Robert Hennig, Alex Beaudette, Holly M Golecki, Conor J Walsh
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引用次数: 0
摘要
正如 "软机器人工具包平台 "所展示的,顺应性机器人技术提供了一个令人兴奋的教育机会。使用柔软起伏鳍的水下机器人技术是一个广阔的研究课题,其应用领域包括探索水下生物或复制 3d 蜂群行为。为了使这一研究领域能够为教育所用,我们开发了电磁驱动教育软体水下机器人(ESURMA),这是一种仿人软体水下机器人。通过在尾鳍上安装电磁驱动装置,我们在简易性、模块化和性能方面都取得了进步。电磁铁(包括电子元件)被放置在一个防水外壳中,永久磁铁被嵌入柔软的硅胶铸造尾鳍中。磁力相互作用产生的力导致尾鳍弯曲运动。磁力驱动的实现非常简单,在被驱动部件和电控线圈之间无需机械连接。这不仅实现了坚固的防水功能,还使设备完全模块化。由于力的直接和即时传递,实验中的拍打频率达到了 14 赫兹,比气动尾翼高出一个数量级。尾鳍的完全静音驱动使最大游泳速度达到 14.3 厘米/秒。ESURMA 具有仿人的外形、模块化的组成和成本效益,是一个极具吸引力的教育平台,并展示了驱动软结构的另一种方法。
Educational Soft Underwater Robot with an Electromagnetic Actuation.
As demonstrated by the Soft Robotics Toolkit Platform, compliant robotics pose an exciting educational opportunity. Underwater robotics using soft undulating fins is an expansive research topic with applications such as exploration of underwater life or replicating 3d swarm behavior. To make this research area accessible for education we developed Educational Soft Underwater Robot with Electromagnetic Actuation (ESURMA), a humanoid soft underwater robot. We achieved advances in simplicity, modularity, and performance by implementing electromagnetic actuation into the caudal fin. An electromagnet, including electronics, is placed in a waterproof housing, and permanent magnets are embedded in a soft silicone cast tail. The force from their magnetic interaction results in a bending movement of the tail. The magnetic actuation is simple to implement and requires no mechanical connection between the actuated component and the electrically controlled coil. This enables robust waterproofing and makes the device fully modular. Thanks to the direct and immediate transmission of force, experimental flapping frequencies of 14 Hz were achieved, an order of magnitude higher compared to pneumatically actuated tails. The completely silent actuation of the caudal fin enables a maximum swimming speed of 14.3 cm/s. With its humanoid shape, modular composition, and cost efficiency ESURMA represents an attractive platform for education and demonstrates an alternative method of actuating soft structures.