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Velocity characterization and control strategies for nano-robotic systems based on piezoelectric stick-slip actuators

机译:基于压电粘滑执行器的纳米机器人系统的速度表征和控制策略

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Nano-robotic systems based on Piezoelectric StickSlip (PSS) actuators have become increasingly popular in research and industry for semi-automated and automated tasks at small scales. For an efficient use of PSS actuators, a series of research have been fulfilled on design process, dynamic modeling, driving methods and position control. However, there have been very few investigations on velocity control of PSS actuators. Velocity control is important to enable the nano-robotic system to generate a smooth and efficient motion and to avoid the undesired inertial shock of the end effector. This paper deals with velocity characterization and control strategies for nano-robotic systems based on PSS actuators. The range of achievable velocities on PSS actuators is studied in air and vacuum environments. This analysis allows the definition of a detailed map of the velocity characteristics in forward and backward directions of motion. Velocity control strategies are then studied based on an instantaneous velocity feedback and an average velocity feedback. Results of the proposed method show the first experimental demonstration of velocity control for PSS actuators in medium and high speed configurations opening new perspectives on the use of nano-robotic systems in dynamic automated tasks.
机译:基于压电StickSlip(PSS)致动器的纳米机器人系统在研究和工业中已变得越来越流行,用于小规模的半自动化和自动化任务。为了有效地使用PSS执行器,在设计过程,动态建模,驱动方法和位置控制方面进行了一系列研究。但是,关于PSS执行器速度控制的研究很少。速度控制对于使纳米机器人系统能够产生平稳有效的运动并避免末端执行器产生不希望的惯性冲击非常重要。本文研究了基于PSS执行器的纳米机器人系统的速度表征和控制策略。在空气和真空环境中研究了PSS执行器的可达到的速度范围。这种分析可以定义运动向前和向后方向的速度特性的详细映射。然后基于瞬时速度反馈和平均速度反馈来研究速度控制策略。提出的方法的结果显示了中,高速配置中PSS执行器速度控制的第一个实验演示,这为在动态自动化任务中使用纳米机器人系统开辟了新的视角。

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