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超声神经调节与声遗传学:神经调节的新时代。

Ultrasonic Neuromodulation and Sonogenetics: A New Era for Neural Modulation.

作者信息

Wang Songyun, Meng Weilun, Ren Zhongyuan, Li Binxun, Zhu Tongjian, Chen Hui, Wang Zhen, He Bo, Zhao Dongdong, Jiang Hong

机构信息

Department of Cardiology, Renmin Hospital of Wuhan University, Wuhan, China.

Department of Cardiology, Shanghai Tenth People's Hospital, Tongji University School of Medicine, Shanghai, China.

出版信息

Front Physiol. 2020 Jul 16;11:787. doi: 10.3389/fphys.2020.00787. eCollection 2020.

Abstract

Non-invasive ultrasonic neural modulation (UNM), a non-invasive technique with enhanced spatial focus compared to conventional electrical neural modulation, has attracted much attention in recent decades and might become the mainstream regimen for neurological disorders. However, as ultrasonic bioeffects and its adjustments are still unclear, it remains difficult to be extensively applied for therapeutic purpose, much less in the setting of human skull. Hence to comprehensively understand the way ultrasound exerts bioeffects, we explored UNM from a basic perspective by illustrating the parameter settings and the underlying mechanisms. In addition, although the spatial resolution and precision of UNM are considerable, UNM is relatively non-specific to tissue or cell type and shows very low specificity at the molecular level. Surprisingly, Ibsen et al. (2015) first proposed the concept of sonogenetics, which combined UNM and mechanosensitive (MS) channel protein. This emerging approach is a valuable improvement, as it may markedly increase the precision and spatial resolution of UNM. It seemed to be an inspiring tool with high accuracy and specificity, however, little information about sonogenetics is currently available. Thus, in order to provide an overview of sonogenetics and prompt the researches on UNM, we summarized the potential mechanisms from a molecular level.

摘要

非侵入性超声神经调制(UNM)是一种与传统电神经调制相比具有更高空间聚焦性的非侵入性技术,近几十年来备受关注,可能成为治疗神经系统疾病的主流方法。然而,由于超声生物效应及其调节机制仍不明确,其在治疗目的上仍难以广泛应用,在人体颅骨环境中更是如此。因此,为了全面了解超声产生生物效应的方式,我们从基础角度通过阐述参数设置和潜在机制来探索UNM。此外,尽管UNM的空间分辨率和精度相当可观,但它对组织或细胞类型相对缺乏特异性,在分子水平上特异性很低。令人惊讶的是,伊布森等人(2015年)首次提出了声遗传学的概念,即将UNM与机械敏感(MS)通道蛋白相结合。这种新兴方法是一项有价值的改进,因为它可能显著提高UNM的精度和空间分辨率。它似乎是一种具有高精度和特异性的鼓舞人心的工具,然而,目前关于声遗传学的信息很少。因此,为了概述声遗传学并推动对UNM的研究,我们从分子水平总结了潜在机制。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/d845/7378787/61823add047d/fphys-11-00787-g001.jpg

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