A Novel Modeling Method Based on 3D CT Images for Dynamics Analysis of The Micro-Hemispherical Resonator Gyroscope

Min Meng, Kai Yang, Wei Su, Shengwei Dong, Hao Zhang, Jie Zhang, He Li, Xi Wang
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引用次数: 1

Abstract

A novel modeling method based on three-dimensional (3D) computerized tomography (CT) images was developed for the micro hemispherical resonator gyroscope design. Image reconstruction, processing and meshing by a Micro-CT was used for the finite element modeling (FEM), the accuracy of this non-destructive method is up to 0.5 μm. The modal characteristics of the micro shell resonator (MSR) were analyzed based on this modeling method. The obtained modal frequencies (f1, f2) and frequency split (delta f) of two degenerate wine-glass (WG) modes are consistent with the experimental results extracted by a custom-made quality factor tester. The error of estimated f and delta f was as low as 2.3% and 2.9%, respectively, indicating that the modeling method can be used for resonator dynamics characteristics evaluation and prediction.
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基于三维CT图像的微半球谐振陀螺仪动力学分析建模方法
提出了一种基于三维计算机断层扫描(CT)图像的半球形微谐振陀螺仪建模方法。采用Micro-CT图像重建、处理和网格划分进行有限元建模,该方法的无损精度可达0.5 μm。基于该建模方法对微壳谐振器的模态特性进行了分析。得到的两种简并酒杯模态的模态频率(f1, f2)和频裂(f)与用质量因子测试仪提取的实验结果一致。估计f和δ f的误差分别低至2.3%和2.9%,表明该建模方法可用于谐振器动力学特性的评价和预测。
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