Perspectives on the Novel Multifunctional Nerve Guidance conduits: From Specific Regenerative Procedures to Motor Function Rebuilding.
Weixian ZhouMuhammad Saif Ur RahmanChengmei SunShilin LiNuozi ZhangHao ChenCharles C HanShanshan XuYing LiuPublished in: Advanced materials (Deerfield Beach, Fla.) (2023)
Peripheral nerve injury potentially destroys the quality of life by inducing functional movement disorders and sensory capacity loss, which results in severe disability and substantial psychological, social, and financial burdens. Autologous nerve grafting has been commonly used as treatment in the clinic; however, its rare donor availability limits its application. A series of artificial nerve guidance conduits (NGC) with advanced architectures have also been proposed to promote injured peripheral nerve regeneration, which is a complicated process from axon sprouting to targeted muscle reinnervation. Therefore, exploring the interactions between sophisticated NGC complexes and versatile cells during each process including axon sprouting, Schwann cell dedifferentiation, nerve myelination, and muscle reinnervation is necessary. This review highlights the contribution of functional NGCs and the influence of microscale biomaterial architecture on biological processes of nerve repair. Progressive NGCs with chemical molecule induction, heterogeneous topographical morphology, electroactive, anisotropic assembly microstructure, and self-powered electroactive and magnetic-sensitive NGCs were also collected, and they are expected to be pioneering features in future multifunctional and effective NGCs. This article is protected by copyright. All rights reserved.
Keyphrases
- peripheral nerve
- stem cells
- cell therapy
- multiple sclerosis
- drug delivery
- cancer therapy
- healthcare
- skeletal muscle
- induced apoptosis
- mesenchymal stem cells
- white matter
- mental health
- single cell
- current status
- cell proliferation
- high resolution
- young adults
- drug induced
- liquid chromatography
- smoking cessation
- solid phase extraction
- tandem mass spectrometry