Fracture Mechanics: Crack Growth and Stress Intensity Factor

Related lectures (42)

Covers the analysis of stresses and failures in laminated composites, including the computation of stresses at the ply level.

Discusses stress concentrations, modulus mismatch, and eigenstrains in materials.

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

Explores fracture mechanics, focusing on energy release rate in mixed-mode loading conditions and crack growth directions.

Covers the Classical Laminate Theory for analyzing stresses in composite laminates.

Introduces the theory behind laminates and their applications in different industries.

Explores Greens functions in solid mechanics, emphasizing the solution of point forces and their impact on displacement fields.

Explores real and nominal strain rates, stress, deformation, and force in materials testing.

Explores the Eshelby method for mechanics of inclusions and eigenstrains, focusing on stress and strain fields inside inclusions.

Explores crack-tip energy dissipation, cohesive zone modeling, stress intensity, and small-scale yielding in fracture mechanics.

Explores material properties, stress-strain curves, stress concentration, and failure criteria in structural mechanics.

Covers the fundamentals of spectroscopy, including light sources, sample analysis, and energy levels.

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

Discusses the Taylor-Quinney Experiment, uniaxial loading, torsion, effective stress, and hardening.

Explores the transformation of constraints and deformations in materials, focusing on stress analysis and tensor diagonalization.

Explores mechanical joining techniques through fasteners and integral joints, discussing their advantages, limitations, and specific applications.

Explores stress and strain transformations, main stresses, safety factors, and failure criteria in structural mechanics.

Covers continuum mechanics, linear elasticity, force balance, divergence, finite element discretization, energy minimization, and Newton's method.

Explores EPFL's research in continuum mechanics, covering topics like plasticity, fracture, and fluid-structure interaction.

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