用于卫星发射装置的基于光纤陀螺的惯性导航系统

D. Grifi, R. Senatore, E. Quatraro, M. Verola, A. Pizzarulli
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引用次数: 0

摘要

空间任务首先是利用卫星发射装置将静止轨道上的卫星送入轨道。Civitanavi系统公司开发了一种惯性导航系统(INS),基于专有的FOG技术,用于卫星发射任务期间的稳定和导航。与大气飞行中常用的NED参考系和3-2-1欧拉角确定姿态不同,在空间飞行(卫星运载火箭)中,首选LPI (Launch-Point-Inertial)参考系,采用2-3-1欧拉角定向表示;因此,针对这种特殊应用,推导出了不同的惯性导航方程。卫星发射系统的主要特点是能够承受恶劣的操作环境,包括机械振动和冲击。通过推进剂(炸药装药)分离侧助推器,在INS单元上产生10000g热冲击,激励频率高达5000hz;事实上,如果对于其他电子元件,如FCC,机械隔离不是问题,它就成为一个与火箭惯性运动“工作”的系统的主要问题。为了在高角加速度阶段(冲击)稳定闭环光纤陀螺,并拒绝虚假的动态测量,在机械设计和光纤陀螺控制律增强方面提出了特殊要求。机械和特殊固件已经开发,以“跟随”惯性运动,同时保护传感器,而非常高的冲击(10000克的烟火冲击)发生。最后给出了实现精度的一些实验结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
FOG based INS for satellite launcher application
Spatial missions begin with orbit immission of a satellite in parking orbit by means of a satellite launcher. Civitanavi Systems developed an Inertial Navigation Systems (INS), based on proprietary FOG technology, for stabilization and navigation of satellite launcher during its mission. Rather than adopting the NED reference frame and a 3-2-1 Euler angles, which are mostly used in atmospheric flights for attitude determination, in space flight (satellite carrier rockets) the LPI (Launch-Point-Inertial) reference frame is preferred with 2-3-1 Euler angles orientation representation; hence different inertial navigation equations are derived for this special application. Main characteristics required for a satellite launcher INS are its capability to withstand harsh operating environment in terms of mechanical vibrations and shocks. Lateral booster detachment by means of propellant (explosive charges) induces a 10000g pyroshock on the INS unit exciting frequencies up to 5000 Hz; indeed if for other electronic components, such as FCC, mechanical isolation is not a problem, it becomes the main problem for a system that “work” with the inertial movements of the rocket. Special requirements are derived in terms of mechanical design and FOG control law enhancement in order to stabilize closed-loop FOG during high angular acceleration phase (shock) and to reject spurious dynamic measurements. Mechanical and special firmware has been developed in order to “follows” inertial movements and at the same time protect sensors while very high shock (pyrotechnic shock of 10000g) happens. Finally some experimental results on achieved accuracy are presented.
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