Global Seismicity Dynamics and Data-Driven Science

Chapter 1. Introduction
Chapter 2. Nature of Earthquakes in the Solid Earth 2-1. Global Earthquake Distribution and Plate Tectonics 2-2. Earthquake Propagation and Shear Instability 2-3. Earthquakes and Global Network of Seismic Stations
Chapter 3. Global Seismicity of the Solid Earth 3-1. Stochastic Natures of Seismicity 3-2. Two Types of Earthquakes and Their Occurrences 3-3. The Global Seismicity of Subduction Zones 3-4. The Global Seismicity of Mid Oceanic Ridges 3-5. Global Moment Release Rates by Large Earthquakes 3-6. Stress Orientation and Seismic Anisotropy of the Plate Boundary
Chapter 4. Data - Driven Sciences for Geosciences 4-1. Matrix Decomposition Method and Sparse Modeling 4-2. Deep Neural Network Approximation 4-3. State - Space Modeling of Time Series 4-4. Frobenius Norm Maximum Method for Dynamics
Chapter 5. Data-Driven Science of Seismicity 5-1. Data Cloud of the Global and Japanese Seismicity
5-2. Data - Driven Sciences of Global Seismicity Dynamics 5-3. The Characteristic Features of the Correlated Global Seismicity 5-4. Global Seismic Moment Release Rate and Correlated Seismicity Rates 5-5. Correlated Seismicity Rate Variations of Global Ocean Ridges
Chapter 6. Down Scaling Seismicity of Japanese Regions 6-1. Outline of Tectonics of the Japanese Islands 6-2. Seismicity of Japanese Islands Regions 6-3. Seismicity Cloud of Japanese Islands Crust and Mantle 6-4. Characteristic Features of Correlated Seismicity Rates 6-5. Characteristic Features of Correlated Seismicity Rates Time Series 6-6. Correlated Seismicity Rates on z1-z2-z3 Diagram 6-7. Coherency of Correlated Seismicity Rates between Mantle and Crust 6-8. Annual Variation of the Correlated Seismicity Rates 6-9. Annual Variation of the Partial b-value Time Series 6-10. Correlated Seismicity of Non - Snowy and Snowy Regions of Japanese Islands 6-11. Partial b123 and b234 Values and Correlated Seismicity Rates 6-12. Correlated Seismicity Rates between Global and Japanese Islands Region
Chapter 7. Correlated Seismicity of the Northern California Region 7-1. Introduction 7-2. Seismicity Cloud of the Northern California Region 7-3. Correlated Seismicity Rates in Northern California 7-4. Partial b-values Variations of the Northern California Region 7-5. Comparison between Global Subduction Zones and Northern California Regions
Chapter 8. Model of Seismicity Dynamics from Data-Driven Science 8-1. Minimal Model of Global Seismicity Dynamics 8-2. Synthetic Coherency of Seismicity Dynamics by Slider Block Model
Chapter 9. Seismicity Dynamics Model of Global Earth and Japanese Island Region 9-1. Minimal Model of the Global and Japanese Seismicity Dynamics 9-2. Minimal Dynamic Model of Japanese Correlated Seismicity 9-3. Partial b-value Change and its Annual Variation
Chapter 10. Predictive Modeling of Global and Regional Seismicity Rates 10-1. State - Space Modeling of Global and Japanese Seismicity Dynamics 10-2. Inversion of the Global Seismicity Rates from Correlated Seismicity 10-3. Data-Driven Sciences and Machine Learning of Global Seismicity 10-4. The Main Sequence of Relations between Global Correlated Seismicity Rates and Local Seismicity Rates: The Cases of Japanese Islands, Sumatra and Chile. 10-5. Global Seismicity Dynamics and Plate Tectonics 10-6. Possibility of Deep Learning Recurrent Neural Network for Prediction of the Seismic Activity 10-7. System Model of the Correlated Seismicity, Plate Boundary Slip, and Fluid Flux in the Subduction zone
Chapter 11. Future Problems of Prediction of Giant Plate Boundary Earthquakes
Appendix I. Application of Recurrent Neural Network (RNN) Modeling for Global Seismicity Dynamics
Appendix II. Comments on Databases and Software Used in This Book