微卫星RISING-2姿态控制系统

Kazufumi Fukuda, T. Nakano, Y. Sakamoto, T. Kuwahara, Kazuya Yoshida, Y. Takahashi
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引用次数: 13

摘要

本文概述了日本东北大学和北海道大学正在研制的50公斤级微型卫星RISING-2的姿态控制系统。RISING-2的主要任务是使用直径10厘米、焦距1米的卡塞格伦望远镜进行5米分辨率的地球表面观测。实现这一观测需要精确的姿态控制能力,方向误差小于0.1°,角速度误差小于0.02°/s。此外,由于科学单元的功率消耗比预期的要大,执行器必须以足够低的功率运行。姿态控制系统通过星敏感器、陀螺敏感器、太阳姿态敏感器和反作用轮实现观测的三轴稳定。本文分析了rise -2的姿态控制规律,以保证反作用轮的动力不受限制。该仿真基于组件规格,还包括正在开发的组件的噪声数据。仿真结果表明,在大多数情况下,rise -2姿态控制系统的指向误差小于0.1°。
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Attitude control system of micro satellite RISING-2
This paper summarizes the attitude control system of the 50-kg micro satellite RISING-2, which is now under development by the Tohoku University and Hokkaido University. The main mission of the RISING-2 is Earth surface observations with 5-m resolution using a Cassegrain telescope with 10-cm diameter and 1-m focal length. Accurate attitude control capability with less than 0.1 deg direction errors and less than 0.02 deg/s angular velocity errors is required to realize this observation. In addition, because of the larger power consumption of the science units than expected, actuators must be operated with sufficiently low power. The attitude control system realizes 3-axis stabilization for the observation by means of star sensors, gyro sensors, sun attitude sensors and reaction wheels. In this paper the attitude control law of the RISING-2 is analyzed to keep the power of reaction wheels under the limit. This simulation is based on component specifications and also includes noise data of the components which are under development. The simulation results show that the pointing error is less than 0.1 deg in most time with the RISING-2 attitude control system.
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