Scaling Laws of Stress and Strain in Brittle Fracture
Bjorn Skjetne, Torbjorn Helle, Alex Hansen
Abstract
A numerical realization of an elastic beam lattice is used to obtain scaling exponents relevant to the extent of damage within the controlled, catastrophic and total regimes of mode-I brittle fracture. The relative fraction of damage at the onset of catastrophic rupture approaches a fixed value in the continuum limit. This enables disorder in a real material to be quantified through its relationship with random samples generated on the computer.
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