Oliver Ozioko, Habib Nassar, Christopher Muir, R. Dahiya
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引用次数: 2
摘要
这项工作提出了3D打印倾斜传感器测量流体水平和倾斜传感机器人。它由四个3D打印的交叉数字电容传感器组成,作为一个单一结构打印并浸入液体$\mathrm{E}\mathrm{c}\mathrm{o}\mathrm{f}\mathrm{l}\mathrm{e}\mathrm{x}^{\mathrm{T}\mathrm{M}}$(仅限a部分)。当传感器的方向发生变化时,与传感器接触的流体的液位也会发生变化,从而导致电容的变化。首先将传感器单独打印,并测量不同液位下电容的变化。单个电容式传感器的响应在频率为0的流体中显示出稳定的浸出循环响应。625Hz。倾斜实验结果显示电容的相对变化($\Delta$ ClC $\theta$$\sim$ 0.1)% per degree for an angle range of $\sim-20^{0}$ to $\sim+20^{0}$. With $\sim$ $6.7^{0}$ detected per mm of the level of fluid in contact with the sensor, the result shows the capability to achieve a measurement range of at least $\sim\pm 93.8^{0}$ (for a sensor of length of $\sim$12mm). The study carried out in this work finds application in tilt sensing in robotics as well as in fluid-level sensing in which case the sensor could be printed as part of the structure of the fluid container.
This work presents 3D printed tilt sensor to measure fluid level and tilt sensing in robotics. It comprises of four 3D printed interdigitated capacitive sensors printed as a single structure and immersed in liquid $\mathrm{E}\mathrm{c}\mathrm{o}\mathrm{f}\mathrm{l}\mathrm{e}\mathrm{x}^{\mathrm{T}\mathrm{M}}$ (part A only). When the orientation of the sensor changes, the level of fluid in contact with the sensors also changes and this causes a change in the capacitance. The sensors were first printed individually and change in capacitance measured for different fluid levels. The response of the individual capacitive sensors shows a stable response for a dip and remove cyclic test in fluid at frequency of 0. 625Hz. The results of the tilting experiments show a relative change in capacitance ($\Delta$ ClC $\theta$ $\sim$ 0.1% per degree for an angle range of $\sim-20^{0}$ to $\sim+20^{0}$. With $\sim$ $6.7^{0}$ detected per mm of the level of fluid in contact with the sensor, the result shows the capability to achieve a measurement range of at least $\sim\pm 93.8^{0}$ (for a sensor of length of $\sim$12mm). The study carried out in this work finds application in tilt sensing in robotics as well as in fluid-level sensing in which case the sensor could be printed as part of the structure of the fluid container.