基于粘滑效应的显微定位器

A. Bergander, J. Breguet, C. Schmitt, R. Clavel
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引用次数: 47

摘要

压电致动器广泛用于需要亚微米分辨率的精确定位。对于那些行程取决于材料,通常被限制在执行器长度的一小部分的执行器,增加其工作范围的可能手段之一是执行器的步进运动。我们使用基于粘滑效应的步进运动,以便在保持几乎无限分辨率的优势的同时实现长距离。在本文中,我们介绍了专用于在显微镜下处理样品的微型x-y级。正如以前的设置和实验所表明的,在显微镜或微装配中定位的平行运动学结构不太适合,因为执行器的x和y运动相互影响。因此,开发了一个具有串行运动结构的系统。该装置将提供与现有电动定位平台相同的功能,但成本低于手动定位平台,且尺寸非常紧凑。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Micropositioners for microscopy applications based on the stick-slip effect
Piezo actuators are widely used for precision positioning purposes where a submicron resolution is needed. Among the possible means to increase the working range of those actuators whose stroke is, depending on the material, usually limited to a small fraction of the actuator length, is a stepping motion of the actuator. We use a stepping motion based on the stick and slip effect in order to achieve a long range while maintaining the advantage of a virtually unlimited resolution. In this paper we introduce miniature x-y-stages dedicated to the manipulation of samples under a microscope. As previous setups and experiments have shown, a parallel kinematic structure for positioning purposes in microscopy or micro assembly is not well suited because x and y motion of the actuators have an influence on each other. A system with a serial kinematic structure has therefore been developed. The proposed device will provide the same capabilities as existing motorized stages, but at a lower cost than manual positioning stages and at a very compact size.
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