| PREFACE |
| INTRODUCTION |
| 1 ANALYSIS OF STRESS |
| 1.1 Introduction |
| 1.2 "Body Forces, Surface Forces, and Stresses" |
| 1.3 Uniform State of Stress (Two-Dimensional) |
| 1.4 Principal Stresses |
| 1.5 Mohr's Circle of Stress |
| 1.6 State of Stress at a Point |
| 1.7 Differential Equations of Equilibrium |
| 1.8 Three-Dimensional State of Stress at a Point |
| 1.9 Summary |
| Problems |
| 2 STRAIN AND DISPLACEMENT |
| 2.1 Introduction |
| 2.2 Strain-Displacement Relations |
| 2.3 Compatibility Equations |
| 2.4 State of Strain at a Point |
| 2.5 General Displacements |
| 2.6 Principle of Superposition |
| 2.7 Summary |
| Problems |
| 3 STRESS STRAIN RELATIONS |
| 3.1 Introduction |
| 3.2 Generalized Hooke's Law |
| 3.3 Bulk Modulus of Elasticity |
| 3.4 Summary |
| Problems |
| 4 FORMULATION OF PROBLEMS IN ELASTICITY |
| 4.1 Introduction |
| 4.2 Boundary Conditions |
| 4.3 Governing Equations in Plane Strain Problems |
| 4.4 Governing Equations in Three-Dimensional Problems |
| 4.5 Principal of Superposition |
| 4.6 Uniqueness of Elasticity Solutions |
| 4.7 Saint-Venant's Principle |
| 4.8 Summary |
| Problems |
| 5 TWO-DIMENSIONAL PROBLEMS |
| 5.1 Introduction |
| 5.2 Plane Stress Problems |
| 5.3 Approximate Character of Plane Stress Equations |
| 5.4 Polar Coordinates in Two-Dimensional Problems |
| 5.5 Axisymmetric Plane Problems |
| 5.6 The Semi-Inverse Method |
| Problems |
| 6 TORSION OF CYLINDRICAL BARS |
| 6.1 General Solution of the Problem |
| 6.2 Solutions Derived from Equations of Boundaries |
| 6.3 Membrane (Soap Film) Analogy |
| 6.4 Multiply Connected Cross Sections |
| 6.5 Solution by Means of Separation of Variables |
| Problems |
| 7 ENERGY METHODS |
| 7.1 Introduction |
| 7.2 Strain Energy |
| 7.3 Variable Stress Distribution and Body Forces |
| 7.4 Principle of Virtual Work and the Theorem of Minimum Potential Energy |
| 7.5 Illustrative Problems |
| 7.6 Rayleigh-Ritz Method |
| Problems |
| 8 CARTESIAN TENSOR NOTATION |
| 8.1 Introduction |
| 8.2 Indicial Notation and Vector Transformations |
| 8.3 Higher-Order Tensors |
| 8.4 Gradient of a Vector |
| 8.5 The Kronecker Delta |
| 8.6 Tensor Contraction |
| 8.7 The Alternating Tensor |
| 8.8 The Theorem of Gauss |
| Pro |
| 9 THE STRESS TENSOR |
| 9.1 State of Stress at a Point |
| 9.2 Principal Axes of the Stress Tensor |
| 9.3 Equations of Equilibrium |
| 9.4 The Stress Ellipsoid |
| 9.5 Body Moment and Couple Stress |
| Problems |
| 10 "STRAIN, DISPLACEMENT, AND THE GOVERNING EQUATIONS OF ELASTICITY" |
| 10.1 Introduction |
| 10.2 Displacement and Strain |
| 10.3 Generalized Hooke's Law |
| 10.4 Equations of Compatibility |
| 10.5 Governing Equations in Terms of Displacement |
| 10.6 Strain Energy |
| 10.7 Governing Equations of Elasticity |
| Problems |
| 11 VECTOR AND DYADIC NOTATION IN ELASTICITY |
| 11.1 Introduction |
| 11.2 Review of Basic Notations and Relations in Vector Analysis |
| 11.3 Dyadic Notation |
| 11.4 Vector Representation of Stress on a Plane |
| 11.5 Equations of Transformation of Stress |
| 11.6 Equations of Equilibrium |
| 11.7 Displacement and Strain |
| 11.8 Generalized Hooke's Law and Navier's Equation |
| 11.9 Equations of Compatibility |
| 11.10 Strain Energy |
| 11.12 Governing Equations of Elasticity |
| Problems |
| 12 ORTHOGONAL CURVILINEAR COORDINATES |
| 12.1 Introduction |
| 12.2 Scale Factors |
| 12.3 Derivatives of the Unit Vectors |
| 12.4 Vector Operators |
| 12.5 Dyadic Notation and Dyadic Operators |
| 12.6 Governing Equations of Elasticity in Dyadic Notation |
| 12.7 Summary of Vector and Dyadic Operators in Cylindrical and Spherical Coordinates |
| Problems |
| 13 DISPLACEMENT FUNCTIONS AND STRESS FUNCTIONS |
| 13.1 Introduction |
| 13.2 Displacement Functions |
| 13.3 The Galerkin Vector |
| 13.4 The Solution of Papkovich-Neuber |
| 13.5 Stress Functions |
| Problems |
| References |
| INDEX |