journal article·2019-08Open access

A Design Principle for Actuation of Nematic Glass Sheets

Amit Acharya

Journal of Elasticity· Volume 136· Issue 2

Abstract

A continuum mechanical framework is developed for determining (a) the class of stress-free deformed shapes and corresponding director distributions on the undeformed configuration of a nematic glass membrane that has a prescribed spontaneous stretch field and (b) the class of undeformed configurations and corresponding director distributions on it resulting in a stress-free given deformed shape of a nematic glass sheet with a prescribed spontaneous stretch field. The proposed solution rests on an understanding of how the Lagrangian dyad of a deformation of a membrane maps into the Eulerian dyad in three dimensional ambient space. Interesting connections between these practical questions of design and the mathematical theory of isometric embeddings of manifolds, deformations between two prescribed Riemannian manifolds, and the slip-line theory of plasticity are pointed out.
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Research context

OpenAlex topics: Advanced Materials and Mechanics · Liquid Crystal Research Advancements · Structural Analysis and Optimization

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