Hydrogel/Elastomer Laminates Bonded via Fabric Interphases for Stimuli-Responsive Actuators

Hubbard, Amber M.; Cui, Wei; Huang, Yiwan; Takahashi, Riku; Dickey, Michael D.; Genzer, Jan; King, Daniel R.; Gong, Jian Ping

Hydrogel/Elastomer Laminates Bonded via Fabric Interphases for Stimuli-Responsive Actuators

Hubbard, Amber M.; Cui, Wei; Huang, Yiwan et al.

Matter, 2019, 1(3), 674-689

Permalink : https://hdl.handle.net/2115/79226

このアイテムのアクセス数:858件（2026-08-20 00:29 集計）

閲覧可能ファイル

ファイル	フォーマット	サイズ	閲覧回数	説明
https://doi.org/10.1016/j.matt.2019.04.008			17

論文情報

ファイル出力 EndNote Basic出力 Mendeley出力

アクセス権	open access
URI	https://hdl.handle.net/2115/79226
タイトル	Hydrogel/Elastomer Laminates Bonded via Fabric Interphases for Stimuli-Responsive Actuators
著者	Hubbard, Amber M. ; Cui, Wei ; Huang, Yiwan ; Takahashi, Riku ; Dickey, Michael D. ; Genzer, Jan ; King, Daniel R. ; Gong, Jian Ping
著者名 Hubbard, Amber M.
著者名 Cui, Wei
著者名 Huang, Yiwan
著者名 Takahashi, Riku
著者名 Dickey, Michael D.
著者名 Genzer, Jan
著者名 King, Daniel R.
e-Rad_Researcher 20250417 著者名 Gong, Jian Ping
言語	英語
発行日	2019-09-04
出版者	Elsevier
収録物名	Matter
巻(号)	1(3)
ページ	674-689
抄録	The human body is composed of composite structures made of water-rich hydrophilic domains and hydrophobic barriers. Combining hydrogels with elastomers results in similar synthetic biomaterials applicable to fields ranging from stretchable electronics to actuators. Here, we report a method to combine hydrogels with elastomers via a glass fiber fabric interphase. The interphase plays two roles: it enables chemically different materials to be robustly bound without chemical treatment while also dramatically improving the mechanical properties of the composite. Maximum interfacial adhesion energies of similar to 1,000 N m(-1) between the hydrogel and fabric and similar to 360 N m(-1) between the elastomer and fabric approach adhesion values of chemically bound soft materials. The composite tearing toughness (143 kJ m(-2)) vastly exceeds that of all neat components. In these materials, Young's modulus is high (similar to 1.2 GPa), while bending modulus is low (similar to 7 MPa), resulting in structures that can serve as actuators through controlled solvent exposure.
資源タイプ	学術雑誌論文
出版タイプ	Version of Record
PISSN	2590-2393
関連情報 (isIdenticalTo)	出版社版DOI https://doi.org/10.1016/j.matt.2019.04.008