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1 Fundamental Theory of Stress and Strain
1£®1 Summation convention
1£®1£®1 Free subscript
1£®1£®2 Dumb subscript
1£®1£®3 Differential-form summation convection
1£®2 Stress analysis
1£®2£®1 Concept ofstress
1£®2£®2 Stress state and its description
1£®2£®3 Stress tensor and deviatoric stress tensor
1£®3 Strain analysis
1£®3£®1 Engineering strain and true strain
1£®3£®2 Geometric equation
1£®3£®3 Strain tensor and its decomposition
References

2 Mechanical Equation and Boundary Condition
2£®1 Equilibrium differential equation
2£®2 Deformation compatibility equation
2£®3 Classicalyield criteria
2£®3£®1 Concept of yield criterion
2£®3£®2 Tresca yield criterion
2£®3£®3 Mises yield criterion
2£®3£®4 Geometrical illustration of Tresca and Mises yield criteria
2£®3£®5 Twin shear stress yield criterion
2£®3£®6 Unified yield criterion
2£®4 Constitutive equation
2£®4£®1 Incremental strain theory
2£®4£®2 Total strain theory
2£®4£®3 Equivalent stress and equivalent strain
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3 Analytical Principle of Plastic Mechanics
4 Analytical Methods of Plastic Mechanics
5 Development of Linearly Approximated Yield Criteria Based on Geometrical Parameters
6 Development of Linearly Approximated Yield Criteria Based on Mathematical Average Methods
7 The Linearhation Solution Methods and Their Applications on the Linut Analysis of Pipeline and Sheet
8 Application of the Replace Method of Specific Plastic Work Rate on 2D Metal Forming
9 Analysis of 3D Metal Forming by the Replace Method of Specific Plastic Work Rate