Modeling and simulation of a cubesat using nonlinear control in an elliptic orbit

R. Schlanbusch, E. Oland, P. J. Nicklasson
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引用次数: 5

Abstract

In this paper we present dynamics and control of a spacecraft in an elliptic orbit. Our contribution is modeling and determination of the angular velocity of the satellite orbit reference frame using a Local Vertical/Local Horizontal (LVLH) orbit reference frame and an orbit propagator without the constraint of no out of plane motion. A non-linear passivity-based sliding surface controller is derived, uniformly asymptotically stability (UAS) is proven, and the control law is adapted to work for magnetic torquers. Simulations are performed on a CubeSat model showing the performance of our model and controller.
基于椭圆轨道非线性控制的立方体卫星建模与仿真
本文研究了航天器在椭圆轨道上的动力学和控制问题。我们的贡献是利用局部垂直/局部水平(LVLH)轨道参考系和无离面运动约束的轨道传播器对卫星轨道参考系的角速度进行建模和确定。推导了一种基于非线性无源的滑动面控制器,证明了该控制器的一致渐近稳定性,并使控制律适用于磁转矩器。在CubeSat模型上进行了仿真,验证了模型和控制器的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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