Designing Origami-Adapted Deployable Modules for Soft Continuum Arms

Origami has several attractive attributes including deployability and portability which have been extensively adapted in designs of robotic devices. Drawing inspiration from foldable origami structures, this paper presents an engineering design process for fast making deployable modules of soft cont...

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Bibliographic Details
Published inTowards Autonomous Robotic Systems pp. 138 - 147
Main Authors Zhang, Ketao, Althoefer, Kaspar
Format Book Chapter
LanguageEnglish
Published Cham Springer International Publishing 2019
SeriesLecture Notes in Computer Science
Subjects
Online AccessGet full text
ISBN9783030238063
3030238067
ISSN0302-9743
1611-3349
DOI10.1007/978-3-030-23807-0_12

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Summary:Origami has several attractive attributes including deployability and portability which have been extensively adapted in designs of robotic devices. Drawing inspiration from foldable origami structures, this paper presents an engineering design process for fast making deployable modules of soft continuum arms. The process is illustrated with an example which adapts a modified accordion fold pattern to a lightweight deployable module. Kinematic models of the four-sided Accordion fold pattern is explored in terms of mechanism theory. Taking account of both the kinematic model and the materials selection, a 2D flat sheet model of the four-sided Accordion fold pattern is obtained for 3D printing. Following the design process, the deployable module is then fabricated by laminating 3D printed origami skeleton and flexible thermoplastic polyurethane (TPU) coated fabric. Preliminary tests of the prototype shown that the folding motion are enabled mainly by the flexible fabric between the gaps of thick panels of the origami skeleton and matches the kinematic analysis. The proposed approach has advantages of quick scaling dimensions, cost effective and fast fabricating thus allowing adaptive design according to specific demands of various tasks.
Bibliography:This work was partially supported by research awards from the Engineering and Physical Sciences Research Council (EPSRC) under grant agreements EP/R02572X/1.
ISBN:9783030238063
3030238067
ISSN:0302-9743
1611-3349
DOI:10.1007/978-3-030-23807-0_12