Equilibrium and absolute minimal solutions of brittle fracture models based on energy-minimization methods
Marius Buliga
Abstract
Marius Buliga
Abstract
By a combination of geometrical and configurational analysis we study the properties of absolute minimal and equilibrium states of general Mumford-Shah functionals, with applications to models of quasistatic brittle fracture propagation. The main results concern the mathematical relations between physical quantities as energy release rate and energy concentration for 3D cracks with complex shapes, seen as outer measures living on the crack edge.
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By a combination of geometrical and configurational analysis we study the properties of absolute minimal and equilibrium states of general Mumford-Shah functionals, with applications to models of quasistatic brittle fracture propagation. The main results concern the mathematical relations between physical quantities as energy release rate and energy concentration for 3D cracks with complex shapes, seen as outer measures living on the crack edge.
Key concepts: Quasistatic process, Brittle fracture, Brittleness, Minification, Fracture (geology), Enhanced Data Rates for GSM Evolution, Energy minimization, Energy (signal processing)