Cover image for Mechanics and Physics of Porous Solids.
Mechanics and Physics of Porous Solids.
Title:
Mechanics and Physics of Porous Solids.
Author:
Coussy, Olivier.
ISBN:
9780470710395
Personal Author:
Edition:
1st ed.
Physical Description:
1 online resource (297 pages)
Contents:
MECHANICS AND PHYSICS OF POROUS SOLIDS -- Contents -- Preface -- 1 The Strange World of Porous Solids -- 2 Fluid Mixtures -- 2.1 Chemical Potential -- 2.1.1 Free energy and chemical potential -- 2.1.2 Equilibrium of mixture composition -- 2.2 Gibbs-Duhem Equation -- 2.2.1 Derivation of the Gibbs-Duhem equation -- 2.2.2 Molar Gibbs-Duhem equation -- 2.2.3 Ideal gases -- 2.2.4 Real gases -- 2.2.5 Partial molar property -- 2.3 Ideal Mixtures -- 2.3.1 Ideal gas mixture -- 2.3.2 Ideal mixture definition -- 2.3.3 Entropy of mixing -- 2.3.4 Ideal solution - Raoult's law -- 2.3.5 Dilute ideal solution - Henry's law -- 2.3.6 Osmotic pressure -- 2.3.7 Electrostatics and excess of osmotic pressure -- 2.3.8 Reactive ideal mixture -- 2.3.9 Unconditional stability of ideal solutions -- 2.4 Regular Solutions -- 2.4.1 Regular solutions and the interaction between molecules -- 2.4.2 Conditional stability of regular solutions -- Further Reading -- 3 The Deformable Porous Solid -- 3.1 Strain -- 3.1.1 Deformation gradient and displacement -- 3.1.2 Strain tensor -- 3.2 Stress -- 3.2.1 The hypothesis of local contact forces -- 3.2.2 The action-reaction law -- 3.2.3 The Cauchy stress tensor -- 3.2.4 Local mechanical equilibrium -- 3.2.5 Symmetry of stress tensor -- 3.3 Strain Work -- 3.3.1 Mechanical energy balance -- 3.3.2 Strain work in infinitesimal transformations -- 3.4 From Solids to Porous Solids -- 3.4.1 Porosity and deformation -- 3.4.2 Pore pressure and stress partition -- 3.4.3 Free energy balance for the fluid-solid mixture -- 3.4.4 Free energy balance for the porous solid -- 3.4.5 Strain work and the effective stress 'principle' -- Further Reading -- 4 The Saturated Poroelastic Solid -- 4.1 The Poroelastic Solid -- 4.1.1 The linear poroelastic solid -- 4.1.2 Microporoelasticity -- 4.1.3 The nonlinear poroelastic solid -- 4.2 Filling the Porous Solid.

4.2.1 Filling by a compressible fluid -- 4.2.2 Filling by a mixture containing gas bubbles - bubble pressure -- 4.2.3 Undrained poroelasticity -- 4.3 The Thermoporoelastic Solid -- 4.3.1 The linear thermoporoelastic solid -- 4.3.2 The linear thermoporoelastic fluid-solid mixture -- 4.4 The Poroviscoelastic Solid -- 4.4.1 The linear viscoelastic solid matrix -- 4.4.2 The linear poroviscoelastic solid -- Further Reading -- 5 Fluid Transport and Deformation -- 5.1 Transport Laws -- 5.1.1 Mole and mass conservation -- 5.1.2 Dissipation associated with transport -- 5.1.3 Fick's law -- 5.1.4 Darcy's law -- 5.2 Coupling the Deformation and the Flow -- 5.2.1 The Navier equation -- 5.2.2 The diffusion equation -- 5.3 Consolidation of a Soil Layer -- 5.3.1 Consolidation equation -- 5.3.2 Early time solution -- 5.3.3 Any time solution -- 5.3.4 Layer apparent creep -- Further Reading -- 6 Surface Energy and Capillarity -- 6.1 Physics and Mechanics of Interfaces -- 6.1.1 Origin of surface energy -- 6.1.2 Basic approach to van der Waals forces -- 6.1.3 Surface and interface energy -- 6.1.4 Surface energy and cohesion -- 6.1.5 Surface energy and surface stress -- 6.1.6 Wettability, angle of contact and the Young-Dupré equation -- 6.1.7 The Laplace equation -- 6.1.8 Pore invasion and interface energy change -- 6.1.9 Interface energy and adsorption -- 6.1.10 The disjoining pressure -- 6.2 Capillarity in Porous Solids -- 6.2.1 Capillary pressure curve and interface energy -- 6.2.2 Capillary rise -- 6.2.3 Porosimetry -- 6.2.4 Capillary hysteresis -- 6.3 Transport in Unsaturated Porous Solids -- 6.3.1 Relative permeability -- 6.3.2 Injection -- Further Reading -- 7 The Unsaturated Poroelastic Solid -- 7.1 Interface Stress as a Prestress -- 7.1.1 Interface energy and saturated poroelasticity -- 7.1.2 Adsorption-induced deformation.

7.2 Energy Balance for the Unsaturated Porous Solid -- 7.2.1 Lagrangian and Eulerian saturations -- 7.2.2 Lagrangian saturation and free energy balance -- 7.3 The Linear Unsaturated Poroelastic Solid -- 7.3.1 Constitutive equations of unsaturated poroelasticity -- 7.3.2 Unsaturated microporoelasticity -- 7.3.3 Double porosity approach to the brittle fracture of liquid-infiltrated materials -- 7.4 Extending Linear Unsaturated Poroelasticity -- 7.4.1 The nonlinear poroelastic solid in unsaturated conditions -- 7.4.2 Accounting for interface stress effects upon deformation -- 7.4.3 The linear thermoporoelastic solid in unsaturated conditions -- 7.4.4 The linear unsaturated poroviscoelastic solid -- Further Reading -- 8 Unconfined Phase Transition -- 8.1 Chemical Potential and Phase Transition -- 8.1.1 Phase equilibrium law -- 8.1.2 Chemical potential of a pure substance in any form -- 8.1.3 Supersaturation -- 8.1.4 Phase transition as an instability -- 8.2 Liquid-Vapor Transition -- 8.2.1 The Kelvin equation -- 8.2.2 Effect of a solute -- 8.3 Liquid-Solid Transition -- 8.3.1 The Thomson equation -- 8.3.2 Salt crystallization - the Correns equation -- 8.4 Gas Bubble Formation -- 8.5 Surface Energy and Phase Transition -- 8.5.1 Nucleation -- 8.5.2 The precondensed liquid film, the disjoining pressure and the Gibbs adsorption isotherm -- 8.5.3 The premelted liquid film and crystallization -- Further Reading -- 9 Phase Transition in Porous Solids -- 9.1 In-pore Phase Transition -- 9.1.1 Liquid saturation, pore-entry radius distribution and phase transition -- 9.1.2 Spherical stress state and stability of in-pore crystallization -- 9.1.3 Intermolecular forces and in-pore phase transition -- 9.2 Kinetics and Mechanics of Drying -- 9.2.1 Continuum approach to drying kinetics -- 9.2.2 Drying asymptotics -- 9.2.3 Drying mechanics.

9.3 Mechanics of Confined Crystallization -- 9.3.1 Cryogenic swelling -- 9.3.2 The hydraulic pressure -- 9.3.3 Freezing and air voids -- 9.3.4 Weathering and the crystallization of sea-salts -- Further Reading -- 10 The Poroplastic Solid -- 10.1 Basic Concepts of Plasticity -- 10.1.1 Plastic loading function and flow rule -- 10.1.2 The principle of maximum plastic work -- 10.1.3 Hardening plasticity -- 10.1.4 Dilatancy -- 10.1.5 Three-dimensional plasticity -- 10.1.6 Limit analysis and stability of dry sandpiles -- 10.2 From Plasticity to Poroplasticity -- 10.2.1 The poroplastic solid -- 10.2.2 Critical state and the Cam-clay model -- 10.2.3 Capillary hardening and capillary collapse -- 10.2.4 Stability of wet sandpiles -- 10.3 From Material to Structure -- Further Reading -- 11 By Way of Conclusion -- Further Reading -- Index.
Abstract:
Mechanics and Physics of Porous Solids addresses the mechanics and physics of deformable porous materials whose porous space is filled by one or several fluid mixtures interacting with the solid matrix. Coussy uses the language of thermodynamics to frame the discussion of this topic and bridge the gap between physicists and engineers, and organises the material in such a way that individual phases are explored, followed by coupled problems of increasing complexity. This structure allows the reader to build a solid understanding of the physical processes occurring in the fluids and then porous solids. Mechanics and Physics of Porous Solids offers a critical reference on the physics of multiphase porous materials - key reading for engineers and researchers in structural and material engineering, concrete, wood and materials science, rock and soil mechanics, mining and oil prospecting, biomechanics.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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