机器鱼的尾部推进机制:综述

E. Martínez-García, Roman Lavrenov, E. Magid
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引用次数: 3

摘要

研究人员已经开发了许多人工鱼来模仿生物物种的游泳能力,并了解它们的生物力学水下技能。动机源于对生物运动的高效本质的更深入的理解,这是数百万年进化和适应的结果。以鳍为基础的生物物种在高动态和复杂的水下环境中发展出了卓越的游泳能力和显著的表现。因此,在科学界研究的基础上,本综述集中讨论了用于实现机器鱼尾端推进部分的机械装置。尾部机制是相当有趣的,因为它们可以用来控制惯性和重力,以及在机器鱼中施加很大的动态范围。这篇文章提供了一个简明的综述,重点是鳗状、亚鳃状、亚鳃状、刺状和介形游泳模式的尾鳍机制的工程实现。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Robot Fish Caudal Propulsive Mechanisms: A Mini-Review
Researchers have developed numerous artificial fish to mimic the swimming abilities of biological species and understand their biomechanical subaquatic skills. The motivation arises from the interest to gain deeper comprehension of the efficient nature of biological locomotion, which is the result of millions of years of evolution and adaptation. Fin-based biological species developed exceptional swimming abilities and notable performance in highly dynamic and complex subaquatic environments. Therefore, based on research by the scientific community, this mini-review concentrates on discussing the mechanical devices developed to implement the caudal propulsive segments of robotic fish. Caudal mechanisms are of considerable interest because they may be designed to control inertial and gravitational forces, as well as exerting great dynamic range in robotic fish. This manuscript provides a concise review focused on the engineering implementations of caudal mechanisms of anguilliform, subcarangiform, subcarangiform, thunniform and ostraciiform swimming modes.
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