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Biomimetic and bio-inspired robotics in electric fish research

机译:仿生和仿生机器人在电鱼研究中的应用

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Weakly electric knifefish have intrigued both biologists and engineers for decades with their unique electrosensory system and agile swimming mechanics. Study of these fish has resulted in models that illuminate the principles behind their electrosensory system and unique swimming abilities. These models have uncovered the mechanisms by which knifefish generate thrust for swimming forward and backward, hovering, and heaving dorsally using a ventral elongated median fin. Engineered active electrosensory models inspired by electric fish allow for close-range sensing in turbid waters where other sensing modalities fail. Artificial electrosense is capable of aiding navigation, detection and discrimination of objects, and mapping the environment, all tasks for which the fish use electrosense extensively. While robotic ribbon fin and artificial electrosense research has been pursued separately to reduce complications that arise when they are combined, electric fish have succeeded in their ecological niche through close coupling of their sensing and mechanical systems. Future integration of electrosense and ribbon fin technology into a knifefish robot should likewise result in a vehicle capable of navigating complex 3D geometries unreachable with currentunderwater vehicles, as well as provide insights into how to design mobile robots that integrate high bandwidth sensing with highly responsive multidirectional movement.
机译:数十年来,弱电刀鱼凭借其独特的电感应系统和敏捷的游泳机制吸引了生物学家和工程师。对这些鱼的研究得出的模型阐明了它们的电感应系统和独特的游泳能力背后的原理。这些模型揭示了刀鱼产生推力的机制,这些推力通过腹侧延长的正中鳍产生向前和向后游动,盘旋和背侧拉力。受电鱼启发而设计的主动式主动电感应模型可以在其他感应方式无法实现的浑水中进行近距离感应。人工电感应能够协助导航,检测和识别物体,以及绘制环境图,这是鱼类广泛使用电感应的所有任务。虽然分别进行了机器人带状鳍和人工电感应的研究以减少将它们组合在一起时出现的复杂性,但电鱼通过其传感和机械系统的紧密结合已成功地实现了其生态位。未来将电感应和带状鳍片技术集成到刀鱼机器人中,同样应该会导致车辆能够导航当前水下航行器无法到达的复杂3D几何形状,并提供有关如何设计将高带宽感应与高响应性多方向运动集成在一起的移动机器人的见解。 。

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