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Well-posedness and Regularity for the Elasticity Equation with Mixed Boundary Conditions on Polyhedral Domains and Domains with Cracks

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Abstract

We prove a regularity result for the anisotropic linear elasticity equation\({P u := {\rm div} \left( \boldmath\mathsf{C} \cdot \nabla u\right) = f}\) , with mixed (displacement and traction) boundary conditions on a curved polyhedral domain \({\Omega \subset \mathbb{R}^3}\) in weighted Sobolev spaces \({\mathcal {K}^{m+1}_{a+1}(\Omega)}\) , for which the weight is given by the distance to the set of edges. In particular, we show that there is no loss of \({\mathcal {K}^{m}_{a}}\) -regularity. Our curved polyhedral domains are allowed to have cracks. We establish a well-posedness result when there are no neighboring traction boundary conditions and |a| < η, for some small η > 0 that depends on P, on the boundary conditions, and on the domain Ω. Our results extend to other strongly elliptic systems and higher dimensions.

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Correspondence to Anna L. Mazzucato.

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Dedicated to Michael E. Taylor on occasion of his sixtieth birthday

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Mazzucato, A.L., Nistor, V. Well-posedness and Regularity for the Elasticity Equation with Mixed Boundary Conditions on Polyhedral Domains and Domains with Cracks. Arch Rational Mech Anal 195, 25–73 (2010). https://doi.org/10.1007/s00205-008-0180-y

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