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BCF swimming locomotion for autonomous underwater robots: a review and a novel solution to improve control and efficiency

机译:自主水下机器人的BCF游泳运动:综述和改进控制和效率的新颖解决方案

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摘要

The development of autonomous, energy efficient, underwater robots for large areas exploration has been attracting many researchers, since their use can be effective in several applications. In order to improve the propulsion efficiency, movement capability and situation awareness, last studies have been directed on biomimetic robots. Over millions of years in a vast and often hostile realm, fish have evolved swimming capabilities far superior in many ways to what has been achieved by nautical technology. Instinctively, they use their superbly streamlined bodies to exploit fluid-mechanical principles, achieving extraordinary propulsion efficiencies, acceleration and manoeuvrability. Their solutions achieved the best performances based on aspects like preys hunting and living conditions. Looking at nature for inspiration as to how design an Autonomous Underwater Vehicle can significantly improve its flexibility and efficiency. This paper presents an examination of the state of the art on biomimetic robotic fishes, underlining the reasons why bio-inspiration can be a winning move and discussing how fish swimming can be the line of sight of the future locomotion technology. The paper concludes with a novel mechanism proposal, designed to produce optimal oscillatory motion between the flexible parts constituting the hull of the robotic fish.
机译:自主的,高能效的水下机器人在大面积勘探中的发展吸引了许多研究人员,因为它们的使用可以在多种应用中有效。为了提高推进效率,运动能力和态势感知,最近的研究针对仿生机器人。在广阔的且常常是敌对的领域中,数百万年来,鱼类的游泳能力在许多方面都远远超过了航海技术所能达到的水平。本能地,他们利用精巧的流线型车身来利用流体力学原理,从而实现非凡的推进效率,加速性和机动性。他们的解决方案基于猎物和生活条件等方面的最佳表现。寻找大自然的灵感,以设计自动水下航行器如何显着提高其灵活性和效率。本文介绍了仿生机器人鱼的最新技术,强调了生物灵感可以成为成功之举的原因,并讨论了鱼游泳如何成为未来运动技术的视线。本文以一种新颖的机制提案作为结尾,该提案旨在在构成机器人鱼船体的柔性部分之间产生最佳振荡运动。

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