扑翼微型飞行器飞行控制快速学习的适应度岛紧凑遗传算法:搜索空间约简方法

K. E. Duncan, S. Boddhu, Monica Sam, J. Gallagher
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引用次数: 2

摘要

主动的飞行控制自适应可以显著地促进昆虫级扑翼微型飞行器的持续有效控制。先前的工作表明,在机翼膜损伤的模拟飞行器中,通过使用飞行自适应学习振荡器,可以在飞行中恢复有效的飞行器姿态和飞行器位置控制精度。最近解决这一问题的方法中有很大一部分采用了适应度岛紧凑型遗传算法(ICGA)进行振荡器学习。本文详细介绍了利用现有ICGA实现的特定领域搜索空间缩减方法及其对飞行中学习时间的影响。此外,将证明所提出的搜索空间缩减方法在车辆正常使用时快速在线产生纠错振荡器配置方面是有效的。本文将给出具体的仿真结果,展示搜索空间约简的价值,并讨论该技术在该问题领域的未来应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Islands of fitness compact genetic algorithm for rapid in-flight control learning in a Flapping-Wing Micro Air Vehicle: A search space reduction approach
On-going effective control of insect-scale Flapping-Wing Micro Air Vehicles could be significantly advantaged by active in-flight control adaptation. Previous work demonstrated that in simulated vehicles with wing membrane damage, in-flight recovery of effective vehicle attitude and vehicle position control precision via use of an in-flight adaptive learning oscillator was possible. A significant portion of the most recent approaches to this problem employed an island-of-fitness compact genetic algorithm (ICGA) for oscillator learning. The work presented in this paper provides the details of a domain specific search space reduction approach implemented with existing ICGA and its effect on the in-flight learning time. Further, it will be demonstrated that the proposed search space reduction methodology is effective in producing an error correcting oscillator configuration rapidly, online, while the vehicle is in normal service. The paper will present specific simulation results demonstrating the value of the search space reduction and discussion of future applications of the technique to this problem domain.
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