Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.

Plant hydro-actuated systems provide a rich source of inspiration for designing autonomously morphing devices. One such example, the pentagonal ice plant seed capsule, achieves complex mechanical actuation which is critically dependent on its hierarchical organization. The functional core of this ac...

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Main Authors: Lorenzo Guiducci, Khashayar Razghandi, Luca Bertinetti, Sébastien Turcaud, Markus Rüggeberg, James C Weaver, Peter Fratzl, Ingo Burgert, John W C Dunlop
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2016-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC5091791?pdf=render
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spelling doaj-17bfba4d5ca6414394be37c708fea8452020-11-25T00:40:51ZengPublic Library of Science (PLoS)PLoS ONE1932-62032016-01-011111e016350610.1371/journal.pone.0163506Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.Lorenzo GuiducciKhashayar RazghandiLuca BertinettiSébastien TurcaudMarkus RüggebergJames C WeaverPeter FratzlIngo BurgertJohn W C DunlopPlant hydro-actuated systems provide a rich source of inspiration for designing autonomously morphing devices. One such example, the pentagonal ice plant seed capsule, achieves complex mechanical actuation which is critically dependent on its hierarchical organization. The functional core of this actuation system involves the controlled expansion of a highly swellable cellulosic layer, which is surrounded by a non-swellable honeycomb framework. In this work, we extract the design principles behind the unfolding of the ice plant seed capsules, and use two different approaches to develop autonomously deforming honeycomb devices as a proof of concept. By combining swelling experiments with analytical and finite element modelling, we elucidate the role of each design parameter on the actuation of the prototypes. Through these approaches, we demonstrate potential pathways to design/develop/construct autonomously morphing systems by tailoring and amplifying the initial material's response to external stimuli through simple geometric design of the system at two different length scales.http://europepmc.org/articles/PMC5091791?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Lorenzo Guiducci
Khashayar Razghandi
Luca Bertinetti
Sébastien Turcaud
Markus Rüggeberg
James C Weaver
Peter Fratzl
Ingo Burgert
John W C Dunlop
spellingShingle Lorenzo Guiducci
Khashayar Razghandi
Luca Bertinetti
Sébastien Turcaud
Markus Rüggeberg
James C Weaver
Peter Fratzl
Ingo Burgert
John W C Dunlop
Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.
PLoS ONE
author_facet Lorenzo Guiducci
Khashayar Razghandi
Luca Bertinetti
Sébastien Turcaud
Markus Rüggeberg
James C Weaver
Peter Fratzl
Ingo Burgert
John W C Dunlop
author_sort Lorenzo Guiducci
title Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.
title_short Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.
title_full Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.
title_fullStr Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.
title_full_unstemmed Honeycomb Actuators Inspired by the Unfolding of Ice Plant Seed Capsules.
title_sort honeycomb actuators inspired by the unfolding of ice plant seed capsules.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2016-01-01
description Plant hydro-actuated systems provide a rich source of inspiration for designing autonomously morphing devices. One such example, the pentagonal ice plant seed capsule, achieves complex mechanical actuation which is critically dependent on its hierarchical organization. The functional core of this actuation system involves the controlled expansion of a highly swellable cellulosic layer, which is surrounded by a non-swellable honeycomb framework. In this work, we extract the design principles behind the unfolding of the ice plant seed capsules, and use two different approaches to develop autonomously deforming honeycomb devices as a proof of concept. By combining swelling experiments with analytical and finite element modelling, we elucidate the role of each design parameter on the actuation of the prototypes. Through these approaches, we demonstrate potential pathways to design/develop/construct autonomously morphing systems by tailoring and amplifying the initial material's response to external stimuli through simple geometric design of the system at two different length scales.
url http://europepmc.org/articles/PMC5091791?pdf=render
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