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Preface | p. xv |
About The author | p. xix |
Overview | p. 1 |
Introduction | p. 1 |
Synopses of Topics Covered in Various Chapters | p. 3 |
Transport Properties Of Porous Media | p. 7 |
Introduction | p. 7 |
Permeability of Porous Media Based on the Bundle of Tortuous Leaky-Tube Model | p. 10 |
Pore Structure | p. 11 |
Equation of Permeability | p. 13 |
Derivation of the Equation of Permeability | p. 16 |
Pore Connectivity and Parametric Functions | p. 20 |
Data Analysis and Correlation Method | p. 24 |
Parametric Relationships of Typical Data | p. 26 |
Example 1: Synthetic Spheres | p. 26 |
Example 2: Dolomite | p. 26 |
Example 3: Berea Sandstone 27 | |
Correlation of Typical Permeability Data | p. 29 |
Example 4: Synthetic Porous Media | p. 29 |
Example 5: Glass Bead and Sand Packs | p. 31 |
Example 6: Silty Soil | p. 33 |
Permeability of Porous Media Undergoing Alteration by Scale Deposition | p. 33 |
Permeability Alteration by Scale Deposition | p. 36 |
Permeability Alteration in Thin Porous Disk by Scale Deposition | p. 37 |
Data Analysis and Correlation Method | p. 38 |
Correlation of Scale Effect on Permeability | p. 39 |
Example 7: Scale Formation | p. 39 |
Example 8: Acid Dissolution | p. 40 |
Example 9: Wormhole Development | p. 42 |
Temperature Effect on Permeability | p. 44 |
The Modified Kozeny-Carman Equation | p. 46 |
The Vogel-Tammann-Fulcher (VTF) Equation | p. 49 |
Data Analysis and Correlation | p. 51 |
Example 10: Correlation Using the Modified Kozeny-Carman Equation | p. 51 |
Example 11: Correlation Using the VTF Equation | p. 52 |
Effects of Other Factors on Permeability | p. 54 |
Exercises | p. 54 |
Macroscopic Transport Equations | p. 57 |
Introduction | p. 57 |
Rev | p. 58 |
Volume-Averaging Rules | p. 59 |
Mass-Weighted Volume-Averaging Rule | p. 61 |
Surface Area Averaging Rules | p. 68 |
Applications of Volume and Surface Averaging Rules | p. 68 |
Double Decomposition for Turbulent Processes in Porous Media | p. 70 |
Tortuosity Effect | p. 73 |
Macroscopic Transport Equations by Control Volume Analysis | p. 74 |
Generalized Volume-Averaged Transport Equations | p. 76 |
Exercises | p. 76 |
Scaling And Correlation Of Transport In Porous Media | p. 79 |
Introduction | p. 79 |
Dimensional and Inspectional Analysis Methods | p. 81 |
Dimensional Analysis | p. 81 |
Inspectional Analysis | p. 82 |
Scaling | p. 84 |
Scaling as a Tool for Convenient Representation | p. 84 |
Scaling as a Tool for Minimum Parametric Representation | p. 84 |
Normalized Variables | p. 86 |
Scaling Criteria and Options for Porous Media Processes | p. 87 |
Scaling Immiscible Fluid Displacement in Laboratory Core Floods | p. 89 |
Exercises | p. 92 |
Fluid Motion In Porous Media | p. 97 |
Introduction | p. 97 |
Flow Potential | p. 98 |
Modification of Darcy's Law for Bulk- versus Fluid Volume Average Pressures | p. 99 |
Macroscopic Equation of Motion from the Control Volume Approach and Dimensional Analysis | p. 102 |
Modification of Darcy's Law for the Threshold Pressure Gradient | p. 105 |
Convenient Formulations of the Forchheimer Equation | p. 108 |
Determination of; the Parameters of the Forchheimer Equation | p. 111 |
Flow Demarcation Criteria | p. 115 |
Entropy Generation in Porous Media | p. 117 |
Flow through a Hydraulic Tube | p. 118 |
Flow through Porous Media | p. 120 |
Viscous Dissipation in Porous Media | p. 123 |
Generalized Darcy's Law by Control Volume Analysis | p. 124 |
General Formulation | p. 126 |
Simplified Equations of Motion for Porous Media Flow | p. 132 |
Equation of Motion for Non-Newtonian Fluids | p. 134 |
Frictional Drag for Non-Newtonian Fluids | p. 134 |
Modified Darcy's Law for Non-Newtonian Fluids | p. 135 |
p. 137 | |
Exercises | p. 138 |
Gas Transport In Tight Porous Media | p. 145 |
Introduction | p. 145 |
Gas Flow through a Capillary Hydraulic Tube | p. 146 |
Relationship between Transports Expressed on Different Bases | p. 147 |
The Mean Free Path of Molecules: FHS versus VHS | p. 149 |
The Knudsen Number | p. 150 |
Flow Regimes and Gas Transport at Isothermal Conditions | p. 152 |
Knudsen Regime | p. 154 |
Slip/Transition Regime | p. 156 |
Viscous Regime | p. 157 |
Adsorbed-Phase Diffusion | p. 158 |
Liquid Viscous or Capillary Condensate Flow | p. 159 |
Gas Transport at Nonisothermal Conditions | p. 159 |
Unified Hagen-Poiseuille-Type Equation for Apparent Gas Permeability | p. 160 |
The Rarefaction Coefficient Correlation | p. 161 |
The Apparent Gas Permeability Equation | p. 162 |
The Klinkenberg Gas Slippage Factor Correlation | p. 163 |
Single-Component Gas Flow | p. 165 |
Multicomponent Gas Flow | p. 166 |
Effect of Different Flow Regimes in a Capillary Flow Path and the Extended Klinkenberg Equation | p. 168 |
Effect of Pore Size Distribution on Gas Flow through Porous Media | p. 170 |
Exercises | p. 174 |
Fluid Transport Through Porous Media | p. 177 |
Introduction | p. 177 |
Coupling Single-Phase Mass and Momentum Balance Equations | p. 178 |
Cylindrical Leaky-Tank Reservoir Model Including the Non-Darcy Effect | p. 179 |
Coupling Two-Phase Mass and Momentum Balance Equations for Immiscible Displacement | p. 186 |
Macroscopic Equation of Continuity | p. 186 |
Application to Oil/Water Systems | p. 187 |
Pressure and Saturation Formulation | p. 188 |
Saturation Formulation | p. 189 |
Boundary Conditions | p. 190 |
One-Dimensional Linear Displacement | p. 190 |
Numerical Solution of Incompressible Two-Phase Fluid Displacement Including the Capillary Pressure Effect | p. 191 |
Fractional Flow Formulation | p. 192 |
The Buckley-Leverett Analytic Solution Neglecting the Capillary Pressure Effect | p. 193 |
Convenient Formulation | p. 194 |
Unit End-Point Mobility Ratio Formulation | p. 195 |
Example 1 | p. 196 |
Example 2 | p. 198 |
Potential Flow Problems in Porous Media | p. 200 |
Principle of Superposition | p. 200 |
Principle of Imaging | p. 202 |
Basic Method of Images | p. 202 |
Expanded Method of Images | p. 205 |
Streamline/Stream Tube Formulation and Front Tracking | p. 205 |
Basic Formulation | p. 206 |
Finite Analytic Representation of Wells in Porous Media | p. 211 |
Streamline Formulation of Immiscible Displacement in Uuconfined Reservoirs | p. 213 |
Streamline Formulation of Immiscible Displacement Neglecting Capillary Pressure Effects in Confined Reservoirs | p. 214 |
Exercises | p. 218 |
Parameters Of Fluid Transfer In Porous Media | p. 227 |
Introduction | p. 227 |
Wettability and Wettability Index | p. 230 |
Capillary Pressure | p. 231 |
Work of Fluid Displacement | p. 234 |
Temperature Effect on Wettability-Related Properties of Porous Media | p. 235 |
Direct Methods for the Determination of Porous Media Flow Functions and Parameters | p. 238 |
Direct Interpretation Methods for the Unsteady-State Core Tests | p. 238 |
Basic Relationships | p. 238 |
Solution Neglecting the Capillary End Effect for Constant Fluid Properties | p. 242 |
Inferring Function and Function Derivative Values from Average Function Values | p. 245 |
Relationships for Processing Experimental Data | p. 247 |
Applications | p. 251 |
The et al. Formulae for the Direct Determination of Relative Permeability from Unsteady-State Fluid Displacements | p. 251 |
Determination of Relative Permeability under Variable Pressure and Rate Conditions | p. 253 |
Determination of Relative Permeability under Constant Pressure Conditions | p. 256 |
Determination of Relative Permeability under Constant Rate Conditions | p. 257 |
Applications for Data Analysis | p. 257 |
Indirect Methods for the Determination of Porous Media Flow Functions and Parameters | p. 259 |
Indirect Method for Interpretation of the Steady-State Core Tests | p. 260 |
Unsteady-State Core Test History Matching Method for the Unique and Simultaneous Determination of Relative Permeability and Capillary Pressure | p. 261 |
Formulation of a Two-Phase Flow in Porous Media | p. 261 |
Representation of Flow Functions | p. 263 |
Parameter Estimation Using the Simulated Annealing Method | p. 265 |
Applications for Drainage Tests | p. 267 |
Applications for Imbibition Tests | p. 269 |
Exercises | p. 276 |
Mass, Momentum, And Energy Transport In Porous Media | p. 281 |
Introduction | p. 281 |
Dispersive Transport of Species in Heterogeneous and Anisotropic Porous Media | p. 282 |
Molecular Diffusion | p. 283 |
Hydrodynamic Dispersion | p. 283 |
Advective/Convective Flux of Species | p. 285 |
Correlation of Dispersivity and Dispersion | p. 286 |
General Multiphase Fully Compositional Nonisothermal Mixture Model | p. 288 |
Formulation of Source/Sink Terms in Conservation Equations | p. 292 |
Isothermal Black Oil Model of a Nonvolatile Oil System | p. 295 |
Isothermal Limited Compositional Model of a Volatile Oil System | p. 298 |
Flow of Gas and Vaporizing Water Phases in the Near-Wellbore Region | p. 299 |
Flow of Condensate and Gas Phase Containing Noncondensable Gas Species in the Near-Wellbore Region | p. 301 |
Shape-Averaged Formulations | p. 305 |
Thickness-Averaged Formulation | p. 305 |
Cross-Sectional Area-Averaged Formulation | p. 306 |
Conductive Heat Transfer with Phase Change | p. 307 |
Unfrozen Water in Freezing and Thawing Soils: Kinetics and Correlation | p. 309 |
Kinetics of Freezing/Thawing Phase Change and Correlation Method | p. 311 |
Representation of the Unfrozen Water Content for Instantaneous Phase Change | p. 317 |
Apparent Heat Capacity Formulation for Heat Transfer with Phase Change | p. 318 |
Enthalpy Formulation of Conduction Heat Transfer with Phase Change at a Fixed Temperature | p. 322 |
Thermal Regimes for Freezing and Thawing of Moist Soils: Gradual versus Fixed Temperature Phase Change | p. 326 |
Simultaneous Phase Transition and Transport in Porous Media Containing Gas Hydrates | p. 328 |
Modeling Nonisothermal Hydrocarbon Fluid Flow Considering Expansion/Compression and Joule-Thomson Effects | p. 338 |
Model Considerations and Assumptions | p. 339 |
Temperature and Pressure Dependency of Properties | p. 339 |
Mixture Properties | p. 341 |
Equations of Conservations | p. 342 |
Applications | p. 345 |
Exercises | p. 346 |
Suspended Particulate Transport In Porous Media | p. 353 |
Introduction | p. 353 |
Deep-Bed Filtration under Nonisothermal Conditions | p. 355 |
Concentration of Fine Particles Migrating within the Carrier Fluid | p. 356 |
Concentration of Fine Particles Deposited inside the Pores of the Porous Matrix | p. 359 |
Variation of Temperature in the System of Porous Matrix and Flowing Fluid | p. 359 |
Initial Filter Coefficient | p. 361 |
Filter Coefficient Dependence on Particle Retention Mechanisms and Temperature Variation | p. 363 |
Permeability Alteration by Particle Retention and Thermal Deformation | p. 365 |
Applications | p. 366 |
Cake Filtration over an Effective Filter | p. 370 |
Exercises | p. 379 |
Transport In Heterogeneous Porous Media | p. 383 |
Introduction | p. 383 |
Transport Units and Transport in Heterogeneous Porous Media | p. 385 |
Transport Units | p. 385 |
Sugar Cube Model of Naturally Fractured Porous Media | p. 386 |
Models for Transport in Fissured/Fractured Porous Media | p. 388 |
Analytical Matrix-Fracture Interchange Transfer Functions | p. 388 |
Pseudo-Steady-State Condition and Constant Fracture Fluid Pressure over the Matrix Block: The Warren-Root Lump-Parameter Model | p. 390 |
Transient-State Condition and Constant Fracture Fluid Pressure over the Matrix Block | p. 391 |
Single-Phase Transient Pressure Model of de Swaan for Naturally Fractured Reservoirs | p. 392 |
Species Transport in Fractured Porous Media | p. 394 |
Immiscible Displacement in Naturally Fractured Porous Media | p. 396 |
Correlation of the Matrix to-Fracture Oil Transfer | p. 397 |
Formulation of the Fracture Flow Equation | p. 402 |
Exact Analytical Solution Using the Unit End-Point Mobility Approximation | p. 404 |
Asymptotic Analytical Solutions Using the Unit End-Point Mobility Approximation | p. 405 |
Formulation | p. 406 |
Small-Time Approximation | p. 407 |
Approximation for Large Time | p. 408 |
Method of Weighted Sum (Quadrature) Numerical Solutions | p. 410 |
Formulation | p. 411 |
Quadrature Solution | p. 413 |
Finite Difference Numerical Solution | p. 415 |
Formulation | p. 416 |
Numerical Solutions | p. 418 |
Exercises | p. 425 |
References | p. 429 |
Index | p. 455 |
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