Electrophoretic Adhesion of Conductive Hydrogels

For the development of next‐generation wearable and implantable devices that connect the human body and machines, the adhesion of a conductive hydrogel is required. In this study, a conductive hydrogel is adhered using an electrophoretic approach through polyion complex formation at the interface of...

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Published in:Macromolecular rapid communications. Vol. 41; no. 12; pp. e2000169 - n/a
Main Authors: Asoh, Taka‐Aki, Nakamura, Megumi, Shoji, Tatsuya, Tsuboi, Yasuyuki, Uyama, Hiroshi
Format: Journal Article
Language:English
Published: Germany Wiley Subscription Services, Inc 01-06-2020
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Abstract For the development of next‐generation wearable and implantable devices that connect the human body and machines, the adhesion of a conductive hydrogel is required. In this study, a conductive hydrogel is adhered using an electrophoretic approach through polyion complex formation at the interface of the hydrogels. Cationic and anionic conductive hydrogels adhere to anionic and cationic hydrogels, respectively. Moreover, the cationic and anionic conductive hydrogels adhere strongly to each other and the adhered conductive hydrogels exhibit conductivity. De‐adhesion is possible by adding a salt and re‐adhesion is demonstrated under aqueous conditions. It is believed that this innovative adhesion strategy for conductive hydrogels will be a fundamental technology for the connecting “soft” people and “hard” machines. Conductive hydrogels can be adhered strongly using an electrophoretic approach through polyion complex formation at the interface of the hydrogels. The adhesive process is reversible, and de‐adhesion is possible by adding a salt and re‐adhesion is demonstrated under aqueous conditions.
AbstractList For the development of next‐generation wearable and implantable devices that connect the human body and machines, the adhesion of a conductive hydrogel is required. In this study, a conductive hydrogel is adhered using an electrophoretic approach through polyion complex formation at the interface of the hydrogels. Cationic and anionic conductive hydrogels adhere to anionic and cationic hydrogels, respectively. Moreover, the cationic and anionic conductive hydrogels adhere strongly to each other and the adhered conductive hydrogels exhibit conductivity. De‐adhesion is possible by adding a salt and re‐adhesion is demonstrated under aqueous conditions. It is believed that this innovative adhesion strategy for conductive hydrogels will be a fundamental technology for the connecting “soft” people and “hard” machines.
For the development of next‐generation wearable and implantable devices that connect the human body and machines, the adhesion of a conductive hydrogel is required. In this study, a conductive hydrogel is adhered using an electrophoretic approach through polyion complex formation at the interface of the hydrogels. Cationic and anionic conductive hydrogels adhere to anionic and cationic hydrogels, respectively. Moreover, the cationic and anionic conductive hydrogels adhere strongly to each other and the adhered conductive hydrogels exhibit conductivity. De‐adhesion is possible by adding a salt and re‐adhesion is demonstrated under aqueous conditions. It is believed that this innovative adhesion strategy for conductive hydrogels will be a fundamental technology for the connecting “soft” people and “hard” machines. Conductive hydrogels can be adhered strongly using an electrophoretic approach through polyion complex formation at the interface of the hydrogels. The adhesive process is reversible, and de‐adhesion is possible by adding a salt and re‐adhesion is demonstrated under aqueous conditions.
Author Asoh, Taka‐Aki
Shoji, Tatsuya
Tsuboi, Yasuyuki
Uyama, Hiroshi
Nakamura, Megumi
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Issue 12
Keywords adhesion
electrophoresis
conductive hydrogels
polyion complexes
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Snippet For the development of next‐generation wearable and implantable devices that connect the human body and machines, the adhesion of a conductive hydrogel is...
For the development of next-generation wearable and implantable devices that connect the human body and machines, the adhesion of a conductive hydrogel is...
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SubjectTerms Adhesion
Cations
Complex formation
conductive hydrogels
Conductivity
Electric Conductivity
Electrophoresis
Humans
Hydrogels
Hydrogels - chemistry
Molecular Structure
polyion complexes
Title Electrophoretic Adhesion of Conductive Hydrogels
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