Hydropedology

<p>Part I Overviews and Fundamentals<br>1. Hydropedology: Addressing Fundamentals and Building Bridges to Understand Complex Pedologic and Hydrologic Interactions<br>2. Understanding Soil Architecture and Its Functional Manifestation across Scales<br>3. Preferential Flow in a Pedological Perspective<br>4. Preferential Flow Dynamics and Plant Rooting Systems<br>5. Redoximorphic Features as Related to Soil Hydrology and Hydric Soils<br>6. Subaqueous Soils: Pedogenesis, Mapping, and Applications<br>7. Quantifying Processes Governing Soil-Mantled Hillslope Evolution<br>8. Thermodynamic Limits of the Critical Zone and their Relevance to Hydropedology<br>Part II Case Studies and Applications<br>9. Hydropedology in Caliche Soils Weathered from Glen Rose Limestone of Lower Cretaceous Age in Texas<br>10. Hydropedology in Seasonally Dry Landscapes: The Palouse Region of the Pacific Northwest USA<br>11. Hydropedology of the North American Coastal Temperate Rainforest<br>12. Hydropedology in the Ridge and Valley: Soil Moisture Patterns and Preferential Flow Dynamics in Two Contrasting Landscapes<br>13. Geophysical Investigations of Soil–Landscape Architecture and Its Impacts on Subsurface Flow<br>14. Hydropedology, Geomorphology, and Groundwater Processes in Land Degradation: Case Studies in South West Victoria, Australia<br>15. Hydropedology as a Powerful Tool for Environmental Policy and Regulations: Toward Sustainable Land Use, Management and Planning<br>Part III Advances in Modeling, Mapping, and Coupling<br>16. Soil Information in Hydrologic Models: Hard Data, Soft Data, and the Dialog between Experimentalists and Modelers<br>17. Hydrological Classifications of Soils and their Use in Hydrological Modeling<br>18. Subsurface Flow Networks at the Hillslope Scale: Detection and Modeling<br>19. Hydrologic Information in Pedologic Models<br>20. Modeling and Mapping Soil Spatial and Temporal Variability<br>21. Digital Soil Mapping: Interactions with and Applications for Hydropedology<br>22. Coupling Biogeochemistry and Hydropedology to Advance Carbon and Nitrogen Cycling Science<br>23. Coupling Ecohydrology and Hydropedology at Different Spatio-Temporal Scales in Water-Limited Ecosystems<br>24. Hydropedology: Summary and Outlook</p>