一种新型自定位焦距调谐微透镜制造方法

Seihwan Jung, Kook-Nyung Lee, Y. Jang, Yong-Kweon Kim
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引用次数: 3

摘要

我们报道了一种固体微透镜,具有自定位和调节焦距,利用疏水效应和电润湿。我们提出了一种利用一个光掩膜同时对准电极中心和疏水图案的新制造方法。所提出的制造方法通过使用UV固化聚合物提供固体微透镜。在紫外曝光凝固前,通过对电极施加电压,可以将液体微透镜的焦距调整到目标值。实验表明,电润湿对焦距的调节范围为0.43 mm。它涵盖了微透镜的初始焦距偏差0.21 mm。7个样品的焦距初始分布范围为1.78 ~ 1.58 mm。它们的焦距通过施加1.77到1.82毫米的电压来控制。测量了体积收缩和随后的焦距变化,测量到的光学损失分别为0.92和0.49 dB(红色和绿色)。测量的表面粗糙度为4 nm,适用于光学微系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Novel fabrication method of self positioned and focal length tuned microlens
We report a solid microlens with self-positioning and tuned focal length using hydrophobic effects and electrowetting. We propose a novel fabrication method aligning the centers of electrodes and hydrophobic pattern simultaneously using one photomask. The proposed fabrication method offers a solid microlens by using a UV curable polymer. The focal length of the liquid microlens can be tuned to the targeted value by applying voltage to the electrodes before UV exposure solidification. Experiments showed that the tuning range of focal length by using electrowetting is 0.43 mm. It covers the initial focal length deviation 0.21 mm of the microlens. Seven samples showed an initial distribution from 1.78 to 1.58 mm in focal length. Their focal lengths are controlled by applying voltages from 1.77 to 1.82 mm. Volume contraction and following focal length change were evaluated, and optical losses are measured to be 0.92 and 0.49 dB in red and green, respectively. The measured surface roughness is 4 nm, which is applicable to optical micro-systems.
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