Design and Stability of a family of deployable structures

A large family of deployable filamentary structures can be built by connecting two elastic rods along their length. The resulting structure has interesting shapes that can be stabilized by tuning the material properties of each rod. To model this structure and study its stability, we show that the e...

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Main Authors: Goriely, A, Lessinnes, T
Format: Journal article
Published: Society for Industrial and Applied Mathematics 2016
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author Goriely, A
Lessinnes, T
author_facet Goriely, A
Lessinnes, T
author_sort Goriely, A
collection OXFORD
description A large family of deployable filamentary structures can be built by connecting two elastic rods along their length. The resulting structure has interesting shapes that can be stabilized by tuning the material properties of each rod. To model this structure and study its stability, we show that the equilibrium equations describing unloaded states can be derived from a variational principle. We then use a novel geometric method to study the stability of the resulting equilibria. As an example we apply the theory to establish the stability of all possible equilibria of the Bristol ladder.
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spelling oxford-uuid:446ebf0f-0315-4fea-a34a-849edccee31d2022-03-26T15:01:27ZDesign and Stability of a family of deployable structuresJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:446ebf0f-0315-4fea-a34a-849edccee31dSymplectic Elements at OxfordSociety for Industrial and Applied Mathematics2016Goriely, ALessinnes, TA large family of deployable filamentary structures can be built by connecting two elastic rods along their length. The resulting structure has interesting shapes that can be stabilized by tuning the material properties of each rod. To model this structure and study its stability, we show that the equilibrium equations describing unloaded states can be derived from a variational principle. We then use a novel geometric method to study the stability of the resulting equilibria. As an example we apply the theory to establish the stability of all possible equilibria of the Bristol ladder.
spellingShingle Goriely, A
Lessinnes, T
Design and Stability of a family of deployable structures
title Design and Stability of a family of deployable structures
title_full Design and Stability of a family of deployable structures
title_fullStr Design and Stability of a family of deployable structures
title_full_unstemmed Design and Stability of a family of deployable structures
title_short Design and Stability of a family of deployable structures
title_sort design and stability of a family of deployable structures
work_keys_str_mv AT gorielya designandstabilityofafamilyofdeployablestructures
AT lessinnest designandstabilityofafamilyofdeployablestructures