS -- SOURCE OF THE LAVAS -- PARTIAL MELTING -- IMPACT MELTING -- SUBSEQUENT HISTORY OF THE MELT -- CHAPTER 7. AGE OF THE LUNAR ROCKS, ISOTOPE STUDIES, COSMIC RAY and SOLAR WIND EFFECTS -- POTASSIUM(K)-ARGON(AR) DATING -- AR 40-AR39 AGES -- RUBIDIUM(Rb)-STRONTIUM(Sr) AGES -- Rb-Sr AGES OF FINE MATERIAL -- URANIUM(U)-THORIUM(Th)-LEAD(Pb) AGES -- LEAD ROCK AGES -- LEAD DATA FOR THE FINE MATERIAL -- FURTHER SIGNIFICANCE OF LEAD ISOTOPE DATA -- SIGNIFICANCE OF ROCK AGES FOR SOURCE OF MARIA BASIN MATERIAL -- ISOTOPIC ABUNDANCES -- ISOTOPIC HOMOGENEITY IN THE SOLAR NEBULA -- LIGHT ISOTOPE FRACTIONATION -- OXYGEN ISOTOPES -- CRYSTALLIZATION TEMPERATURE -- TEKTITES -- SULFUR ISOTOPES -- CARBON ISOTOPES -- HYDROGEN -- COSMIC-RAY BOMBARDMENT OF THE LUNAR SURFACE -- RADIOGENIC NUCLIDES (EXCEPT RARE GASES) -- NUCLEAR PARTICLE TRACK STUDIES -- TRACK DENSITY vs. DEPTH -- RATES OF EROSION FROM NUCLEAR TRACK DENSITIES -- SURFACE RESIDENCE TIMES -- RARE GASES -- COSMIC RAY EXPOSURE AGES -- THE ARGON ANOMALY -- CHAPTER 8. PHYSICAL PROPERTIES -- INTRODUCTION -- THE LUNAR INTERIOR - SEISMIC EVIDENCE -- LUNAR HEAT FLOW -- DENSITY OF LUNAR ROCKS -- LUNAR LAVA VISCOSITY. , MASCONS -- CHAPTER 9. ORIGIN OF THE MOON -- INTRODUCTION -- FISSION HYPOTHESES -- CAPTURE HYPOTHESES -- DOUBLE PLANET HYPOTHESES -- GLOSSARY -- CONVERSION FACTORS -- CHEMICAL SYMBOLS AND ELEMENTS -- SUBJECT INDEX.