阿尔及利亚第一颗在轨微型卫星Alsat-1的初始姿态获取结果

A. Mohammed, M. Benyettou, M. Sweeting, J. Cooksley
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引用次数: 19

摘要

在2002年11月28日格林尼治时间上午06:07,第一颗阿尔及利亚微型卫星AIsat-1从俄罗斯普列谢茨克航天发射场发射到700公里太阳同步轨道。Alsat-1是一颗增强型微型卫星(90公斤),在3轴上稳定用于图像采集模式。它是为灾害监测而设计的,是专门用于灾害监测(DMC)的国际星座的一部分。在与发射器的最后一级分离后,Alsat-1可以以未定义的角速率翻滚。在这个阶段唯一有用的姿态传感器将是3轴磁强计。这种控制器被称为b点速率阻尼,它只需要一个y轴磁矩,它将降低X和z轴的角速率,并使微卫星与轨道法线对齐。下一步将同时控制名为Y-THOMPSON自旋的v轴速率到一个固定的参考值。轨道参考y轴角速率可以通过俯仰滤波器或卡尔曼速率滤波器估计。一旦卫星处于纯y -汤普森自旋状态,就可以实现基音滤波器。该滤波器将使用磁力计测量和模拟的国际地磁场参考矢量来确定俯仰角和速率。最后,当俯仰角距最低点为10时,我们展开吊臂。本文是我博士论文的一部分,描述了在Alsat-1初始姿态获取阶段实现的姿态确定控制系统算法。这一阶段将完成坠落演习。唯一需要的姿态确定传感器是一个磁力计,执行器需要一个磁振器线圈。说明了在这些模式中使用的具体姿态控制器和估计器。给出了在轨调试结果。
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Initial attitude acquisition result of the Alsat-1 first Algerian microsatellite in orbit
On the November 28th, 2002 at 06:07 am GMT, the first Algerian microsatellite AIsat-1 was launched from the cosmodrome of Plesetsk in Russia into a 700 km sun synchronous orbit. Alsat-1 is an enhanced microsatellite (90 Kg), stabilised in 3 axis for image acquisition mode. It was designed for disaster monitoring and is a part of the international constellation dedicated for disaster monitoring (DMC). Immediately after separation from the final stage of the launcher, Alsat-1 can be tumbling at an undefined angular rate. The only attitude sensors useful at this stage will be the 3-axis magnetometer. Called B-dot rate damping, this controller requiring only a Y-axis magnetic moment and it will reduce the X and Z-axis angular rates and align the microsatellite to the orbit normal. The next step will be simultaneously control the V-axis rate named Y-THOMPSON spin to a fixed reference value. The orbit reference Y-axis angular rate can be estimated from a pitch filter or Kalman rate filter. The pitch filter can be implemented once the satellite is in pure Y-THOMPSON spin. This filter will determine the pitch angle and rate using the magnetometer measurements and the modelled International Geomagnetic Reference Field vector. Finally when the pitch angle is 10 from nadir, we deploy the boom. The paper presented here is a part of my Phd thesis which describes the attitude determination control system algorithms implemented in the initial attitude acquisition phase on Alsat-1. This phase will complete the detumbling maneuvers. The only attitude determination sensor required, is a magnetometer and the actuator required is a magnetorquer coil. The specific attitude controllers and estimators used during these modes are explained. In orbit commissioning results are presented.
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