带有微联锁机构的中尺度致动装置

Quanfang Chen, D. Yao, C. Kim, G. Carman
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引用次数: 9

摘要

一种新型的概念验证原型中尺度致动器装置(MAD)已经开发出来。MAD类似于压电驱动的尺蠖电机,不同之处在于它采用了机械联锁微电芯取代了传统的摩擦夹紧机构。由单晶硅制成的互锁微栅大大提高了器件的承载能力。对当前设计进行的测试表明,互锁的微晶片在剪切作用下可承受16 MPa的载荷,或者3/spl × 5 mm的锁晶片可承受25 kgf的载荷。为了在高频下操作MAD器件,实现了开环控制信号。微栅的锁定和解锁与伸长和收缩执行器的同步需要电压信号的微小扰动。系统在0.2 Hz至500 Hz(或2 /spl mu/m/s至5 mm/s)范围内成功运行。上限(500hz)是由软件限制施加的,与当前设备的物理限制无关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mesoscale actuator device with micro interlocking mechanism
A novel proof-of-concept prototype Mesoscale Actuator Device (MAD) has been developed. The MAD is similar to piezoelectric driven inchworm motors with the exception that mechanically interlocking microridges replace the traditional frictional clamping mechanisms. The interlocked microridges, fabricated from single crystal silicon, increase the load carrying capability of the device substantially. Tests conducted on the current design demonstrate that the interlocked microridges support 16 MPa in shear or that a 3/spl times/5 mm locked chip supports a 25 kgf load. To operate the MAD device at high frequencies an open loop control signal is implemented. Synchronizing the locking and unlocking of the microridges with the elongating and contracting actuator requires minor perturbations in the voltage signal supplied. The system was successfully operated from 0.2 Hz to 500 Hz (or speeds from 2 /spl mu/m/s to 5 mm/s). The upper limit (500 Hz) is imposed by software limitations and not related to physical limitations of the current device.
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