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Hauptverfasser: Machill, Lennart, Rüland, Angkana
Format: Preprint
Veröffentlicht: 2025
Schlagworte:
Online-Zugang:https://arxiv.org/abs/2511.11102
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author Machill, Lennart
Rüland, Angkana
author_facet Machill, Lennart
Rüland, Angkana
contents We investigate the scaling behaviour of a singular perturbation model within the geometrically linearized theory of elasticity involving data of higher lamination order. We study boundary data which are of staircase type and show rather general lower scaling bounds, both in the setting of prescribed Dirichlet data and for periodic configurations with a mean value constraint. In contrast to the setting without gauge invariances, these lower scaling bounds depend on \emph{two} parameters -- the order of lamination of the boundary data as well as the number of involved (non-)degenerate symmetrized rank-one directions. By discussing upper bounds in specific geometries and for a specific constellation of wells, we give evidence of the sharpness of these lower bound estimates. Hence, it is necessary to keep track of the outlined \emph{two} parameters in deducing scaling laws within the geometrically linearized theory of elasticity.
format Preprint
id arxiv_https___arxiv_org_abs_2511_11102
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle The energy scaling behaviour of singular perturbation models of staircase type in linearized elasticity for higher order laminates
Machill, Lennart
Rüland, Angkana
Analysis of PDEs
We investigate the scaling behaviour of a singular perturbation model within the geometrically linearized theory of elasticity involving data of higher lamination order. We study boundary data which are of staircase type and show rather general lower scaling bounds, both in the setting of prescribed Dirichlet data and for periodic configurations with a mean value constraint. In contrast to the setting without gauge invariances, these lower scaling bounds depend on \emph{two} parameters -- the order of lamination of the boundary data as well as the number of involved (non-)degenerate symmetrized rank-one directions. By discussing upper bounds in specific geometries and for a specific constellation of wells, we give evidence of the sharpness of these lower bound estimates. Hence, it is necessary to keep track of the outlined \emph{two} parameters in deducing scaling laws within the geometrically linearized theory of elasticity.
title The energy scaling behaviour of singular perturbation models of staircase type in linearized elasticity for higher order laminates
topic Analysis of PDEs
url https://arxiv.org/abs/2511.11102