Song Mengyao, Zhang Mingxia, He Sixuan, Li Le, Hu Huijing
Institute of Medical Research, Northwestern Polytechnical University, Xi'an, China.
Research and Development Institute of Northwestern Polytechnical University in Shenzhen, Shenzhen, China.
Front Neurosci. 2023 Jul 31;17:1232308. doi: 10.3389/fnins.2023.1232308. eCollection 2023.
Ultrasound neuromodulation technology is a promising neuromodulation approach, with the advantages of noninvasiveness, high-resolution, deep penetration and good targeting, which aid in circumventing the side effects of drugs and invasive therapeutic interventions. Ultrasound can cause mechanical effects, activate mechanosensitive ion channels and alter neuronal excitability, producing biological effects. The structural determination of mechanosensitive ion channels will greatly contribute to our understanding of the molecular mechanisms underlying mechanosensory transduction. However, the underlying biological mechanism of ultrasonic neuromodulation remains poorly understood. Hence, this review aims to provide an outline of the properties of ultrasound, the structures of specific mechanosensitive ion channels, and their role in ultrasound neuromodulation.
超声神经调节技术是一种很有前景的神经调节方法,具有非侵入性、高分辨率、深层穿透性和良好靶向性等优点,有助于避免药物和侵入性治疗干预的副作用。超声可产生机械效应,激活机械敏感离子通道并改变神经元兴奋性,从而产生生物学效应。机械敏感离子通道的结构确定将极大地有助于我们理解机械感觉转导的分子机制。然而,超声神经调节的潜在生物学机制仍知之甚少。因此,本综述旨在概述超声的特性、特定机械敏感离子通道的结构及其在超声神经调节中的作用。