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Your search keyword '"Tu, Yingfeng"' showing total 7 results
Start Over Author "Tu, Yingfeng" Journal advanced functional materials
7 results on '"Tu, Yingfeng"'

1. Minimally Invasive Therapy: Hydrogen‐Powered Microswimmers for Precise and Active Hydrogen Therapy Towards Acute Ischemic Stroke (Adv. Funct. Mater. 19/2021)

Author

Wang, Shuanghu, primary, Liu, Kun, additional, Zhou, Quan, additional, Xu, Cong, additional, Gao, Junbin, additional, Wang, Zhen, additional, Wang, Fei, additional, Chen, Bin, additional, Ye, Yicheng, additional, Ou, Juanfeng, additional, Jiang, Jiamiao, additional, Wilson, Daniela A., additional, Liu, Shuwen, additional, Peng, Fei, additional, and Tu, Yingfeng, additional

Published
2021
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3. Hydrogen‐Powered Microswimmers for Precise and Active Hydrogen Therapy Towards Acute Ischemic Stroke

Author

Wang, Shuanghu, primary, Liu, Kun, additional, Zhou, Quan, additional, Xu, Cong, additional, Gao, Junbin, additional, Wang, Zhen, additional, Wang, Fei, additional, Chen, Bin, additional, Ye, Yicheng, additional, Ou, Juanfeng, additional, Jiang, Jiamiao, additional, Wilson, Daniela A., additional, Liu, Shuwen, additional, Peng, Fei, additional, and Tu, Yingfeng, additional

Published
2021
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6. Photoelectrochemical TiO2‐Au‐Nanowire‐Based Motor for Precise Modulation of Single‐Neuron Activities.

Author

Chen, Bin, Liu, Lu, Liu, Kun, Tong, Fei, Wang, Shuanghu, Fu, Dongmei, Gao, Junbin, Jiang, Jiamiao, Ou, Juanfeng, Ye, Yicheng, Wilson, Daniela A., Tu, Yingfeng, and Peng, Fei

Subjects
RETINAL ganglion cells, ELECTRIC fields, BRAIN-computer interfaces, ION channels, CALCIUM ions
Abstract

Micro/nanomotors are revolutionary miniaturized robotic systems capable of converting diverse energy sources, including light, ultrasound, and thermal heat, into mechanical motion. This fascinating research area is emerging and developing at a rapid pace, demonstrating potential in multiple fields. While their locomotion and momentum capabilities have been explored in medical treatments, including microsurgery and diagnosis, the aspect of converting their intrinsic energies into usable forms remains unexplored. Here, we proposed a novel motor based on composite TiO2‐Au nanowires (NWs), powered by a local electric field generated from ultra‐low ultraviolet (UV) irradiation, to serve as an interactive bioelectric interface with a neural cell. Under a light field, the NW motor achieved highly controllable motion in biological environments and reached the targeted neuronal retinal ganglion cells (RGCs) with notable precision. Next, the locally generated electric field was utilized as an electrical stimulus to activate the targeted cell through the calcium ion channel. This is the first study to report on the photoelectric conversion capabilities of a motor being used to provide propulsion force and interactive cues in a biosystem. This motor‐based strategy represents a new approach for the precise and non‐invasive delivery of bioelectrical signals and neuronal activity modulation. [ABSTRACT FROM AUTHOR]

Published
2021
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