Ricks Christian B, Shin Samuel S, Becker Christopher, Grandhi Ramesh
Department of Neurological Surgery, University of Pittsburgh Medical Center, Pittsburgh, PA, USA.
University of Pittsburgh School of Medicine, Pittsburgh, PA, USA.
Neural Regen Res. 2014 Sep 1;9(17):1573-7. doi: 10.4103/1673-5374.141778.
Over last 20 years, extracellular matrices have been shown to be useful in promoting tissue regeneration. Recently, they have been used and have had success in achieving neurogenesis. Recent developments in extracellular matrix design have allowed their successful in vivo incorporation to engender an environment favorable for neural regeneration in animal models. Promising treatments under investigation include manipulation of the intrinsic extracellular matrix and incorporation of engineered naometer-sized scaffolds through which inhibition of molecules serving as barriers to neuroregeneration and delivery of neurotrophic factors and/or cells for successful tissue regeneration can be achieved. Further understanding of the changes incurred within the extracellular matrix following central nervous system injury will undoubtedly help design a clinically efficacious extracellular matrix scaffold that can mitigate or reverse neural degeneration in the clinical setting.
在过去20年中,细胞外基质已被证明有助于促进组织再生。最近,它们已被用于神经发生并取得了成功。细胞外基质设计的最新进展使其能够成功地在体内整合,从而在动物模型中营造有利于神经再生的环境。正在研究的有前景的治疗方法包括操纵内在的细胞外基质以及纳入工程化的纳米级支架,通过这些方法可以实现对作为神经再生障碍的分子的抑制,并递送神经营养因子和/或细胞以实现成功的组织再生。进一步了解中枢神经系统损伤后细胞外基质内发生的变化无疑将有助于设计一种临床上有效的细胞外基质支架,该支架可以在临床环境中减轻或逆转神经退行性变。