InhaltsangabePreface. 1. Water and the Subsurface Environment. 1.1 Groundwater Hydrology. 1.2 Groundwater and the Hydrologic Cycle. 1.3 Groundwater as a Resource. 1.4 Groundwater and the Subsurface. 1.5 The Nearsurface Environment. 1.6 Porosity. 1.7 SoilWater. 1.8 Groundwater Contamination. 1.9 Quantitative Analysis of Groundwater Problems. 1.10 Summary. 1.11 Problems. 2. Fluid Flow and Mass Transport. 2.1 Fluid Pressure. 2.2 Hydraulic Head. 2.3 Fluid Potential. 2.4 Concept of Saturation. 2.5 The Darcy Experiment. 2.6 Fluid Flow andMass and Energy Fluxes. 2.7 Summary. 2.8 Problems. 3. The Geologic Setting. 3.1 Unconsolidated Deposits. 3.2 Consolidated Rocks. 3.3 Metamorphic Rocks. 3.4 Igneous Rocks. 3.5 Geologic Time. 3.6 Field Investigation. 3.7 The Geohydrological Record. 3.8 TheMeasurement of State Variables. 3.9 Summary. 3.10 Problems. 4. Water Movement in Geological Formations. 4.1 Conservation of FluidMass. 4.2 Conservation of FluidMass in a PorousMedium. 4.3 Groundwater Flow Equations. 4.4 The Free Surface Condition. 4.5 Reduction in Dimensionality. 4.6 Saltwater Intrusion. 4.7 Onedimensional Formulation. 4.8 Cylindrical Coordinates. 4.9 Summary. 4.10 Problems. 5. Analytical Solutions for Flow Problems. 5.1 Onedimensional Flow Problems. 5.2 Twodimensional Flow Problems. 5.3 Summary. 5.4 Problems. 6. Well Hydraulics. 6.1 The Slug Test. 6.2 Pumping Tests. 6.3 Summary. 6.4 Problems. 7. Numerical Solutions of the Groundwater Flow Equation. 7.1 Introduction to NumericalMethod. 7.2 Polynomial Approximation Theory. 7.3 FinitedifferenceMethods. 7.4 Finite ElementMethods. 7.5 Finite Volume Formulation. 7.6 Finite ElementMethod and the Transient Flow Equation. 7.7 Simulation under Parameter Uncertainty. 7.8 Summary. 7.9 Problems. 8. Contamination of Subsurface Water. 8.1 Types of Contaminants. 8.2 Mass Conservation. 8.3 Mass Conservation in a PorousMedium. 8.4 Retardation. 8.5 Chemical Reactions. 8.6 Numerical Solution to the Groundwater Transport Equations. 8.7 Summary. 8.8 Problems. 9. Groundwater-Surface Water Interaction. 9.1 Introduction. 9.2 Fluid Dynamics Near the Stream. 9.3 Chemical Interaction. 9.4 Summary. 9.5 Problems. 10. Remediation. 10.1 PumpandTreat. 10.2 Soil Vapor Extraction (SVE. 10.3 Air Sparing. 10.4 Some Basic Chemistry. 10.5 Permeable Reactive Barriers. 10.6 Bioremediation. 10.7 Optimal Design of Remediation and Management Strategies. 10.8 Summary. 10.9 Problems. 11. Multifluid Flow and Transport. 11.1 Problems involvingMultiple Fluids. 11.2 Governing Equations. 11.3 The Unsaturated Zone and Richards' Equation. 11.4 Solution Methods Multi-fluid Flow Equations. 11.5 Summary. 11.6 Problems.

GEORGE F. PINDER, PhD, is Director of the Research Center for Groundwater Remediation Design and Professor of Civil and Environmental Engineering, Mathematics, and Computer Science at the University of Vermont. He has published many important articles and books, including Groundwater Modeling Using Geographical Information Systems (Wiley). Dr. Pinder's research focuses on the development and application of applied mathematics, especially numerical mathematics, to solve groundwater contamination and supply problems using computers. MICHAEL A. CELIA, PhD, is Professor and Chair in the Department of Civil and Environmental Engineering at Princeton University. Dr. Celia conducts research in the areas of groundwater hydrology, numerical modeling, contaminant transport simulation, and multiphase flow physics.

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