基于遗传算法的纳米卫星姿态控制器

Anggara Truna Negara Negara, Sigit Mustiko, Lucky Firmansyah
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引用次数: 0

摘要

纳米卫星在今天的研究人员中非常受欢迎,因为它们比大多数大型卫星更便宜,更容易使用。采用分数阶PID (FOPID)控制器可以更好地改善纳米卫星上的系统性能,而这种控制器从未在纳米卫星上的不稳定系统上进行过测试。PID控制器的发展产生了两个分数功率参数,称为FOPID控制器,这使其更具吸引力。遗传算法(GA)在FOPID控制器上产生最优的计算值,因为它已被证明具有更好的性能,并通过ITAE性能指标进行了改进。通过对三轴稳定纳米卫星姿态控制的超调量、上升时间和沉降时间的稳态响应分析,即滚转、俯仰和偏航,得出FOPID控制器优于前人研究的经典PID控制器的结论。基于ITAE性能指标,采用遗传算法(GA)方法研究了FOPID控制器的两个参数对不稳定纳星姿态控制系统的影响,得到了良好的控制效果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
GENETIC ALGORITHM BASED FOPID CONTROLLER FOR NANO-SATELLITE ATTITUDE CONTROL
Nano-satellites are very popular among researchers today because they are more affordable and easier to use than most large satellites. The system performance on nano-satellites needs to be improved for better by using fractional order PID (FOPID) controllers which have never been tested on unstable systems on nano-satellite objects. The PID controller development produces two fractional power parameters called the FOPID controller, which makes it even more attractive. The genetic algorithm (GA) produces the optimal computation value on the FOPID controller because it has been proven to have better performance and is improved by the ITAE performance index. Based on the analysis of responses in a steady-state in the form of overshoot, rise time and settling time on the three-axis stabilized nano-satellite attitude control, namely roll, pitch, and yaw is concluded that the FOPID controller is superior to the classic PID controller that has been previously studied. The effect of the two parameters of the FOPID controller on an unstable system for nano-satellite attitude control shows good performance results based on the ITAE performance index using the genetic algorithm (GA) method.
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