NSPCs-ES: mechanisms and functional impact on central nervous system diseases.

Yu Si, Muhammad Abid Hayat, Jiabo Hu
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Abstract

Patients with central neuronal damage may suffer severe consequences, but effective therapies remain unclear. Previous research has established the transplantation of neural stem cells that generate new neurons to replace damaged ones. In a new field of scientific research, the extracellular secretion of NPSCs (NSPCs-ES) has been identified as an alternative to current chemical drugs. Many preclinical studies have shown that NSPCs-ES are effective in models of various central nervous system diseases (CNS) injuries, from maintaining functional structures at the cellular level to providing anti-inflammatory functions at the molecular level, as well as improving memory and motor functions, reducing apoptosis in neurons, and mediating multiple signaling pathways. The NSPC-ES can travel to the damaged tissue and exert a broad range of therapeutic effects by supporting and nourishing damaged neurons. However, gene editing and cell engineering techniques have recently improved therapeutic efficacy by modifying NSPCs-ES. Consequently, future research and application of NSPCs-ES may provide a novel strategy for the treatment of CNS diseases in the future. In this review, we summarize the current progress on these aspects.

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NSPCs-ES:对中枢神经系统疾病的机制和功能影响。
中枢神经元受损的患者可能会遭受严重后果,但有效的治疗方法仍不明确。以往的研究已经确定了移植神经干细胞,以产生新的神经元来替代受损的神经元。在一个新的科学研究领域中,细胞外分泌神经干细胞(NSPCs-ES)被认为是目前化学药物的替代品。许多临床前研究表明,NSPCs-ES 在各种中枢神经系统疾病(CNS)损伤模型中都很有效,包括在细胞水平上维持功能结构,在分子水平上提供抗炎功能,以及改善记忆和运动功能、减少神经元凋亡和介导多种信号通路。NSPC-ES 可以到达受损组织,通过支持和滋养受损神经元发挥广泛的治疗效果。然而,基因编辑和细胞工程技术最近通过改造 NSPC-ES 提高了治疗效果。因此,未来对 NSPCs-ES 的研究和应用可能会为中枢神经系统疾病的治疗提供一种新策略。在本综述中,我们将总结这些方面的最新进展。
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