Biomimetic Undulatory Robotic Fin Optimization Design Using Computational Fluid Dynamic Method

Yonghua Zhang, Jianhui He, Guoqing Zhang
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引用次数: 1

Abstract

In our previous work, an undulating robotic fin is developed, the design of which is inspired by the pectoral fin of stingray. A Computational Fluid Dynamics (CFD) based comparison of optimal thrust and efficiency generation among four typical fin undulating swimming models with different amplitude envelopes as well as the fin morphologic have been discussed independently. Here, we seek to complement those studies by considering the influence of reciprocal effect between swimming models and morphologic on the fin propulsion performance. The pressure distribution on fin surface was computed and integrated to provide fin forces which were decomposed into lift and thrust. From the simulation, we conclude that: the compliance of the distribution mode of fin outline with amplitude envelope can generate best propulsion effect and fastest swimming speed. These computational results are very useful for optimal design of our undulating robotic fin.
基于计算流体动力学方法的仿生波动机器人鳍优化设计
在我们之前的工作中,受黄貂鱼胸鳍的设计启发,开发了一种波浪状的机器人鳍。基于计算流体力学(CFD)的方法,对不同幅值包络和不同鳍形的四种典型波动游泳模型的最优推力和效率进行了比较。在这里,我们试图通过考虑游泳模式和形态之间的相互作用对鳍推进性能的影响来补充这些研究。计算并集成了翼面压力分布,得到了分解为升力和推力的翼面力。仿真结果表明:鳍形轮廓与振幅包络线分布方式的一致性可以产生最佳的推进效果和最快的游动速度。这些计算结果对我国波浪型机器人鳍的优化设计具有重要的指导意义。
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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