Physically Based Constitutive Models

Related lectures (32)

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Explains geometrically necessary dislocations in materials and their role in reducing work hardening.

Covers stiffness, strength, strain, stress, and strain measurement in structural mechanics.

Explores lamination, ductility, plastic deformation, and dislocations in materials, emphasizing the effects of strain rate and temperature.

Explores dislocations in crystals, deformation mechanisms, and the effects of obstacles on dislocation movement.

Explores mechanical properties, plastic deformation, dislocations, strengthening mechanisms, and high temperature plasticity in alloys.

Explores the deformation and rupture of materials, including dislocation density, plastic deformation, and stress-strain relationships.

Explores material response to impact and strain hardening, including adiabatic shear bands and their applications.

Explores cyclic deformation, dislocation structures, fatigue resistance, and recrystallization kinetics.

Explores stress, strain, elasticity, plasticity, and material behavior, emphasizing the importance of dislocations and microstructure.

Explores the Generalized Hooke Law, stiffness matrices, and deformation effects in materials.