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Programmable stiffness and shape modulation in origami materials: emergence of a distant actuation feature

Programmable stiffness and shape modulation in origami materials: emergence of a distant actuation feature
Programmable stiffness and shape modulation in origami materials: emergence of a distant actuation feature

This paper develops an origami based mechanical metamaterial with programmable deformation-dependent stiffness and shape modulation, leading to the realization of a distant actuation feature. Through computational and experimental analyses, we have uncovered that a waterbomb based tubular metamaterial can undergo mixed mode of deformations involving both rigid origami motion and structural deformation. Besides the capability of achieving a near-zero stiffness, a contact phase is identified that initiates a substantial increase in the stiffness with programmable features during deformation of the metamaterial. Initiation of the contact phase as a function of the applied global load can be designed based on the microstructural geometry of the waterbomb bases and their assembly. The tubular metamaterial can exhibit a unique deformation dependent spatially varying mixed mode Poisson's ratio, which is achievable from a uniform initial configuration of the metamaterial. The spatial profile of the metamaterial can be modulated as a function of the applied far-field global force, and the configuration and assembly of the waterbomb bases. This creates a new possibility of developing a distant actuation feature in the metamaterial enabling us to achieve controlled local actuation through the application of a single far-field force. The distant actuation feature eliminates the need of installing embedded complex network of sensors, actuators and controllers in the material. The fundamental programmable features of the origami metamaterial unravelled in this paper can find wide range of applications in soft robotics, aerospace, biomedical devices and various other advanced physical systems.

Distant actuation, Extreme stiffness modulation, Microstructure-dependent shape modulation, Programmable mechanical metamaterial, Waterbomb origami
2352-9407
Mukhopadhyay, Tanmoy
2ae18ab0-7477-40ac-ae22-76face7be475
Ma, Jiayao
d35b5c96-7f1e-4c51-a074-f49ddd4eb6c7
Feng, Huijuan
6bf97a41-8a5e-47b5-a9a7-abc8b7915022
Hou, Degao
5133674d-0963-4c3b-a573-132027b413f8
Gattas, Joseph M.
beefad88-9393-4e5c-9d1e-d82ee56685e9
Chen, Yan
9b95d4a1-4c98-48fc-baf5-ff755de00f1d
You, Zhong
b74cba9e-da3d-4b32-8019-ef4658a90d58
Mukhopadhyay, Tanmoy
2ae18ab0-7477-40ac-ae22-76face7be475
Ma, Jiayao
d35b5c96-7f1e-4c51-a074-f49ddd4eb6c7
Feng, Huijuan
6bf97a41-8a5e-47b5-a9a7-abc8b7915022
Hou, Degao
5133674d-0963-4c3b-a573-132027b413f8
Gattas, Joseph M.
beefad88-9393-4e5c-9d1e-d82ee56685e9
Chen, Yan
9b95d4a1-4c98-48fc-baf5-ff755de00f1d
You, Zhong
b74cba9e-da3d-4b32-8019-ef4658a90d58

Mukhopadhyay, Tanmoy, Ma, Jiayao, Feng, Huijuan, Hou, Degao, Gattas, Joseph M., Chen, Yan and You, Zhong (2020) Programmable stiffness and shape modulation in origami materials: emergence of a distant actuation feature. Applied Materials Today, 19, [100537]. (doi:10.1016/j.apmt.2019.100537).

Record type: Article

Abstract

This paper develops an origami based mechanical metamaterial with programmable deformation-dependent stiffness and shape modulation, leading to the realization of a distant actuation feature. Through computational and experimental analyses, we have uncovered that a waterbomb based tubular metamaterial can undergo mixed mode of deformations involving both rigid origami motion and structural deformation. Besides the capability of achieving a near-zero stiffness, a contact phase is identified that initiates a substantial increase in the stiffness with programmable features during deformation of the metamaterial. Initiation of the contact phase as a function of the applied global load can be designed based on the microstructural geometry of the waterbomb bases and their assembly. The tubular metamaterial can exhibit a unique deformation dependent spatially varying mixed mode Poisson's ratio, which is achievable from a uniform initial configuration of the metamaterial. The spatial profile of the metamaterial can be modulated as a function of the applied far-field global force, and the configuration and assembly of the waterbomb bases. This creates a new possibility of developing a distant actuation feature in the metamaterial enabling us to achieve controlled local actuation through the application of a single far-field force. The distant actuation feature eliminates the need of installing embedded complex network of sensors, actuators and controllers in the material. The fundamental programmable features of the origami metamaterial unravelled in this paper can find wide range of applications in soft robotics, aerospace, biomedical devices and various other advanced physical systems.

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More information

Published date: June 2020
Additional Information: Funding Information: T. M. and Z. Y. acknowledges the support of the Air Force Office of Scientific Research ( FA9550-16-1-0339 ), Y. C. acknowledges the support of the National Natural Science Foundation of China (Projects 51825503 and 51721003), and J. M. acknowledges the support of the National Natural Science Foundation of China (Project 51575377). Appendix A Publisher Copyright: © 2019 Elsevier Ltd
Keywords: Distant actuation, Extreme stiffness modulation, Microstructure-dependent shape modulation, Programmable mechanical metamaterial, Waterbomb origami

Identifiers

Local EPrints ID: 483577
URI: http://eprints.soton.ac.uk/id/eprint/483577
ISSN: 2352-9407
PURE UUID: d7e6cbc9-29b7-4fb8-8552-5daf65b7f1a0
ORCID for Tanmoy Mukhopadhyay: ORCID iD orcid.org/0000-0002-0778-6515

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Date deposited: 01 Nov 2023 18:03
Last modified: 18 Mar 2024 04:10

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Contributors

Author: Tanmoy Mukhopadhyay ORCID iD
Author: Jiayao Ma
Author: Huijuan Feng
Author: Degao Hou
Author: Joseph M. Gattas
Author: Yan Chen
Author: Zhong You

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