Useful Links
Engineering
Mechanical Engineering
Solid Mechanics
1. Introduction to Solid Mechanics
2. Stress Analysis
3. Strain Analysis
4. Material Properties and Behavior
5. Axially Loaded Members
6. Torsion of Shafts
7. Beam Bending Theory
8. Transverse Shear in Beams
9. Combined Loading Analysis
10. Stress and Strain Transformation
11. Beam and Shaft Design
12. Deflection Analysis
13. Column Stability and Buckling
14. Energy Methods in Mechanics
15. Failure Theories and Design
Failure Theories and Design
Failure Criteria for Ductile Materials
Maximum Shear Stress Theory
Tresca Criterion
Yield Surface
Maximum Distortion Energy Theory
von Mises Criterion
Equivalent Stress
Comparison of Theories
Failure Criteria for Brittle Materials
Maximum Normal Stress Theory
Rankine Criterion
Applications and Limitations
Maximum Strain Theory
Saint-Venant Criterion
Mohr's Theory
Mohr-Coulomb Criterion
Internal Friction Angle
Fatigue Failure
High-Cycle Fatigue
Low-Cycle Fatigue
S-N Curves
Endurance Limit
Mean Stress Effects
Cumulative Damage
Fracture Mechanics
Linear Elastic Fracture Mechanics
Stress Intensity Factor
Crack Growth
Fatigue Crack Propagation
Design Applications
Factor of Safety Selection
Reliability-Based Design
Probabilistic Methods
Design Optimization
Previous
14. Energy Methods in Mechanics
Go to top
Back to Start
1. Introduction to Solid Mechanics