一种32-ch神经调制器,带有冗余电压监测器,避免阻塞电容器

Stefan Reich, Mark A. Sporer, J. Becker, Stefan B. Rieger, M. Schüttler, M. Ortmanns
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引用次数: 4

摘要

近年来,神经记录和调制技术发展迅速。闭环神经调节系统已被成功证明用于治疗帕金森病和癫痫。长期植入的医疗设备需要遵守严格的安全法规,采用了许多安全措施来保护患者。在系统故障的情况下,防止直流电被应用到组织的一种这样的措施通常是在电极和神经调节剂之间使用外部阻塞电容器。这些电容器可以引起显着的磁共振成像(MRI)磁化率伪影,显示为阴影效应。本文介绍了当神经调节硬件从台式原型发展到用于人类慢性植入的生物医学系统时出现的一些挑战。我们提出了一种新的安全措施,以减轻MRI遮阳问题,同时仍符合相关的安全法规。此外,我们提出了几个额外的功能,以提高32通道神经调节平台的灵活性和可用性。该神经调节剂采用180nm HV CMOS工艺制作,实现了全数字-神经接口。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A 32-ch Neuromodulator with redundant Voltage Monitors avoiding Blocking Capacitors
Neural recording and modulation has evolved rapidly in recent years. Closed-loop neuromodulation systems have been successfully demonstrated for the treatment of Parkinson's disease and epilepsy. Chronically implanted medical devices, requiring compliance to rigorous safety regulations, employ numerous safety measures to protect the patient. One such measure to prevent direct current from being applied to the tissue in case of a system failure is typically the usage of external blocking capacitors between the electrodes and the neuromodulator. These capacitors can cause significant magnetic resonance imaging (MRI) magnetic susceptibility artifacts that appear as a shading effect. This paper presents some of the challenges which arise when evolving neuromodulation hardware from benchtop prototypes to biomedical systems for chronic implantation in humans. We propose a novel safety measure to mitigate the MRI shading issue while still complying to the relevant safety regulations. Furthermore, we propose several additional features that improve the flexibility and usability of a 32-channel neuromodulation platform. The neuromodulator was fabricated in a 180 nm HV CMOS process and realizes a fully digital-to-neural interface.
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