Noise Suppression Solution for Ultra-High Precision Fiber Optic Gyroscope

Bo-han Liu, Xiaoming Zhao, W. Zuo, Xin Chen, Hu Liang
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引用次数: 1

Abstract

Ultra-High Precision Fiber Optic Gyroscope (UHPFOG), as a high precision angular rate sensor, can be used in space position, strategic missile guidance and submarine navigation. Large ships and submarines are becoming the main application direction of UHPFOG. UHPFOG surpasses ring laser gyroscope in noise and longterm bias stability. Compared with the electrostatic inertial navigation system (ESINS) which has a large number of complex mechanical and electrical components and platform structure, the ultra-high precision FOG inertial navigation system has been greatly improved due to its simple structure, low cost of generation and maintenance, and high reliability. The practical application shows that the noise (random walk) of UHPFOG has become a key factor limiting its application in higher precision fields. Especially in temperature control and rotary modulation systems, random walk directly affects the fluctuation amplitude of latitude of high precision inertial navigation system. With a Semiconductor Optical Amplifier (SOA) decreasing Relative Intensity Noise (RIN) method, random walk coefficient of our FOG is reduced to 40%.
超高精密光纤陀螺仪的噪声抑制方案
超高精密光纤陀螺仪(UHPFOG)是一种高精度角速率传感器,可用于空间定位、战略导弹制导和潜艇导航。大型舰船和潜艇正成为UHPFOG的主要应用方向。UHPFOG在噪声和长期偏置稳定性方面优于环形激光陀螺仪。与具有大量复杂机电元件和平台结构的静电惯导系统(ESINS)相比,超高精度FOG惯导系统由于结构简单、发电和维护成本低、可靠性高等优点得到了很大的改进。实际应用表明,UHPFOG的噪声(随机游走)已成为限制其在高精度领域应用的关键因素。特别是在温度控制和旋转调制系统中,随机游走直接影响高精度惯导系统的纬度波动幅度。采用半导体光放大器(SOA)降低相对强度噪声(RIN)的方法,光纤陀螺的随机游走系数降低到40%。
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