水生无人飞行器(AquaUAV)的生物吸入审查

Xinyang Wang , Jiawei Zhao , Xuan Pei , Tianmiao Wang , Taogang Hou , Xingbang Yang
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引用次数: 0

摘要

由于推进力不足、大阻力结构等原因,水上无人飞行器(AquaUAV)的性能一直受到限制,离实际应用还很遥远。自然界中的水陆两栖动物在长期的自然选择下进化出卓越的水陆两栖运动能力,可能会促进水上无人飞行器的发展。本文将以四种典型的水陆两栖动物为代表,即鲣鸟、鸬鹚、飞鱼和飞乌贼。我们总结了常见水陆两栖动物的多模式运动过程,以及它们为适应水陆两栖环境而做出的进化权衡。研究了四种典型的推进机制,这可能会进一步启发水上无人飞行器的推进设计。它们的形态模型可以指导布局优化。最后,我们回顾了水上无人飞行器的技术现状,以验证我们的生物启发的潜在价值,并讨论了未来前景。
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Bioinspiration review of Aquatic Unmanned Aerial Vehicle (AquaUAV)

The performance of Aquatic Unmanned Aerial Vehicle (AquaUAV) has always been limited so far and far from practical applications, due to insufficient propulsion, large-resistance structure etc. Aerial-aquatic amphibians in nature may facilitate the development of AquaUAV since their excellent amphibious locomotion capabilities evolved under long-term natural selection. This article will take four typical aerial-aquatic amphibians as representatives, i.e., gannet, cormorant, flying fish and flying squid. We summarized the multi-mode locomotion process of common aerial-aquatic amphibians and the evolutionary trade-offs they have made to adapt to amphibious environments. The four typical propulsion mechanisms were investigated, which may further inspire the propulsion design of the AquaUAV. And their morphological models could guide the layout optimization. Finally, we reviewed the state of art in AquaUAV to validate the potential value of our bioinspiration, and discussed the future prospects.

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