Swelling-induced wrinkling in layered gel beams
Gels are widely employed in smart mechanical devices and biomedical applications. Swelling-induced bending actuation can be obtained by means of a simple bilayer gel beam. We show that this system can also exhibit wrinkling patterns of potential interest for structural morphing and sensing. We study...
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Published in | Proceedings of the Royal Society. A, Mathematical, physical, and engineering sciences Vol. 473; no. 2207; p. 20170454 |
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Main Authors | , |
Format | Journal Article |
Language | English |
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England
The Royal Society Publishing
01.11.2017
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Edition | Royal Society (Great Britain) |
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Abstract | Gels are widely employed in smart mechanical devices and biomedical applications. Swelling-induced bending actuation can be obtained by means of a simple bilayer gel beam. We show that this system can also exhibit wrinkling patterns of potential interest for structural morphing and sensing. We study swelling-induced wrinkling at the extrados of a bilayer gel beam with the softer layer on top. The bent configuration at finite strain is recovered first and, starting from it, a linear perturbation analysis is performed. We delimit the zone corresponding to wrinkling modes in a parameter plane encompassing a mechanical stiffness ratio and a geometric top layer to total height ratio. Interestingly, we observe that surface instability precedes and envelopes wrinkling modes of finite wavelength. Finally, we discuss the effect of changes in stiffness and of the Flory–Huggins parameters χ on the size of the wrinkling domain. |
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AbstractList | Gels are widely employed in smart mechanical devices and biomedical applications. Swelling-induced bending actuation can be obtained by means of a simple bilayer gel beam. We show that this system can also exhibit wrinkling patterns of potential interest for structural morphing and sensing. We study swelling-induced wrinkling at the extrados of a bilayer gel beam with the softer layer on top. The bent configuration at finite strain is recovered first and, starting from it, a linear perturbation analysis is performed. We delimit the zone corresponding to wrinkling modes in a parameter plane encompassing a mechanical stiffness ratio and a geometric top layer to total height ratio. Interestingly, we observe that surface instability precedes and envelopes wrinkling modes of finite wavelength. Finally, we discuss the effect of changes in stiffness and of the Flory–Huggins parameters χ on the size of the wrinkling domain. Gels are widely employed in smart mechanical devices and biomedical applications. Swelling-induced bending actuation can be obtained by means of a simple bilayer gel beam. We show that this system can also exhibit wrinkling patterns of potential interest for structural morphing and sensing. We study swelling-induced wrinkling at the extrados of a bilayer gel beam with the softer layer on top. The bent configuration at finite strain is recovered first and, starting from it, a linear perturbation analysis is performed. We delimit the zone corresponding to wrinkling modes in a parameter plane encompassing a mechanical stiffness ratio and a geometric top layer to total height ratio. Interestingly, we observe that surface instability precedes and envelopes wrinkling modes of finite wavelength. Finally, we discuss the effect of changes in stiffness and of the Flory–Huggins parameters χ on the size of the wrinkling domain. Gels are widely employed in smart mechanical devices and biomedical applications. Swelling-induced bending actuation can be obtained by means of a simple bilayer gel beam. We show that this system can also exhibit wrinkling patterns of potential interest for structural morphing and sensing. We study swelling-induced wrinkling at the extrados of a bilayer gel beam with the softer layer on top. The bent configuration at finite strain is recovered first and, starting from it, a linear perturbation analysis is performed. We delimit the zone corresponding to wrinkling modes in a parameter plane encompassing a mechanical stiffness ratio and a geometric top layer to total height ratio. Interestingly, we observe that surface instability precedes and envelopes wrinkling modes of finite wavelength. Finally, we discuss the effect of changes in stiffness and of the Flory-Huggins parameters on the size of the wrinkling domain. Gels are widely employed in smart mechanical devices and biomedical applications. Swelling-induced bending actuation can be obtained by means of a simple bilayer gel beam. We show that this system can also exhibit wrinkling patterns of potential interest for structural morphing and sensing. We study swelling-induced wrinkling at the extrados of a bilayer gel beam with the softer layer on top. The bent configuration at finite strain is recovered first and, starting from it, a linear perturbation analysis is performed. We delimit the zone corresponding to wrinkling modes in a parameter plane encompassing a mechanical stiffness ratio and a geometric top layer to total height ratio. Interestingly, we observe that surface instability precedes and envelopes wrinkling modes of finite wavelength. Finally, we discuss the effect of changes in stiffness and of the Flory-Huggins parameters χ on the size of the wrinkling domain.Gels are widely employed in smart mechanical devices and biomedical applications. Swelling-induced bending actuation can be obtained by means of a simple bilayer gel beam. We show that this system can also exhibit wrinkling patterns of potential interest for structural morphing and sensing. We study swelling-induced wrinkling at the extrados of a bilayer gel beam with the softer layer on top. The bent configuration at finite strain is recovered first and, starting from it, a linear perturbation analysis is performed. We delimit the zone corresponding to wrinkling modes in a parameter plane encompassing a mechanical stiffness ratio and a geometric top layer to total height ratio. Interestingly, we observe that surface instability precedes and envelopes wrinkling modes of finite wavelength. Finally, we discuss the effect of changes in stiffness and of the Flory-Huggins parameters χ on the size of the wrinkling domain. |
Author | Puntel, E. Nardinocchi, P. |
AuthorAffiliation | 1 Dipartimento di Ingegneria Strutturale e Geotecnica , Sapienza Universitá di Roma , via Eudossiana 18, 00184 Roma, Italy 2 Dipartimento Politecnico di Ingegneria e Architettura , Universitá di Udine , via del Cotonificio 114, 33100 Udine, Italy |
AuthorAffiliation_xml | – name: 1 Dipartimento di Ingegneria Strutturale e Geotecnica , Sapienza Universitá di Roma , via Eudossiana 18, 00184 Roma, Italy – name: 2 Dipartimento Politecnico di Ingegneria e Architettura , Universitá di Udine , via del Cotonificio 114, 33100 Udine, Italy |
Author_xml | – sequence: 1 givenname: P. surname: Nardinocchi fullname: Nardinocchi, P. email: paola.nardinocchi@uniroma1.it organization: Dipartimento di Ingegneria Strutturale e Geotecnica, Sapienza Universitá di Roma, via Eudossiana 18, 00184 Roma, Italy – sequence: 2 givenname: E. orcidid: 0000-0003-1348-5046 surname: Puntel fullname: Puntel, E. organization: Dipartimento Politecnico di Ingegneria e Architettura, Universitá di Udine, via del Cotonificio 114, 33100 Udine, Italy |
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Keywords | bilayer beam finite strains surface instability swelling gel wrinkling morphing and sensing |
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SubjectTerms | Actuation Beams (structural) Bending machines Bilayer Beam Biomedical materials Finite Strains Gels Mechanical devices Morphing Morphing And Sensing Perturbation methods Stiffness Strain Surface Instability Surface stability Swelling Swelling Gel Wrinkling |
Title | Swelling-induced wrinkling in layered gel beams |
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