Design and analysis of the biconvex liquid lens with circular hole plate electrode structure

None Kong Meimei, None Xue Yinyan, None Xu Chunsheng, None Dong Yuan, None Liu Yue, None Pan Shicheng, None Zhao Rui
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Abstract

In this paper, based on the research of zoom liquid lens with parallel plate electrode and the principle of dielectrophoresis, a model of the biconvex liquid lens with circular hole plate electrode structure is proposed, which is a novel three-layer liquid lens structure. The dielectrophoretic effect refers to the phenomenon that free dielectric molecules will be polarized and moved by the force in a non-uniform electric field, thus deforming the dielectric liquid. In the dielectrophoretic liquid lens, only two insulating liquid materials with large refractive index difference and dielectric constant difference need to be selected, which can increase the selection range of liquid materials. The liquid lens structure mainly consists of a piece of double-sided conductive flat plate ITO glass with a circular hole and two pieces of single-sided conductive flat plate ITO glass, which respectively form two sets of flat electrode structures to control the upper and lower interfaces of the liquid droplet. In this structure, the influence of the intermediate glass plate on the focus and imaging is reduced by using the flat plate electrode with circular hole. The theoretical analysis of the structure is carried out with simulation software. Firstly, the models of the biconvex liquid lens with circular hole plate electrode under different voltages are built with Comsol software, the data of upper and lower interfaces of the liquid droplet are exported. Then by using Matlab, the surface shapes of the upper and lower interfaces of the droplet are fitted and the corresponding aspheric coefficients are obtained. Finally, the optical models are built with Zemax software, the imaging optical paths and the variation range of focal length under different voltages are analyzed. On the basis of the simulation, the corresponding device is manufactured, and the specific experimental analysis is carried out. The surface pattern of the upper and lower interfaces of the droplet of the biconvex liquid lens under different voltages are recorded, the focal length and imaging resolution of the liquid lens are measured. When the operating voltage is 0V-260V, the focal length varies from 23.8mm to 17.5mm, which is basically consistent with the simulation results(22.6mm-15.9mm). The feasibility of the structure of the biconvex liquid lens with circular hole plate electrode structure is verified by experiments. The imaging resolution can reach 45.255 lp/mm. The results show that this proposed novel three-layer liquid structure of the biconvex liquid lens has the characteristics of simple structure, easy to realize and good imaging quality. Therefore, the research of this biconvex liquid lens can provide a new idea for expanding the high-resolution imaging research of liquid lenses and their applications.
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圆孔板电极结构双凸透镜的设计与分析
本文在对平行平板电极变焦液体透镜进行研究的基础上,根据介质电泳原理,提出了一种圆孔平板电极结构的双凸液体透镜模型,这是一种新型的三层液体透镜结构。介电效应是指在非均匀电场中,自由的介电分子受到力的极化而运动,从而使介电液体发生变形的现象。在介电泳液体透镜中,只需要选择折射率差和介电常数差较大的两种绝缘液体材料,可以增加液体材料的选择范围。液体透镜结构主要由一块带圆孔的双面导电平板ITO玻璃和两片单面导电平板ITO玻璃组成,分别形成两组平面电极结构,控制液滴的上下界面。在该结构中,采用带圆孔的平板电极,减小了中间玻璃板对聚焦和成像的影响。利用仿真软件对结构进行了理论分析。首先,利用Comsol软件建立不同电压下圆孔板电极双凸液透镜的模型,导出液滴上下界面数据;然后利用Matlab对液滴上下界面的表面形状进行拟合,得到相应的非球面系数。最后,利用Zemax软件建立了光学模型,分析了不同电压下的成像光路和焦距变化范围。在仿真的基础上,制作了相应的装置,并进行了具体的实验分析。记录了不同电压下双凸液体透镜液滴上下界面的表面图案,测量了液体透镜的焦距和成像分辨率。当工作电压为0V-260V时,焦距变化范围为23.8mm ~ 17.5mm,与仿真结果(22.6mm-15.9mm)基本一致。实验验证了圆孔板电极结构双凸液体透镜结构的可行性。成像分辨率可达45.255 lp/mm。结果表明,所提出的新型三层液体结构双凸液体透镜具有结构简单、易于实现和成像质量好的特点。因此,该双凸液体透镜的研究可以为拓展液体透镜的高分辨率成像研究及其应用提供新的思路。
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