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用于神经元研究的表面等离子体激元传感、成像和刺激技术。

Plasmonic sensing, imaging, and stimulation techniques for neuron studies.

作者信息

Ahn Heesang, Kim Soojung, Kim Yoonhee, Kim Seungchul, Choi Jong-Ryul, Kim Kyujung

机构信息

Department of Cogno-Mechatronics Engineering, Pusan National University, Busan, 46241, Republic of Korea.

Medical Device Development Center, Daegu-Gyeongbuk Medical Innovation Foundation, Daegu, 41061, Republic of Korea.

出版信息

Biosens Bioelectron. 2021 Jun 15;182:113150. doi: 10.1016/j.bios.2021.113150. Epub 2021 Mar 8.

Abstract

Studies to understand the structure, functions, and electrophysiological properties of neurons have been conducted at the frontmost end of neuroscience. Such studies have led to the active development of high-performance research tools for exploring the neurobiology at the cellular and molecular level. Following this trend, research and application of plasmonics, which is a technology employed in high-sensitivity optical biosensors and high-resolution imaging, is essential for studying neurons, as plasmonic nanoprobes can be used to stimulate specific areas of cells. In this study, three plasmonic modalities were explored as tools to study neurons and their responses: (1) plasmonic sensing of neuronal activities and neuron-related chemicals; (2) performance-improved optical imaging of neurons using plasmonic enhancements; and (3) plasmonic neuromodulations. Through a detailed investigation of these plasmonic modalities and research subjects that can be combined with them, it was confirmed that plasmonic sensing, imaging, and stimulation techniques have the potential to be effectively employed for the study of neurons and understanding their specific molecular activities.

摘要

在神经科学的最前沿,人们已经开展了旨在了解神经元的结构、功能和电生理特性的研究。这些研究推动了用于在细胞和分子水平探索神经生物学的高性能研究工具的积极发展。顺应这一趋势,作为高灵敏度光学生物传感器和高分辨率成像中所采用的一种技术,等离子体激元学的研究与应用对于研究神经元至关重要,因为等离子体激元纳米探针可用于刺激细胞的特定区域。在本研究中,探索了三种等离子体激元模式作为研究神经元及其反应的工具:(1) 对神经元活动和神经元相关化学物质的等离子体激元传感;(2) 使用等离子体激元增强技术对神经元进行性能改进的光学成像;(3) 等离子体激元神经调节。通过对这些等离子体激元模式以及可与之结合的研究对象的详细研究,证实了等离子体激元传感、成像和刺激技术有潜力有效地用于神经元研究并了解其特定分子活动。

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