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A force balance condition to predict quasistatic crack paths in anisotropicbrittle materials is derived from an analysis of diffuse interface continuummodels that describe both short-scale failure inside a microscopic process zoneand macroscopic linear elasticity. The derivation exploits the gradientdynamics and translation symmetry properties of this class of models to definea generalized energy-momentum tensor whose integral around an arbitrary closedpath enclosing the crack tip yields all forces acting on this tip, includingEshelby's configurational forces, cohesive forces, and dissipative forces. Thiscondition is validated quantitatively by numerical simulations

Crack Path Prediction in Anisotropic Brittle Materials