All-glass metasurface laser optics for lensing, antireflections, and waveplates

Laser Damage Pub Date : 2023-11-24 DOI:10.1117/12.2685561
Eyal Feigenbaum, N. Ray, Jae Hyuck Yoo, Hoang T. Nguyen, Michael A. Johnson
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Abstract

Metasurfaces exhibit great potential to redefine limitations inhibiting high power laser optics. Some areas of expected improvement include throughput improvement with enhanced design flexibility, mitigation of filamentation damage by enabling thinner optics, and reduction in system complexity and price. Metasurface utilize engineered surface ‘layer’ with thickness on the order of the design wavelength, which consists of an array of sub-wavelength elements. Our methodology is based on scalable generation of sacrificial metal nanoparticle mask followed by directional etching to pattern the glass. The end-result all-glass metasurface has high laser damage durability, mechanical robustness, design flexibility and controllability of the metasurface features, and the ability to craft antireflective layers and basic optical elements. Recent advancements have been made resulting in ultra-broadband antireflective layers, induced birefringence in the glass for waveplates, and refined optical elements.
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用于透镜、抗反射和波峰板的全玻璃超表面激光光学元件
元表面在重新定义阻碍高功率激光光学的限制方面展现出巨大的潜力。预期改进的一些领域包括:通过提高设计灵活性来提高产量;通过实现更薄的光学器件来减轻丝状损伤;以及降低系统复杂性和价格。元表面利用厚度与设计波长相当的工程表面 "层",它由亚波长元件阵列组成。我们的方法基于可扩展的牺牲金属纳米粒子掩模的生成,然后通过定向蚀刻对玻璃进行图案化。最终得到的全玻璃元表面具有很高的激光损伤耐久性、机械坚固性、设计灵活性和元表面特征的可控性,以及制作抗反射层和基本光学元件的能力。最近取得的进展包括超宽带抗反射层、用于波板的玻璃中的诱导双折射以及精制光学元件。
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