单电源差动电容感测电流行为分析

Nurul Arfah Che Mustapha, A. Alam, Sheroz Khan, A. Azman
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引用次数: 1

摘要

差分电容传感技术以其实现高度对称、易于采用离散元件实现以及系统线性度高的特点,在电容测量系统中得到了广泛的应用。然而,很少有关于差分CVC系统能够在高频操作下工作的报道,特别是当使用离散方法时。在这项工作中,提出了一种适用于能量收集和WSN应用的离散单电源差分CVC。该方法着重于电容式传感电路的整流行为分析。利用该方法,可以在3.83 mW的低功耗下实现0.04933 mV / 1 ƒF电容变化的灵敏度。该方法在5 ~ 9.5 pF电容变化范围内r平方值0.99788呈高线性关系。最后,记录的直流输出电压范围为1.6505 ~ 1.8725 V,工作频率为200khz。
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Current behavior analysis of the single supply differential capacitive sensing
Differential capacitive sensing technique has gained popularity in capacitance measuring system due to its high symmetrical implementation, easy to be implemented using discrete components and has a characteristic of high linearity in its system. However, very few work has reported on the differential CVC system that is able to operate at a high frequency operation especially when using discrete method. In this work, a differential CVC is proposed using discrete single supply, suitable for energy harvesting and WSN application. The method has emphasised on the rectifier current behavior analysis of the capacitive sensing circuit. Using this method, sensitivity of 0.04933 mV per 1 ƒF capacitance change is achievable with low power consumption of 3.83 mW. The proposed method has also shown high linearity of R-squared value 0.99788 between 5 and 9.5 pF capacitance change. Finally, the recorded DC output voltage is in the range of 1.6505 to 1.8725 V output with working frequency of 200 kHz operation.
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