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David J. Logan
Transport Modelling in Hydrogeochemical Systems
223 Seiten, 50 Abb., Gebunden
Springer-Verlag GmbH | ISBN: 0387952764
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| VORWORT | öffnen |
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Preface The subject of this monograph lies in the joint areas of applied mathematics and hydrogeology. The goals are to introduce various mathematical techniques and ideas to applied scientists while at the same time to reveal to applied mathematicians an exciting catalog of interesting equations and examples, some of which have not undergone the rigors of mathematical analysis. Of course, there is a danger in a dual endeavor-the applied scientist may feel the mathematical models lack physical...
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INTERDISCIPLINARY APPLIED MATHEMATICS GEOPHYSICS AND PLANETARY SCIENCES This book develops the basic ideas of transport models in hydrogeology, including diffusion-dispersion processes, advection, and adsorption or reaction. While balancing the mathematical and physical concepts, it is written in a scientific, pedagogical style that is accessible to graduate students and researchers in applied mathematics, the geosciences, civil engineering, and other environmental sciences. The book is organ... [weiter lesen] |
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| INHALTSVERZEICHNIS | öffnen |
Contents Prefacevii 1 The Diffusion Equation 1 1.1 The Diffusion Equation. 1 1.2 Semi-Infinite Domains. 8 1.2.1 Boundary Value Problems. 8 1.2.2 An Inverse Problem. 12 1.3 Sources and Duhamel's Principle. 13 1.4 Bounded Domains. 16 1.5 The Maximum Principle. 19 1.5.1 Maximum and Minimum Principles. 19 1.5.2 Comparison and Uniqueness. 25 1.6 Reference Notes. 27 2 Reaction-Advection-Dispersion Equation 29 2.1 Mass Balance. 30 2.2 Several Dimensions. 35 2.3 Adsorption Kinetics. 37 2.3.1 Instantaneous Kinetics. 38 2.3.2 Noninstantaneous Kinetics. 40 2.3.3 Mulitple-Site Kinetics. 41 2.4 Dimensionless Equations. 43 2.5 Nonlinear Equations. 44 2.5.1 A Comparison Principle. 45 2.5.2 Similarity Solutions. 48 2.5.3 Blowup of Solutions. 50 2.5.4 Stability of the Zero Solution. 52 2.6 The Reaction-Advection Equation. 54 2.6.1 Semilinear Equations. 54 2.6.2 Quasilinear Equations. 56 2.7 Examples. 58 2.7.1 Advection-Dispersion Equation. 58 2.7.2 Boundary Conditions. 60 2.7.3 A Perturbation Problem. 62 2.7.4 Radial Dispersion. 65 2.7.5 Fractured Media. 68 2.8 Reference Notes. 73 3 Traveling Wave Solutions 75 3.1 Examples of Traveling Waves. 75 3.2 Hydrogeological Models. 83 3.2.1 The Equilibrium Model. 83 3.2.2 The Nonequilibrium Model. 86 3.2.3 A Nonlinear Advection Model. 87 3.3 Discontinuous Wave Fronts. 89 3.3.1 Smooth Wave Fronts. 91 3.3.2 Supercritical Waves. 93 3.3.3 Langmuir Kinetics. 95 3.3.4 Convergence to Traveling Waves. 97 3.4 Stability of Traveling waves. 98 3.4.1 General Ideas. 98 3.4.2 L 2-Stability of Traveling Waves. 103 3.5 A Bioremediation Model. 107 3.6 Reference Notes. 111 4 Filtration Models 113 4.1 Models for Colloid Transport. 114 4.1.1 The Herzig-Leclerc-LeGoff Model. 114 4.1.2 Small Dispersion. 116 4.1.3 Variable Rate Law. 118 4.1.4 Classical Filtration Theory. 120 4.2 An Attachment-Detachment Model. 121 4.2.1 The Model. 121 4.2.2 Traveling Waves. 122 4.2.3 Contamination and Remediation Waves. 124 4.2.4 Bounded Domains. 129 4.3 Reference Notes. 133 5 Subsurface Flow Dynamics 135 5.1 Darcy's Law. 135 5.1.1 Kinematical Flow Relations. 136 5.1.2 Darcy's Law in One Dimension. 138 5.1.3 Darcy's Law in Higher Dimensions. 139 5.2 Models of Groundwater Flow. 144 5.2.1 The Governing Equations. 144 5.2.2 Boundary Conditions and Free Surfaces. 145 5.2.3 The Dupuis Hypothesis. 148 5.3 Transient Flows. 152 5.3.1 The Diffusion Equation. 152 5.3.2 Unsaturated Media. 155 5.3.3 The Presence of Solutes. 158 5.3.4 Thermal Changes. 159 5.4 Reference Notes. 161 6 Transport and Reactions in Rocks 163 6.1 Reaction Fronts. 164 6.1.1 A Redox Front. 164 6.1.2 Upstream Fronts. 165 6.2 Porosity-Mineralogy Changes, I. 169 6.2.1 Dispersive Reaction Fronts. 171 6.2.2 Pure Advection Fronts. 173 6.3 Porosity-Mineralogy Changes, II. 174 6.3.1 The Model Equations. 175 6.3.2 Dimensionless Equations. 179 6.3.3 Pressure-driven flow. 181 6.3.4 Velocity-Driven Flow. 181 6.3.5 Numerical Results. 183 6.4 General Equations of Reaction and Flow. 184 6.4.1 Mineral-Porosity Changes. 186 6.4.2 Solute Changes. 187 6.4.3 Reaction Kinetics. 187 6.5 Reference Notes. 189 A The Finite-Difference Method 193 B The Method of Lines 201 C Numerical Inversion of Transforms 205 D Notation and Symbols 209 References 211 Index 221
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Index A adsorption, 37 advection, 32 advection equation, 34 Airy's equation, 66 aquifer, 136 average velocity, 31 B Barenblatt solution, 143 bioremediation, 107 blowup, 51 Boussinesq equation, 152 Buckingham-Darcy law, 156 Burgers' equation, 79 C Cauchy problem, 4 Cauchy-Dirichlet problem, 8 Cauchy-Neumann problem, 9 cementation, 163 Clausius-Duhem inequality, 6 closed operator, 102 colloid, 41, 113 compaction factor, 114 comparison principle, 25, 45, 46 compression wave, 77 confined domain, 145 consolidation theory, 144 contamination wave, 77, 123 continuity equation, 137 convolution, 5 Crank-Nicolson method, 199 D Darcy velocity, 31, 138 Darcy's law, 138, 140 - unsaturated flow, 156 decay, 34 degenerate, 8, 45 diffusion ball, 22 diffusion constant, 1 diffusion equation, 1, 152 Dirichlet boundary condition, 8, 17 dispersion coefficient, 33 - hydrodynamic, 33 dispersion equation, 34 dissolution, 163 distribution constant, 39 dolomitization, 183 drawdown, 154 Duhamel's principle, 13 Dupuis hypothesis, 148 Dupuis-Forchheimer equation, 150 E effective region of influence, 25 eigenfunction, 18 eigenvalue, 18, 101 elliptic, 45 - uniformly, 45 energy method, 53 equilibrium model, 43, 83 erfc function, 65 error function, 5 exponential integral, 154 F fabric, 30 Fick's law, 2, 20, 32 filter coefficient, 115 filtration, 113 - deep bed, 116 filtration velocity, 138 finite difference method, 193 Fisher's equation, 79 flux, 31 - advective, 32 - bounded, 90 - molecular diffusion, 32 Fourier boundary condition, 10, 18, 60 Fourier's method, 16 Fourier-Kelvin problem, 10 fracture, 68 free surface condition, 145 fundamental solution, 3 G Green's function, 4 H head, 138, 139 - elevation, 139 - pressure, 139 - suction, 156 Henry's theorem, 103 Herzig-Leclerc-LeGoff model, 114 heteroclinic orbit, 80 Hubert space, 17 hydraulic conductivity, 138 I impermeable boundary, 146 incompressibility, 137 inverse problem, 12 isotherm - adsorption, 39 - Freundlich, 40 - Langmuir, 39 - linear adsorption, 39 J Jacob's approximation, 155 K kinematic dispersion, 32 kinetics - attachment-detachment, 121 - instantaneous, 38 - multiple site, 41 - noninstantaneous, 40 Korteweg-deVries equation, 83 Koseny-Carman formula, 130 Kozeny-Carman formula, 180 L linearization, 100 linearized perturbation equation, 100 longitudinal dispersivity, 33 M mass action, 188 mass balance, 31, 35, 69, 137, 186 mean value property, 23 method of lines, 201 Monod kinetics, 108 N Navier-Stokes equations, 138, 141 Neumann boundary condition, 9, 17 nonequilibrium model, 43, 86 nonlocal equation, 131 nullclines, 86 P parabolic, 1, 7, 45 - uniformly, 7, 45 Peclet number, 43 periodic boundary conditions, 9 permeability, 139 plane wave, 2, 58 Poiseuille flow, 143 Poisson representation, 5 porosity, 30 porous media equation, 49 pulse, 77 Q quasi-steady state hypothesis, 189 quasilinear, 56 R radial dispersion, 65 rarefaction wave, 77 reaction kinetics, 187 redox front, 164 remediation wave, 77, 123 replacement reaction, 163, 175 reservoir boundary, 146 resolvent set, 101 retardation constant, 39 Richard's equation, 157 S saturated, 30, 136 seepage face, 146 similarity solution, 48 singular perturbation, 62 specific storage coefficient, 155 specific yield, 152 spectrum - continuous, 101 - essential, 101 - point, 101 - residual, 101 square integrable functions, 17 stability - traveling waves, 98 - zero solution, 52 Stehfest algorithm, 66, 207 storativity, 155 strong maximum principle, 24 Sturm-Liouville problem, 18 T Talbot algorithm, 205 Theis' approximation, 155 thermal energy balance, 160 tortuosity, 32 transmissivity, 152 traveling wave, 34, 75 U unconfined domain, 145 uniqueness, 26 unsaturated media, 155 upstream front, 165 V variation of parameters, 15 volume balance equation, 114 volumetric water content, 155 W water table, 136 wave front, 75, 122 - discontinuous, 89 weak maximum principle, 20
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