Electrochemical impedance spectroscopy in vivo for neurotechnology and bioelectronics

Brittany Hazelgrove, Lukas Matter, Brad Raos, Bruce Harland, Leo Cheng, Maria Asplund, Darren Svirskis
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Abstract

Electrochemical impedance spectroscopy (EIS) is a well‐established electrochemical technique that provides invaluable information regarding the properties and functionality of electrodes within bioelectronic devices. EIS is the primary technique that reports on electrode properties in vivo using the implanted device itself. Nevertheless, there are many inconsistencies in the way this technique is implemented and reported on. Without a clear understanding of the experiment and experimental set‐up, it is challenging to draw meaningful conclusions and for results to be extrapolated across studies to benefit and advance the field. This Review discusses in vivo EIS experiments, specifically focusing on challenges in the experimental set‐up, the equipment used, data presentation and circuit modelling for neural interfaces. We propose guidelines for methodical reporting and a consistent, standardized use of terminology, paramount in understanding the performance of electrodes functioning at neural interfaces and promoting the transferability of findings across studies. Electrochemical impedance spectroscopy (EIS) describes the properties of the electrodes within bioelectronic devices. This Review discusses the value of EIS, key considerations for experimental set-up and how EIS can be used to understand biological changes during in vivo experiments.

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体内电化学阻抗谱用于神经技术和生物电子学
电化学阻抗谱(EIS)是一种成熟的电化学技术,它提供了关于生物电子器件中电极的特性和功能的宝贵信息。EIS是利用植入装置本身报告体内电极特性的主要技术。然而,在实现和报告该技术的方式上有许多不一致之处。如果没有对实验和实验设置的清晰理解,就很难得出有意义的结论,也很难将结果外推到其他研究中,从而使该领域受益和发展。本文讨论了活体EIS实验,特别关注实验设置中的挑战、使用的设备、数据呈现和神经接口电路建模。我们提出了有条理的报告和一致、标准化的术语使用指南,这对于理解电极在神经界面上的功能表现和促进研究结果的可转移性至关重要。电化学阻抗谱(EIS)描述了生物电子器件中电极的特性。本文讨论了EIS的价值,实验设置的关键考虑因素以及如何使用EIS来了解体内实验中的生物变化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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