神经元的光学刺激。

Alexander C Thompson, Paul R Stoddart, E Duco Jansen
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引用次数: 89

摘要

我们与神经系统交互的能力仍然主要依赖于电刺激设备,比如可以刺激中枢和周围神经系统的电极阵列和袖带电极。然而,电刺激必须应对多种挑战,包括选择性、空间分辨率、机械稳定性、植入物诱导的损伤和随后的炎症反应。光学刺激技术可以通过提供更多的选择性刺激、更高的空间分辨率和减少设备的侵入性来避免这些挑战,同时也避免了使电刺激神经元活动记录复杂化的电伪影。本文综述了光遗传方法、光活性分子方法、红外神经刺激等光刺激技术的现状,以及光电混合刺激、纳米粒子增强刺激、光电刺激等新兴技术。红外神经刺激是特别强调的,因为通过红外光直接激活神经组织的潜力,而不是依赖于引入外源光响应材料的技术。然而,红外神经刺激仍然不完全了解,准确传递光的技术仍在发展中。虽然本文综述的各种技术证实了光学增产的总体可行性,但在充分发挥其潜力之前,仍有许多挑战需要克服。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Optical Stimulation of Neurons.

Optical Stimulation of Neurons.

Optical Stimulation of Neurons.

Optical Stimulation of Neurons.

Our capacity to interface with the nervous system remains overwhelmingly reliant on electrical stimulation devices, such as electrode arrays and cuff electrodes that can stimulate both central and peripheral nervous systems. However, electrical stimulation has to deal with multiple challenges, including selectivity, spatial resolution, mechanical stability, implant-induced injury and the subsequent inflammatory response. Optical stimulation techniques may avoid some of these challenges by providing more selective stimulation, higher spatial resolution and reduced invasiveness of the device, while also avoiding the electrical artefacts that complicate recordings of electrically stimulated neuronal activity. This review explores the current status of optical stimulation techniques, including optogenetic methods, photoactive molecule approaches and infrared neural stimulation, together with emerging techniques such as hybrid optical-electrical stimulation, nanoparticle enhanced stimulation and optoelectric methods. Infrared neural stimulation is particularly emphasised, due to the potential for direct activation of neural tissue by infrared light, as opposed to techniques that rely on the introduction of exogenous light responsive materials. However, infrared neural stimulation remains imperfectly understood, and techniques for accurately delivering light are still under development. While the various techniques reviewed here confirm the overall feasibility of optical stimulation, a number of challenges remain to be overcome before they can deliver their full potential.

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