Electronics for a Safe Direct Current Stimulator.

Patrick Ou, Gene Fridman
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引用次数: 5

Abstract

Commercially available neuroprostheses, while successful and effective, are limited in their functionality by their reliance on pulsatile stimulation. Direct current (DC) has been shown to have great potential for the purposes of neuromodulation; however, direct current cannot be applied directly to neurons due to the charge injection thresholds of electrodes. We are developing a Safe Direct Current Stimulator (SDCS) that applies ionic direct current (iDC) without inducing toxic electrochemical reactions. The current design of the SDCS uses a series of eight valves in conjunction with four electrodes to rectify ionic current in microfluidic channels. This paper outlines the design, implementation, and testing of the electronics of the SDCS. These electronics will ultimately be interfaced with a separate microfluidic circuit in the device prototype. Testing the outputs of the electronics confirmed adherence to its design requirements. The completion of the SDCS electronics enables the further development of iDC as a mechanism for neuromodulation.

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安全直流刺激器用电子器件。
市售的神经假体虽然成功且有效,但由于其依赖于脉冲刺激,其功能受到限制。直流电(DC)已被证明在神经调节方面具有巨大的潜力;然而,由于电极的电荷注入阈值,直流电不能直接作用于神经元。我们正在开发一种安全的直流电刺激器(SDCS),它应用离子直流电(iDC)而不引起有毒的电化学反应。目前设计的SDCS使用一系列的八个阀与四个电极结合,以纠正微流体通道中的离子电流。本文概述了SDCS电子器件的设计、实现和测试。这些电子器件最终将在设备原型中与单独的微流控电路相连接。测试电子产品的输出确认符合其设计要求。SDCS电子学的完成使iDC作为神经调节机制的进一步发展成为可能。
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