A Novel Amplitude-Phase Information Extraction Architecture for MEMS Vibratory Gyroscopes Using a Modified Double Side-Band Demodulation Configuration

Haibin Wu, Xudong Zheng, Yiyu Lin, Zhipeng Ma, Zhong-he Jin
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引用次数: 7

Abstract

This work demonstrates a new architecture adopting a modified double side-band (MDSB) demodulation configuration to gain drive mode amplitude and phase information. Compared to conventional double side-band (DSB) demodulation configuration, it is robust against phase variation of capacitance-to-voltage (CV) interface circuit caused by environmental parameter changes. Theoretical analysis for gyroscopes using MDSB reveals that the amplitude information for AGC loop and phase information for PLL are both independent of the phase delay of CV circuit. Further, the exact phase delay information of CV circuit using MDSB is also extracted which serves as temperature information of the circuit self-heating process. Comparative experiments of the same gyroscope based on MDSB and DSB configurations in drive mode are conducted using a fully decoupled MEMS tuning fork gyroscope. Experimental results indicate that bias drift including the power-on process using MDSB is improved by about 3 times.
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一种基于改进的双边带解调结构的MEMS振动陀螺仪幅相信息提取新架构
这项工作展示了一种采用改进的双边带(MDSB)解调配置来获得驱动模式振幅和相位信息的新架构。与传统的双边带(DSB)解调结构相比,它对环境参数变化引起的电容-电压(CV)接口电路相位变化具有鲁棒性。对MDSB陀螺仪的理论分析表明,AGC环的幅值信息和锁相环的相位信息都与CV电路的相位延迟无关。此外,利用MDSB提取了CV电路的精确相位延迟信息,作为电路自加热过程的温度信息。采用完全解耦的MEMS音叉陀螺仪,对同一陀螺仪在驱动模式下的MDSB和DSB配置进行了对比实验。实验结果表明,包括上电过程在内,MDSB的偏置漂移改善了约3倍。
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