Fatigue Phenomenon: Material Level

Related lectures (30)

Page 3 of 3

Explores fracture, toughness, and crack propagation in materials, emphasizing surface energy and material resistance.

Covers shock waves, brittle material response, phase transformation, and Hugoniot relationships in materials under stress.

Covers the theory of elasticity, internal equilibrium, stress, and strain in deformable solid bodies.

Explores the behavior of orthotropic composites under plane stresses and the elasticity of anisotropic materials.

Covers the basics of fracture mechanics, including fracture energy, stress intensity factor, and crack propagation analysis.

Covers crack growth conditions, stress field analysis, crack solutions, modulus effects, and crack-tip energy dissipation.

Covers fracture mechanics, stress intensity factor, rubber testing, and high-speed testing in materials.

Introduces internal stress and strain, material properties, and design considerations for axial loads and direct shear.

Explores the mechanics of dislocations in materials, including their movement, interaction, and impact on material properties.

Covers the fundamentals of solid mechanics and modeling techniques for stress analysis.