Piezo-Nanowired Stem Cells: Ultrasound-Powered Neuronal Commitment for Rapid Neural Circuit Reconstruction after Traumatic Brain Injury

The inherently constrained regenerative capacity of neuronal tissue poses a major obstacle to repairing traumatic brain injury. While neural stem cell transplantation holds promise, its efficacy is constrained by slow and inefficient neuronal differentiation. Here, we engineered piezo-nanowired stem...

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1. autor:	Keyi Li (3133749) (author)
Kolejni autorzy:	Wenhan Wang (1675477) (author), Wenjun Ma (151952) (author), Yiwei Li (15334) (author), Jiahao Zhang (4859203) (author), Ailing Yin (585941) (author), Liang Wang (23021) (author), Boyan Li (1635697) (author), Qingtong Wang (11813252) (author), Gang Li (34549) (author), Hong Liu (50694) (author), Jichuan Qiu (1999660) (author)
Wydane:	2025
Hasła przedmiotowe:	Biophysics Medicine Cell Biology Neuroscience Biotechnology Developmental Biology Space Science reconstructing neural networks powered piezoelectrical stimulation powered neuronal commitment neuronal tissue poses nanowired stem cells mature neuron ratio inefficient neuronal differentiation drive neuronal differentiation traumatic brain injury injury site work provides restoring motor promising approach precise neuromodulation neurological regeneration major obstacle functional neurons cognitive functions cell membranes bound receptors 7 %, 5 days
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Piezo-Nanowired Stem Cells: Ultrasound-Powered Neuronal Commitment for Rapid Neural Circuit Reconstruction after Traumatic Brain Injury

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