Sensing and Stimulating Electrodes for Electroceuticals

Xiao Liu, Kezhong Wang, M. A. González-González, M. Romero-Ortega, G. Wallace
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Abstract

Electroceuticals is an emerging field that combines the technology in conductive materials with their ability to interface with biological systems. The development of highly conductive electrodes to monitor human health in real-time while simultaneously delivering stimulation promises to revolutionize medical science. Aspects to consider during development include the desired shape, electrode material properties, number of active sites, carriers used, and methods of deployment and activation. Novel organic-conductor based electrode compositions offer properties unattainable with conventional metal electrodes. Emerging innovative deployment strategies communicate directly with target tissues while minimizing damage to the surrounding biological environment. Here we highlight the recent reported technology on platinized graphene fibers (sutrode), a high performance electrode, capable of recording electrophysiological signals from small autonomic nerves, which could bring us closer to the ultimate goal: modulating the activity of individual organs with high selectivity and precision for a therapeutic medical outcome. An in-depth understanding of electrode materials and methods of fabrication and deployment can provide unprecedented opportunities for electroceutical research.
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用于电化学的传感和刺激电极
电子医药是一个新兴的领域,它结合了导电材料技术与生物系统接口的能力。开发高导电性电极,实时监测人体健康,同时提供刺激,有望彻底改变医学科学。在开发过程中需要考虑的方面包括所需的形状、电极材料特性、活性位点的数量、所使用的载体以及部署和激活的方法。新型有机导体电极组合物提供了传统金属电极无法达到的性能。新兴的创新部署策略直接与目标组织沟通,同时最大限度地减少对周围生物环境的破坏。在这里,我们重点介绍了最近报道的铂化石墨烯纤维(sutrode)技术,这是一种高性能电极,能够记录来自小自主神经的电生理信号,它可以使我们更接近最终目标:以高选择性和精确的方式调节单个器官的活动,以实现治疗性医疗结果。深入了解电极材料和制造和部署方法可以为电化学研究提供前所未有的机会。
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