Prototype of a metasurface scale for an optical rotation angle sensor

Ekaterina A. Efremova, Uliana V. Prokhorova, E. Shalymov, V. Shoev, Vasiliy A. Stolyarov, Maxim A. Nevzorov, Vladimir Y. Venediktov
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Abstract

The use of metasurfaces as scales of optical rotation angle sensors (encoders) makes it possible to reduce their overall dimensions by several orders of magnitude. The paper briefly discusses one of the possible options for implementing a rotation angle sensor with a scale from a metasurface. As a scale it is proposed to use a metasurface – a dielectric onedimensional subwavelength array designed to operate in the infrared spectral range (at a wavelength of 1.5 microns). By the finite element method, a prototype of an optical angular scale from a metasurface has been developed by computer modeling. The results of an experimental study of a prototype of an optical angular scale from a metasurface are presented. The metasurface was made of tantalum oxide and deposited on a quartz glass substrate. For the convenience of the study, the size of the scales was set to 400 × 400 microns, but if necessary, it can be reduced by more than an order of magnitude. The dependences of the transmission spectra of the prototype scale on its rotation angle are experimentally investigated.
用于光学旋转角度传感器的元面刻度原型
使用元曲面作为光学旋转角度传感器(编码器)的刻度,可以将其整体尺寸缩小几个数量级。本文简要讨论了利用元表面刻度实现旋转角度传感器的一种可能方案。本文建议使用元表面作为刻度,元表面是一个电介质一维亚波长阵列,设计用于红外光谱范围(波长为 1.5 微米)。通过有限元法,计算机建模开发出了元表面光学角标原型。本文介绍了元表面光学角标原型的实验研究结果。元表面由氧化钽制成,沉积在石英玻璃基板上。为便于研究,刻度的尺寸设定为 400 × 400 微米,但如果有必要,可以缩小一个数量级以上。实验研究了原型鳞片的透射光谱与旋转角度的关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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