Design and experiment of double closed-loop quadrature error correction system for MEMS multi-ring disk gyroscope

Purpose This study aims to propose a “double closed-loop” control circuit to eliminate quadrature error based on micro electro mechanical system (MEMS) multi-ring disk gyroscope (MRDG). Design/methodology/approach First of all, this article analyzes the causes of quadrature error in the MEMS MRDG and the output signal of the MEMS MRDG. Special attention is paid to the quadrature signals generated due to stiffness coupling in the MEMS MRDG, and a “double closed-loop” control circuit mode is adopted to simulate, calibrate and test the quadrature signals. Finally, detailed analysis and simulation were conducted using the established system model, and relevant measurement and control circuits were constructed for experimental study. Findings The experimental results show that when using the “double closed-loop” control circuit for the MEMS gyroscope prototype testing, the scale factor of the “double closed-loop” control circuit is 0.5127/mV/(°/s), the Bias stability (BI) is 1.54°/h and the operating bandwidth is approximately 18 Hz at a range of ± 100°/s. Originality/value This work presents a novel structure of MEMS MRDG and analyze quadrature error based on MEMS MRDG. A novel circuit structure of “double closed-loop” for quadrature error correction is proposed which can be widely applied in the field of the MEMS gyroscope.

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Publication Details

Journal
Sensor Review
Published
2026-06-18
DOI
https://doi.org/10.1108/sr-01-2026-0017
Primary Topic
Advanced MEMS and NEMS Technologies
Type
article
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article

Design and experiment of double closed-loop quadrature error correction system for MEMS multi-ring disk gyroscope

Huiliang Cao, Chao Yan, Xinwang Wang, Shaoheng Chun et al.
Sensor Review
Advanced MEMS and NEMS Technologies
article

Design and experiment of double closed-loop quadrature error correction system for MEMS multi-ring disk gyroscope

Huiliang Cao, Chao Yan, Xinwang Wang, Shaoheng Chun, Fei Ye
article en

Abstract

Purpose This study aims to propose a “double closed-loop” control circuit to eliminate quadrature error based on micro electro mechanical system (MEMS) multi-ring disk gyroscope (MRDG). Design/methodology/approach First of all, this article analyzes the causes of quadrature error in the MEMS MRDG and the output signal of the MEMS MRDG. Special attention is paid to the quadrature signals generated due to stiffness coupling in the MEMS MRDG, and a “double closed-loop” control circuit mode is adopted to simulate, calibrate and test the quadrature signals. Finally, detailed analysis and simulation were conducted using the established system model, and relevant measurement and control circuits were constructed for experimental study. Findings The experimental results show that when using the “double closed-loop” control circuit for the MEMS gyroscope prototype testing, the scale factor of the “double closed-loop” control circuit is 0.5127/mV/(°/s), the Bias stability (BI) is 1.54°/h and the operating bandwidth is approximately 18 Hz at a range of ± 100°/s. Originality/value This work presents a novel structure of MEMS MRDG and analyze quadrature error based on MEMS MRDG. A novel circuit structure of “double closed-loop” for quadrature error correction is proposed which can be widely applied in the field of the MEMS gyroscope.

Sensor Review
Beijing Institute of Technology (CN), Beijing Electronic Science and Technology Institute (CN), Suzhou University of Technology (CN), Southeast University (CN), Wuxi Institute of Technology (CN)
Openalex Percentile: Top 10%
Advanced MEMS and NEMS Technologies
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