利用热纳米压印光刻技术实现在可见波长下工作的聚合物光学器件的图像化

Miguel Diez Garcia, V. Raimbault, S. Joly, L. Oyhenart, L. Bilbao, C. Nguyên, I. Ledoux-Rak, L. Béchou, I. Obieta, C. Dejous
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引用次数: 1

摘要

热紫外纳米压印光刻技术是一种快速可靠的工艺,可以从软压印上制造大规模集成聚合物光学元件。该技术已经为红外区域的光通信提供了聚合物集成组件。然而,必须解决几个制造问题,以实现在可见区域工作的光学元件的可靠批量生产,特别是在具有纳米特征的大型器件的图像化时。本文报道了用SU-8电阻制作光栅耦合器和光学微环谐振器的结果。该器件设计用于单模可见波长操作,致力于未来的光学传感应用。为此,需要亚微米波导。我们报告了软邮票制造的两个主要缺陷:部分侧壁剥离和移位或双重压印的特征。利用软压印器件实现了SU-8波导的纳米压印。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enabling patterning of polymer optical devices working at visible wavelength using thermal nano-imprint lithography
Thermal Ultraviolet NanoImprint Lithography is a fast and reliable process to manufacture large scale integrated polymer-based optical components from a soft stamp. This technology already provides polymer integrated components for optical communications operating in the infrared region. However, several fabrication issues must be addressed to enable reliable mass production of optical components working in the visible region, especially when patterning large devices with nanometric features. In this work, we report our fabrication results on grating coupler and optical microring resonators with SU-8 resist. The device is conceived for monomode visible wavelength operation dedicated to future optical sensing applications. For this purpose, sub-micron waveguides are needed. We reported two main defects on soft stamp fabrication: partial sidewall detachment and shifted or double embossing of the features. Nanoimprinting SU-8 waveguides was achieved with the operational devices of the soft stamp.
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