A stick-slip linear actuator with high speed and nano-resolution by resonance/non-resonance hybrid driving.

Peng Ning, Guangda Qiao, Xiao Xia, Xiaohui Lu, Tinghai Cheng
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引用次数: 2

Abstract

To achieve high speed, nano-resolution, and large stroke, a resonance/non-resonance hybrid piezoelectric stick-slip actuator with a lever-type flexure hinge (LTFH-PSSA) is proposed in this work. The actuator can achieve high speed and large stroke in the resonance mode by the stick-slip working principle and achieve nano-resolution in the non-resonant mode by the direct drive working principle. The excitation electrical signals used in the two working modes are the sine waveform and half-sine waveform, respectively. Compared with the traditional sawtooth waveform, the excitation signal of the sine and half-sine waveforms have no sudden change of voltage, which are more conducive to reduce the impact and vibration of the system. Moreover, a series of static analysis and modal analysis of the stator are carried out by the finite element method. The experimental system is built to test the output characteristics of the LTFH-PSSA. In the resonance state by the stick-slip working principle, the impedance analysis and frequency characteristic test of the LTFH-PSSA are carried out, which states that the tested resonance frequency agrees well with the simulated ones. When the locking force, the voltage, and the frequency are 2 N, 100 Vp-p, and 1850 Hz, the speed of the LTFH-PSSA is up to 52.71 mm/s, and the backward motion is suppressed completely as well. In the non-resonance state, the resolution can reach 2.19 nm and 2.69 nm in the forward and backward motion, respectively. So far, the proposed actuator ranks first in speed and resolution among all reported LTFH-PSSAs.
采用共振/非共振混合驱动的高速纳米分辨率粘滑线性驱动器。
为了实现高速度、纳米分辨率和大行程,本文提出了一种带有杠杆型柔性铰链的谐振/非谐振混合式压电粘滑驱动器(LTFH-PSSA)。该驱动器采用粘滑工作原理在谐振模式下实现高速大行程,采用直接驱动工作原理在非谐振模式下实现纳米分辨率。两种工作方式使用的激励电信号分别为正弦波形和半正弦波形。与传统的锯齿形波形相比,正弦和半正弦波形的激励信号没有电压的突然变化,更有利于减少系统的冲击和振动。采用有限元法对定子进行了一系列的静力分析和模态分析。为了测试LTFH-PSSA的输出特性,搭建了实验系统。在粘滑工作原理谐振状态下,对LTFH-PSSA进行了阻抗分析和频率特性测试,结果表明,测试谐振频率与仿真谐振频率吻合较好。当锁紧力为2 N、电压为100 Vp-p、频率为1850 Hz时,LTFH-PSSA的速度可达52.71 mm/s,并能完全抑制倒向运动。在非共振状态下,向前运动和向后运动的分辨率分别达到2.19 nm和2.69 nm。到目前为止,该驱动器在所有已报道的LTFH-PSSAs中速度和分辨率排名第一。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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