压阻式微悬臂电性能测量读出电路的研制

A. Anuar, S. Johari, Y. Wahab, M. Zainol, H. Fazmir, M. Mazalan, M. Arshad
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引用次数: 3

摘要

本文报道了一种用于检测加速度、生物或化学活动的压阻式微悬臂传感器读出电路的开发。激光微加工技术用于压阻式微悬臂传感器的制作,并辅助悬臂梁和压阻器的成形。为了测试传感器的性能,将惠斯通电桥作为电阻传感器与其他三个电阻和制造的传感器集成在一起。设计了一套由INA128构成的放大电路,对桥接电路的电信号分量进行放大和提取。研究了惠斯通电桥的电阻和输出电压特性,其中计算输出电压和测量输出电压之间的百分比差异非常小,彼此相似。利用电动力振动系统研究了传感器对振动的响应。该系统是专门设计的,可以实现由外部反应引起的小电阻率变化。
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 read-out circuitry for piezoresistive microcantilever electrical properties measurement
This paper reports on the development of a piezoresistive microcantilever sensor read-out circuitry to detect acceleration, biological or chemical activities. Laser micromachining technique is used in fabricating the piezoresistive microcantilever sensor as well as assisting in the cantilever beam and piezoresistor shape formation. In order to test the sensor performance, a Wheatstone bridge which acts as resistive sensor is integrated with three other resistors and the fabricated sensor. A set of amplifier circuit consisting of INA128 is developed to amplify and extract the electrical signal component of the bridge circuit. The resistance and output voltage characteristic of the Wheatstone bridge is investigated, where the percentages difference between the calculated and measured output voltage is very low and similar to each other. The sensor response to vibration is also studied using an electro-dynamic vibration system. The system is designed specifically to enable the accessibility of a small resistivity change due to outside reaction.
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