创伤性脑损伤
神经科学
神经干细胞
神经炎症
谷氨酸的
重编程
神经保护
神经突
小胶质细胞
材料科学
脑刺激
免疫系统
神经发生
加巴能
干细胞
刺激
谷氨酸受体
医学
干细胞疗法
经颅直流电刺激
诱导多能干细胞
生物
再生医学
作者
Linlin Liang,Xin Li,Kai Hu,Pingqiang Cai,Jianwu Wang,Jing Yu,Shasha Wang,Yuwei Zhao,Changgeng Xu,Siwei Li,Hong Liu,Changyong Wang,Jin Zhou
标识
DOI:10.1002/adma.202512810
摘要
Secondary traumatic brain injury (TBI) induces a pro-inflammatory microenvironment that hampers neural stem cells (NSCs) therapy and tissue regeneration. To address this challenge, an immuno-piezoelectric transducer have been developed to create an anti-inflammatory immune microenvironment, deliver wireless electrical stimulation, and facilitate multimodal NSCs therapy. The immuno-piezoelectric transducer drives the polarization of microglia towards the anti-inflammatory M2 phenotype and secretion of anti-inflammatory cytokines. This modulation significantly reduces the inflammatory response, creating an optimal microenvironment for NSCs survival. Furthermore, the wireless electrical stimulation generated by ultrasound facilitates NSCs differentiation into glutamatergic and GABAergic neurons, enhances neurite complexity, upregulates synaptic proteins expression and neural integration in injured regions. The multimodal therapy demonstrates superior outcomes in restoring structural integrity, improving functional, and enhancing behavioral action in TBI rat models. This study integrates piezoelectric with immunomodulation to reprogram the neuroimmune microenvironment, providing novel therapeutic paradigm for brain injury repair.
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