Rock and soil are the major constituent materials of the lithosphere of the earth. They are also the most widely used engineering materials. Rock and soil exhibit some remarkable characteristics of deformation and strength behavior, such as the pressure sensitivity(or pressure dependency), shear dilatancy, dependency of stress path etc. The two phenomena of pressure sensitivity and shear dilatancy have long been known by people. However, their origin of generation is not explained rationally yet.
《岩土材料质量分布与变形之间的相互作用原理(第2版英文版)(精)》由Wang Jingtao编著(英文版)，可供相关读者阅读学习。
Preface to the second edition
Preface to the first edition
Chapter 1 Introduction to Continuum Mechanics
1.1 The definition of a continuum
1.2 Deformation
1.3 Stress
1.4 Velocity fields
1.5 The classical conservation laws and field equations
1.5.1 Lagrange and Euler descriptions of the motion of a continuum
1.5.2 The equation of continuity
1.5.3 The equations of motion
1.5.4 Moment of momentum
Chapter 2 Fundamentals of Thermodynamics
2.1 Introduction
2.2 Basic concepts of thermodynamics
2.3 Temperature and the zeroth law of thermodynamics
2.4 Energy
2.5 The first law of thermodynamics
2.6 The second law of thermodynamics
2.7 Reversible and irreversible processes
2.8 Entropy and Clausius-Duhem inequality
2.9 Internal variables and accompanying equilibrium state
Chapter 3 Fundamental Characteristics of Deformation Behavior
for Geotechnical Materials
3.1 Introduction
3.2 Pressure sensitivity
3.3 Shear dilatancy
3.4 Dependency of stress path
Chapter 4 Constitutive Modeling for Geotechnical Materials
4.1 Introduction
4.2 The plastic potential theory
4.3 The approach based on the thermodynamics of irreversible
processes
4.4 The critical state and critical state line
4.4.1 Critical state
4.4.2 Critical state line
Chapter 5 The Principle of Interaction between Plastic Volumetric
and Shear Strains
5.1 Background
5.2 The principle of interaction between plastic volumetric and
shear strains
5.3 Effects of the plastic shear strain on plastic volumetric strains
5.4 Effects of the plastic volumetric strain on plastic shear strains
5.5 The physical meaning of the principle of interaction
Chapter 6 Symmetry and Interaction between Plastic Volumetric
and Shear Strain Fields
6.1 Introduction to the gauge field theory
6.2 Symmetries of plastic strain fields
6.2.1 Introduction to transformation groups
6.2.2 The local symmetries of plastic strain fields and constitutive field
equations
6.3 Characteristics of the interaction between mass distribution and deformation
6.4 Summary
Chapter 7 The Mechanism of Generation of Dependency of Stress
Path and Critical State Line
7.1 The dependency of stress path
7.2 The curvature hardening
7.3 The critical state line
Chapter 8 The Constitutive Equations for Geotechnical Materials
8.1 The objective of constitutive modeling
8.2 Quantitative representation of the interaction between plastic
volumetric and shear strains
8.3 Thermodynamic variables and state potential
8.4 Dissipation functional
8.5 The constitutive equations for geotechnical materials
Chapter 9 Damages of Engineering and Geotechnical Materials
9.1 The mechanism of damage of metals and some engineering
materials
9.2 The damage of geotechnical materials
9.3 The description of damage evolution
Chapter 10 The Numerical Method of Constitutive Modeling for
Geoteehnical Materials
10.1 Introduction
10.2 The numerical method of constitutive modeling
10.3 Plasticity-based models for clay and sand under different
stress paths
10.4 Concluding remarks
Chapter 11 The Interaction between Mass Distribution and
Deformation in Unsaturated Soils
11.1 Introduction
11.2 The interaction between plastic volumetric and shear strains in
unsaturated soils
11.3 The dual property of matric suction
11.4 The shear strength of unsaturated soils
11.5 The constitutive field equations for unsaturated soils
11.6 The dependency of stress path and critical state line in unsaturated soils
References
Index
