自愈水凝胶
纳米纤维素
生物电子学
材料科学
纳米技术
组织工程
化学工程
纤维素
工程类
生物医学工程
高分子化学
生物传感器
作者
Pejman Heidarian,Abbas Z. Kouzani,Akif Kaynak,Mariana Paulino,Bijan Nasri‐Nasrabadi,Ali Zolfagharian,Russell J. Varley
标识
DOI:10.1016/j.carbpol.2019.115743
摘要
Plant-derived polysaccharides are widely used to fabricate hydrogels because of their ease of gelation and functionalization, plus exceptional biological properties. As an example, nanocellulose is a suitable candidate to fabricate hydrogels for tissue engineering applications due to its enhanced mechanical and biological properties. However, hydrogels are prone to permanent failure whilst under load without the ability to reform their networks once damaged. Recently, considerable efforts are being made to fabricate dynamic hydrogels via installation of reversible crosslinks within their networks. In this paper, we review the developments in the design of dynamic hydrogels from plant-derived polysaccharides, and discuss their applications in tissue engineering, sensors, bioelectronics devices, etc. The main goal of the paper is to elucidate how the network design of hydrogels can influence their dynamic properties: self-healing and self-recovery. Complementary to this, current challenges and prospects of dynamic plant-derived hydrogels are discussed.
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