基于热导非互易误差的单轴干涉 FOG 模型构建方法

W. Gao, P. Wu, Y. Zhang, R. Zhang, B. Zhao
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引用次数: 0

摘要

本文对单轴光纤陀螺仪进行了热分析,并研究了光纤回路温度场对陀螺仪输出的影响。本文首先建立并验证了光纤陀螺仪模型和光纤环路模型,然后模拟并分析了陀螺仪和光纤环路的温度场。通过比较光纤环路的温度曲线图和光纤环路部分中心节点的温度,分析光纤环路内部的温度传输率。根据热导非互易误差理论,提取光纤环的边界温度并进行编程。在获得温度引起的非互易误差后,我们可以通过从陀螺仪输出值中减去误差的算法来补偿误差。本文提出了一种有限元模拟模型精度验证方法,并给出了一个热场有限元分析实例。考虑到温度梯度和热应力,给出了热引起的非互易误差分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A model building method of single-axis interferometric FOG based on thermally induced nonreciprocal error
Thermal analysis for the single-axis fiber optic gyroscope is carried out, and the influence of the fiber-loop temperature field on gyro output is researched. In this paper, Fiber optic gyroscope model and fiber loop model are established and validated, then the temperature field of the gyroscope and fiber loop are simulated and analyzed. By comparing temperature nephograms of the fiber loop and the temperature of the fiber loop section central node, the temperature transmission rate inside the fiber loop is analyzed. Extract the boundaries' temperature of fiber loop and program based on the theory of thermally induced nonreciprocal error. After obtaining the nonreciprocal error caused by temperature, we can compensate the error by the algorithm through subtracting the error from the gyro output value. In this paper, an accuracy verifying method of finite-element simulation model is presented, and an example of finite element analysis for thermal field is given. The thermally induced nonreciprocal error analysis is given considering temperature gradient and thermal stress.
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