3D printed capacitive sensors

C. Shemelya, Fernando Cedillos, E. Aguilera, E. Maestas, Jorge Ramos, D. Espalin, D. Muse, R. Wicker, E. MacDonald
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引用次数: 64

Abstract

Recent advances in the field of 3D printing have utilized embedded electronic interconnects in order to construct advanced electronic devices. This work builds on these advances in order to construct and characterize arbitrarily formed capacitive sensors using fine-pitch copper mesh and embedded copper wires. Three varieties of sensors were fabricated and tested, including a small area wire sensor (320μm width), a large area mesh sensor (2cm2), and a fully embedded demonstration model. In order to test and characterize these sensors in FDM materials, three distinct tests were explored. Specifically, the sensors were able to distinguish between three metallic materials and distinguish salt water from distilled water. These capacitive sensors have many potential sensing applications, such as biomedical sensing, human interface devices, material sensing, electronics characterization, and environmental sensing. As such, this work specifically examines optimum mesh/wire capacitive parameters as well as potential applications such as 3D printed integrated material sensing.
3D打印电容式传感器
3D打印领域的最新进展是利用嵌入式电子互连来构建先进的电子设备。这项工作建立在这些进步的基础上,以便使用细间距铜网和嵌入式铜线构建和表征任意形成的电容式传感器。制作并测试了三种传感器,包括小面积线传感器(320μm宽度)、大面积网格传感器(2cm2)和全嵌入式演示模型。为了在FDM材料中测试和表征这些传感器,研究了三种不同的测试方法。具体来说,传感器能够区分三种金属材料,并区分盐水和蒸馏水。这些电容式传感器具有许多潜在的传感应用,如生物医学传感、人机界面器件、材料传感、电子表征和环境传感。因此,这项工作专门研究了最佳网/线电容参数以及3D打印集成材料传感等潜在应用。
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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