LNOI 表面化学机械抛光实验研究

Xutao Zhang, Jianfeng Bao, Feng Yang, Ziyang Li, Dengcai Yang
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摘要

近年来,铌酸锂(LiNbO3)作为一种重要的光子材料被广泛应用于光纤通信、量子通信、光纤陀螺仪和微波光子学等领域。绝缘体铌酸锂(LNOI)作为一种新兴的光子集成材料备受关注。与传统的铌酸锂晶体材料相比,铌酸锂绝缘体材料能够实现光子器件的微型化,具有更高的效率和更低的能耗,因此在光子器件的设计和制造方面显示出巨大的潜力。然而,由于 LNOI 材料硬度高、化学性质不活泼,传统半导体工艺无法加工其纳米结构,限制了器件关键性能指标的优化,从而阻碍了高质量、微型化 LNOI 光电功能器件的进一步发展。在 LNOI 波导的制备过程中,蚀刻形成的脊波导侧壁往往不够平整,这可能会导致光散射损耗增加。为解决这一问题,表面抛光技术,尤其是化学机械抛光(CMP),已成为一种重要的方法。利用 CMP 抛光 LNOI 器件的表面,可以降低蚀刻后波导侧壁的粗糙度,提高器件的性能和功率传输效率,确保侧壁表面平整光滑,从而实现最小的光耦合损耗和最大的功率传输。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Experimental study on chemical mechanical polishing of LNOI surfaces
In recent years, lithium niobate (LiNbO3) has been widely used in optical fiber communication, quantum communication, fiber optic gyroscopes and microwave photonics as an important photonic material. Lithium niobate on insulator (LNOI) has attracted much attention as an emerging photonic integrated material. Compared with traditional lithium niobate crystal materials, LNOI materials have the ability to realize miniaturized photonic devices with higher efficiency and lower energy consumption, thus showing great potential in the design and manufacture of photonic devices. However, due to the high hardness and inactive chemical properties of LNOI materials, the traditional semiconductor process cannot process its nanostructures, which limits the optimization of the key performance indicators of the device, thus hindering the further development of high-quality and miniaturized LNOI optoelectronic functional devices. In the preparation process of the LNOI waveguide, the sidewall of the ridge waveguide formed by etching is often not flat enough, which may lead to an increase in light scattering loss. To solve this problem, surface polishing technology, especially chemical mechanical polishing (CMP), has become an important method. Polishing the surface of the LNOI device by CMP can reduce the roughness of the waveguide sidewall after etching, improve the performance and power transmission efficiency of the device, and ensure that the sidewall surface is flat and smooth to achieve the minimum optical coupling loss and maximum power transmission.
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