| Contents Preface | |
| Porous Media Fundamentals | |
| Structure | |
| Microporous Media | |
| Mesoporous Media | |
| Macroporous Media | |
| Mass Conservation | |
| Darcy Flow and More Advanced Models | |
| Energy Conservation | |
| Heat and Mass Transfer | |
| Fluid Flow | |
| Heat Flow | |
| Flows in Porous Media | |
| Use Simple Methods First | |
| Scale Analysis of Forced Convection Boundary Layers | |
| Sphere and Cylinder with Forced Convection | |
| Channels with Porous Media and Forced Convection | |
| Scale Analysis of Natural Convection Boundary Layers | |
| Thermal Stratification and Vertical Partitions | |
| Horizontal Walls with Natural Convection | |
| Sphere and Horizontal Cylinder with Natural Convection | |
| Enclosures Heated from the Side | |
| Enclosures Heated from Below | |
| The Method of Intersecting the Asymptotes | |
| The Many Counterflows Regime | |
| The Few Plumes Regime | |
| The Intersection of Asymptotes | |
| Energy Engineering | |
| Thermodynamics Fundamentals: Entropy Generation or Exergy Destruction | |
| Exergy Analysis | |
| Thermal Energy Storage | |
| Sensible Heat Storage | |
| Aquifer Thermal Energy Storage | |
| Latent Heat Storage | |
| Cold Thermal Energy Storage | |
| Porous Medium Model of a Storage System with Phase-Change Material | |
| Fuel Cell Principles and Operation | |
| Fuel Cell Structure and Performance | |
| The Concept of Exergy-Cost-Energy-Mass (EXCEM) Analysis | |
| Exergy, Environment, and Sustainable Development | |
| Environmental and Civil Engineering | |
| The Energy-Environment Interface | |
| Wakes: Concentrated Heat Sources in Forced Convection | |
| Plumes: Concentrated Heat Sources in Natural Convection | |
| Penetrative Convection | |
| Aerosol Transport and Collection in Filters | |
| Filter Efficiency and Filtration Theories | |
| Pressure Drop, Permeability, and Filter Performance | |
| Ionic Transport | |
| Reactive Porous Media | |
| Electrodiffusion | |
| Tree-Shaped Flow Networks | |
| Optimal Size of Flow Element | |
| Hot Water Distribution Networks | |
| Minimal Resistance Versus Minimal Flow Length | |
| Compact Heat Transfer Flow Structures | |
| Heat Exchangers as Porous Media | |
| Optimal Spacings in Natural Convection | |
| Optimal Spacings in Forced Convection | |
| Pulsating Flow | |
| Optimal Packing of Fibrous Insulation | |
| Optimal Maldistribution: Tree-Shaped Flows | |
| Dendritic Heat Exchangers | |
| Elemental Volume | |
| First Construct | |
| Second Construct | |
| Constructal Multiscale Structure for Maximal Heat Transfer Density | |
| Heat Transfer | |
| Fluid Friction | |
| Heat Transfer Rate Density: The Smallest Scale | |
| Concluding Remarks | |
| Living Structures | |
| Respiratory System | |
| Airflow Within the Bronchial Tree | |
| Alveolar Gas Diffusion | |
| Particle Deposition | |
| Blood and the Circulatory System | |
| Biomembranes: Structure and Transport Mechanisms | |
| Cell Membrane | |
| Capillary Wall | |
| Transport of Neutral Solutes Across Membranes | |
| Transport of Charged Solutes Across Membranes | |
| Membrane Potential | |
| Electrical Equivalent Circuit | |
| The Kidney and the Regulation of Blood Composition | |
| Kidney Failure and Dialysis | |
| Pumping Blood Through Semipermeable Membranes | |
| Drying of Porous Materials | |
| Introduction | |
| Drying Equipment | |
| Drying Periods | |
| Basic Heat and Moisture Transfer Analysis | |
| Wet Material | |
| Types of Moisture Diffusion | |
| Shrinkage | |
| Modeling of Packed-Bed Drying | |
| Diffusion in Porous Media with Low Moisture Content | |
| Modeling of Heterogeneous Diffusion in Wet Solids | |
| Mass Transfer | |
| Heat Transfer | |
| Boundary Conditions | |
| Numerical Analysis | |
| Heat and Mass Transfer Coefficients | |
| Correlation for the Drying of Solids | |
| Multidisciplinary Applications | |
| Walls with Cavities: Insulation and Strength Combinednbsp | |
| Fibers Coated with Phase-Change Material | |
| Methane Hydrate Sediments: Gas Formation and Convection | |
| Nomenclature | |
| References | |
| Index | |
| Table of Contents provided by Publisher. All Rights Reserved. |