基于3D打印技术的柔性、适形脑电信号传感器的研制

Adam Schuhknecht, Evan Fadanelli, Mohit Patel, A. Hanson, D. Maddipatla, M. Atashbar
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引用次数: 0

摘要

研制了一种新型脑电图传感器,用于监测和记录脑电活动。通过3D打印Formlabs 80A柔性树脂开发了一种传感电极,并涂有银环氧树脂和银喷漆,使电极导电。测得传感器电导率为7.70 E+03 S/m。电极具有足够的柔韧性和适应性,可以长时间佩戴在头上,而不会对使用者造成压力。目前市场上的传感电极很硬,在长时间的测试后会引起头痛。与商用电极相比,3D打印的传感电极产生的信号质量相似,同时提供更高的舒适度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of a Flexible and Conformable EEG Sensors Using 3D Printing Process
A novel electroencephalography (EEG) sensor was developed for monitoring and recording the electrical activity of the brain. A sensing electrode were developed by 3D printing Formlabs 80A flexible resin and coated with silver epoxy as well as a silver spray paint to make the electrodes conductive. The conductivity of the sensors was measured at 7.70 E+03 S/m. The electrodes are flexible and conformable enough to be worn on the head for extended periods of time without causing strain to the user. The current sensing electrodes in the market are stiff and cause headaches after extended periods of testing. The 3D printed sensing electrodes generated similar signal quality when compared to commercial electrodes while providing a far higher level of comfort.
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