An electroactive alginate hydrogel nanocomposite reinforced by functionalized graphite nanofilaments for neural tissue engineering

•Alginate reinforced by citric acid functionalized graphite nanofilaments.•The green, simple functionalization enhances the nanofillers’ biocompatibility.•The nanofilaments enable intercellular signaling and stimulate their biological activity.•In vitro studies proved; the PC12 cells proliferate and...

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Veröffentlicht in:Carbohydrate polymers 2019-11, Vol.224, p.115112-115112, Article 115112
Hauptverfasser: Homaeigohar, Shahin, Tsai, Ting-Yu, Young, Tai-Hong, Yang, Hsin Ju, Ji, You-Ren
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container_end_page 115112
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container_start_page 115112
container_title Carbohydrate polymers
container_volume 224
creator Homaeigohar, Shahin
Tsai, Ting-Yu
Young, Tai-Hong
Yang, Hsin Ju
Ji, You-Ren
description •Alginate reinforced by citric acid functionalized graphite nanofilaments.•The green, simple functionalization enhances the nanofillers’ biocompatibility.•The nanofilaments enable intercellular signaling and stimulate their biological activity.•In vitro studies proved; the PC12 cells proliferate and spread on the nanocomposite.•In vivo tests showed no adverse reaction and no inflammatory responses after 14 days. To address the need to biodegradable, electroactive conduits accelerating nerve regeneration, here we develop a nanocomposite hydrogel made of alginate reinforced by citric acid functionalized graphite nanofilaments. The green, simple functionalization enhances the nanofillers distribution and their biocompatibility, as verified using mesenchymal stem cells in vitro. The uniformly distributed nanofilaments raise mechanical stability of the nanocomposite hydrogel versus the neat one up to three times. Also, the nanofilaments enable electrical contact and intercellular signaling thereby stimulating their biological activity. In vitro studies proved the biocompatibility of the nanocomposite hydrogel whereon PC12 cells proliferate and spread evidently. In vivo tests also supported applicability of the nanocomposite hydrogel for implantation within body, and the samples showed no adverse reaction and no inflammatory responses after 14 days. Conclusively, the results certify that the developed electroactive nanocomposite hydrogel is able to stimulate nerve generation and could be confidently used as a nerve conduit material.
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To address the need to biodegradable, electroactive conduits accelerating nerve regeneration, here we develop a nanocomposite hydrogel made of alginate reinforced by citric acid functionalized graphite nanofilaments. The green, simple functionalization enhances the nanofillers distribution and their biocompatibility, as verified using mesenchymal stem cells in vitro. The uniformly distributed nanofilaments raise mechanical stability of the nanocomposite hydrogel versus the neat one up to three times. Also, the nanofilaments enable electrical contact and intercellular signaling thereby stimulating their biological activity. In vitro studies proved the biocompatibility of the nanocomposite hydrogel whereon PC12 cells proliferate and spread evidently. In vivo tests also supported applicability of the nanocomposite hydrogel for implantation within body, and the samples showed no adverse reaction and no inflammatory responses after 14 days. 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To address the need to biodegradable, electroactive conduits accelerating nerve regeneration, here we develop a nanocomposite hydrogel made of alginate reinforced by citric acid functionalized graphite nanofilaments. The green, simple functionalization enhances the nanofillers distribution and their biocompatibility, as verified using mesenchymal stem cells in vitro. The uniformly distributed nanofilaments raise mechanical stability of the nanocomposite hydrogel versus the neat one up to three times. Also, the nanofilaments enable electrical contact and intercellular signaling thereby stimulating their biological activity. In vitro studies proved the biocompatibility of the nanocomposite hydrogel whereon PC12 cells proliferate and spread evidently. In vivo tests also supported applicability of the nanocomposite hydrogel for implantation within body, and the samples showed no adverse reaction and no inflammatory responses after 14 days. 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To address the need to biodegradable, electroactive conduits accelerating nerve regeneration, here we develop a nanocomposite hydrogel made of alginate reinforced by citric acid functionalized graphite nanofilaments. The green, simple functionalization enhances the nanofillers distribution and their biocompatibility, as verified using mesenchymal stem cells in vitro. The uniformly distributed nanofilaments raise mechanical stability of the nanocomposite hydrogel versus the neat one up to three times. Also, the nanofilaments enable electrical contact and intercellular signaling thereby stimulating their biological activity. In vitro studies proved the biocompatibility of the nanocomposite hydrogel whereon PC12 cells proliferate and spread evidently. In vivo tests also supported applicability of the nanocomposite hydrogel for implantation within body, and the samples showed no adverse reaction and no inflammatory responses after 14 days. 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subjects Alginates - chemistry
Animals
Biocompatible Materials - chemistry
Biocompatible Materials - pharmacology
Cell Differentiation - drug effects
Citric Acid - chemistry
Electric Conductivity
Electroactivity
Graphite
Graphite - chemistry
Guinea Pigs
Hydrogel
Hydrogels - chemistry
Mechanical Phenomena
Nanocomposites - chemistry
Nanofibers - chemistry
Nerve
Nerve Regeneration - drug effects
Nerve Tissue - cytology
Nerve Tissue - drug effects
PC12 Cells
Rats
Tissue Engineering
title An electroactive alginate hydrogel nanocomposite reinforced by functionalized graphite nanofilaments for neural tissue engineering
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