一种生物致动器和传感器的研究:含羞草

Ching Lian Chua, F. Chollet, Jie He
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引用次数: 7

摘要

含羞草是一种动作植物,当受到刺激时,它的叶子会闭合。该植物集成了传感和驱动机制,其独特的运动是关于一个类似铰链的点,即pulvinus,这使得运动的特征具有吸引力。在这个项目中,我们设置了实验来测量目标中植物的特性,以估计基于类似原理生产微致动器的可能性。采用不同的传感器测量了装置产生的信号速度、灵敏度、致动器速度、功率和扭矩。结果表明,转矩与驱动体直径有关,驱动器的最高角速度可达1 rad/s。我们开发了一个与实验结果相匹配的现象模型来描述植物的行为,并通过考虑相变行为而不是经典的离子通道模型,提出了植物内部机制的原始物理描述。最后,将植物作动器的能量密度与其他已知的微作动器进行了比较,并讨论了植物作微作动器的可能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Study Of A Biological Actuator And Sensor: The Mimosa Pudica
The Mimosa Pudica is an action plant that closes its leaves when given a stimulus. The plant integrates both sensing and actuating mechanisms, and the distinctive motion is about a hinge-like point, the pulvinus, making the characterization of the motion attractive. In this project, experiments were set up to measure the characteristics of the plants in the goal to estimate the possibility to produce micro-actuator based on a similar principle. The signal speed, the sensitivity, the actuator speed, the power, the torque produced by the plant were measured by using different sensors. The results showed that the torque is dependent on the diameter of the pulvinus and that actuator could reach a top angular velocity of 1 rad/s. We developed a phenomenological model to describe the behavior of the plant that could match experimental results and propose an original physical description of the mechanism inside the plant by considering a phase transition behavior instead of the classical ion channel model. Finally, the plant actuator energy density is also compared with other known micro-actuators and the possibility to use the plant as a micro-actuator is discussed.
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