Chapter
I - TWO (APPARENTLY) DIFFERENT WORLDS
1 - The Exploratory Brain
1.1 A SMALL-SCALE EXPLORATION CASE HISTORY
2 - Cognitive Geosciences
2.1 INTEGRATING RATIONAL AND EMOTIONAL BRAINS
2.2 HUMAN AND MAMMALIAN BRAIN: AN OVERVIEW
2.2.2 Anatomy and Related Functions
2.3 EXPLORATION GEOSCIENCES: AN OVERVIEW
2.4 EXPLORATION FROM A COGNITIVE POINT OF VIEW
3.1.1 Seeking Anomalies: Epistemological and Psychological Aspects
3.1.2 Gestalt: Perception of Patterns
3.1.3 New Look: Patterns in the Frame of a Model
3.2 NEUROBIOLOGICAL BACKGROUND
3.2.1 The Seeking System and the Dopaminergic Pathways
3.2.2 The Seeking System and High-Level Cognition
3.2.3 Connections With Other Neural Systems
3.3 EXPLORATION, SEEKING, AND SPATIAL THINKING
3.4.1 A Large-Scale Exploration Case History
3.4.1.2 Beginning of the Story
3.4.1.4 The First Discovery
3.4.1.5 Where Is the Real Treasure?
3.4.1.6 A Change of Paradigm
3.4.1.7 Modern Exploration
3.4.1.8 Finally the Big Discovery
3.4.3 Cognitive Interpretation
3.4.4 A Game-Changing Discovery: Thinking Out of the Box
3.5 SUMMARY AND FINAL REMARKS
3.5.1 Triggering the Process
3.5.2 Sustaining the Process
3.5.3 Driving the Process to Success
4.2.2 Toward a Modern Concept of Imagery
4.3 NEUROBIOLOGICAL BACKGROUND
4.3.1 From Chaos to Multisensory Brain Maps
4.3.2 From External Images to Mental Images
4.4.1 Earth Model and Health Model
4.4.2 Geophysical and Medical Imaging Based on Inversion
4.4.5 Expanding the Concept of Imaging
4.5 SUMMARY AND FINAL REMARKS
5.2 NEUROBIOLOGICAL BACKGROUND
5.3.1 Pattern Recognition in Geophysics and in Music
5.3.1.1 Geophysical Domain
5.4 SUMMARY AND FINAL REMARKS
6.1.1 Integration Methods
6.2 NEUROBIOLOGICAL BACKGROUND
6.2.1 Integration and Consciousness
6.3.1 The Value of Information
6.3.2 The Value of Integration in Geophysics
6.3.3 The Generalized Value of Integration in Uncertain Domains
6.4 SUMMARY AND FINAL REMARKS
III - BRAIN-BASED-TECHNOLOGIES AND BRAIN EMPOWERMENT
7 - Brain-Based Technologies
7.1 INTRODUCTION: FROM NEUROSCIENCES TO INNOVATIVE TECHNOLOGIES
7.2 SOFT COMPUTING TECHNIQUES: A BRIEF OVERVIEW
7.3 OPTIMIZING VISUAL COGNITION
7.4 MULTIMODAL–MULTISENSORY ANALYSIS
7.4.1 From Geophysics to Sounds
7.4.1.2 Time–Frequency Transformation
7.4.1.3 From Time–Frequency to Musical Instrument Digital Interface Protocol
7.4.1.4 Audio–Video Display
7.4.1.5 Application: Skrugard and Harvis Field
7.4.2 Sound Pattern Recognition and Automatic Classification
7.4.2.1 Audio Versus Musical Instrument Digital Interface Features
7.4.2.2 Examples of Piano Roll Display and Musical Instrument Digital Interface Features
7.4.2.3 Classification Steps: From Taxonomy to Training and Clustering
7.5.1 Embedding Modeling and Inversion Algorithms in Quantitative Integration System Platform
7.5.2 Expanded Integration
7.6 SUMMARY AND FINAL REMARKS
8 - Applications to Education in Geosciences
8.2 APPLICATIONS TO SEISMOLOGY
8.3 MULTIMEDIA AND HYPERMEDIA IN GEOSCIENCES
8.3.1.1 Mt. St. Helens Eruption
8.4 HYPERPOSTERS IN GEOSCIENCES
8.5 SUMMARY AND FINAL REMARKS
9 - From Information to Significance
9.2 SIGNIFICANCE IN GEOSCIENCES
9.3 SIGNIFICANCE IN NEUROSCIENCES
9.4 FROM SEMANTIC THEORIES TO SEMANTIC TECHNOLOGIES
9.5 SEMANTIC SYSTEMS AND SEMANTIC ENTROPY
9.6 SUMMARY AND FINAL REMARKS
10 - Neuroplasticity and Brain Empowerment in Exploration Geosciences
10.2 THE BRAIN THAT CHANGES ITSELF
10.3 NEUROPLASTICITY: PRINCIPLES AND IMPLICATIONS
10.3.1 Neurobiological Background of Neuroplasticity
10.3.2 Basic Rules of Neuroplasticity
10.4 BRAIN CONNECTIVITY: MECHANISMS AND ENHANCEMENTS
10.4.1 Connection Mechanisms
10.4.2 The Role of Neurotransmitters
10.4.3 Neurotrophic Factors
10.5 NEUROPLASTICITY AND EXPLORATION GEOSCIENCES
10.5.1 Integrated Geophysics and Neuroplasticity
10.5.2 Multimodal–Multisensory Analysis and Neuroplasticity
10.5.3 Field Geology and Neuroplasticity
10.6 SUMMARY AND FINAL REMARKS
1: Overview About Inversion
2: Overview About Simultaneous Joint Inversion