On Scaling Laws for Multi-Well Nucleation Problems without Gauge Invariances

Abstract

In this article we study scaling laws for simplified multi-well nucleation problems without gauge invariances which are motivated by models for shape-memory alloys. Seeking to explore the role of the order of lamination on the energy scaling for nucleation processes, we provide scaling laws for various model problems in two and three dimensions. In particular, we discuss (optimal) scaling results in the volume and the singular perturbation parameter for settings in which the surrounding parent phase is in the first, the second and the third order lamination convex hull of the wells of the nucleating phase. Furthermore, we provide a corresponding result for the setting of an infinite order laminate which arises in the context of the Tartar square. In particular, our results provide isoperimetric estimates in situations in which strong nonlocal anisotropies are present.

26 pages, 5 figures, comments welcome

References in corpus (2)

• On the Energy Scaling Behaviour of a Singularly Perturbed Tartar Square
• Minimal Energy for Geometrically Nonlinear Elastic Inclusions in Two Dimensions

Cited by in corpus (4)

• On Scaling Properties for Two-State Problems and for a Singularly Perturbed $T_3$ Structure
• On Scaling Properties for a Class of Two-Well Problems for Higher Order Homogeneous Linear Differential Operators
• Minimal Energy for Geometrically Nonlinear Elastic Inclusions in Two Dimensions
• On the Scaling of the Cubic-to-Tetragonal Phase Transformation with Displacement Boundary Conditions