Nerve-Mimetic Adhesive Hydrogel Electroceuticals: Tailoring In Situ Physically Entangled Domains in Singular Polymers

Nerve-Mimetic Adhesive Hydrogel Electroceuticals: Tailoring In Situ Physically Entangled Domains in Singular Polymers

Implantable electrochemicals stand out as promising candidates for resolving peripheral nerve injuries. However, challenges persist in designing bioelectronic materials that mimic tissue due to modulus matching, conformal adhesion, and immune responses. Herein, we present a nerve-mimicking design ra...

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Bibliographic Details
Main Author: Jaebeom Lee (1443697) (author)
Other Authors: Yeonsun Choi (11927455) (author), Jihyang Song (15197207) (author), Duhwan Seong (6693317) (author), Subin Jin (11766928) (author), Jaewon Ju (12621549) (author), Donghee Son (1579648) (author), Mikyung Shin (2556286) (author)
Published: 2024
Subjects:
Biophysics
Biochemistry
Medicine
Space Science
Biological Sciences not elsewhere classified
Chemical Sciences not elsewhere classified
Physical Sciences not elsewhere classified
varying water affinity
utilizing alginate functionalized
mimicking design rationale
loose polymeric network
exceptional mechanical toughness
enhanced mechanical toughness
efficient stress dissipation
designing bioelectronic materials
conducting polymeric electrodes
improving tissue regeneration
hydrogel substrate features
mimic tissue due
conformal tissue adhesion
conformal adhesion
strong adhesion
hydrogel electroceuticals
biocompatible hydrogel
tethering groups
situ formed
promising candidates
modulus matching
linkable methacrylate
like modulus
immune responses
hierarchical structure
gel film
either photo
challenges persist
based electroceuticals
adhesive phenylborate
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