22.7 A Programmable Wireless EEG Monitoring SoC with Open/Closed-Loop Optogenetic and Electrical Stimulation for Epilepsy Control

Shuenn-Yuh Lee, Chieh Tsou, Peng-Wei Huang, Po-Hao Cheng, Chi-Chung Liao, Zhan-Xien Liao, Hao-Yun Lee, Chou-Ching K. Lin, Chia-Hsiang Hsieh
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引用次数: 15

Abstract

The number of studies on closed-loop detection and electrical stimulation systems [1]–[2] for efficient control of neurological disorders is increasing, because recent clinical studies have shown their efficiency and usefulness in symptom suppression. Electrical stimulation can produce enough stimulation to affect a large range of nerves. However, all nerves near the stimulus are excited and hurt, and over time, currents start to exceed acceptable limits. Therefore, optogenetic stimulation [3]–[4] has become compelling in recent years due to several advantages: (1) no artificial noise on the EEG; (2) ability to stimulate specific nerves; and (3) no injurious effects on nerves. In this study, a wireless programmable stimulating system-on-chip (WPSSoC) is reported that provides wireless open/closed-loop optogenetic and electrical stimulation to improve treatment for epilepsy suppression. The system is demonstrated on programmable stimulation parameters wirelessly controlled by a software Graphical User Interface (GUI) on a computer. Moreover, an animal experiment conducted on optogenetic tissue was successful, thereby demonstrating that the nerve injury on optogenetic stimulation is lower than that of electrical stimulation.
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22.7一种用于癫痫控制的开/闭环光电刺激可编程无线脑电图监测SoC
由于最近的临床研究表明闭环检测和电刺激系统[1]-[2]在症状抑制方面的有效性和实用性,因此对有效控制神经系统疾病的研究越来越多。电刺激可以产生足够的刺激来影响大范围的神经。然而,所有靠近刺激的神经都兴奋和受伤,随着时间的推移,电流开始超过可接受的极限。因此,近年来,光遗传刺激[3]-[4]由于以下几个优点而成为人们关注的焦点:(1)脑电图无人工噪声;(2)刺激特定神经的能力;(3)对神经无损伤作用。在这项研究中,报道了一种无线可编程刺激系统芯片(WPSSoC)提供无线开/闭环光遗传和电刺激,以改善癫痫抑制的治疗。该系统通过计算机上的软件图形用户界面(GUI)无线控制的可编程增产参数进行了演示。此外,在光遗传组织上进行的动物实验成功,证明了光遗传刺激对神经的损伤低于电刺激。
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