连续刚度测量系统中探针尖端的非接触纳米定位

S. Sakuma, F. Arai
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引用次数: 0

摘要

提出了片上探针的非接触式纳米定位方法。为了获得纳米级的分辨率,我们提出了还原机制。利用还原机制成功地实现了片上探针的纳米级非接触驱动。该机构利用磁力和梁与中心结构刚度的差异。片上探头的特点是:1。2.可在生物芯片的流动环境中操作。2 .定位准确,分辨率高;4.平行板机构运行稳定。折减率仅取决于刚度的速率。本文研制了具有还原机理的片上纳米探针。对探针的性能进行了测试。我们成功地实现了片上探针的纳米级非接触驱动。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Noncontact nanometric positioning of probe tip for continuous stiffness measurement system
This paper presents noncontact nanometric positioning of on-chip probe. In order to obtain nanometric order resolution, we proposed the reduction mechanism. We succeeded in nanometric order non-contact actuation of on-chip probe by using reduction mechanism. This mechanism utilizes magnetic force and the difference of stiffness of the beam and center structure. The on-chip probe features are 1.possible to operate in a flow environment in a biochip, 2.accurate positioning with high resolution, 3.parallel plate mechanisms for stable operation and 4.reduction rate depends on only the rate of stiffness. In this paper we developed on-chip nanometric probe with reduction mechanism. The performance of the probe was examined. We succeeded in nanometric order non-contact actuation of on-chip probe.
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