反应溅射制备低应力异常色散氮化硅波导

Andreas Frigg, A. Boes, G. Ren, D. Choi, S. Gees, A. Mitchell
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摘要

氮化硅(SiN)波导是一个很有前途的非线性光子器件平台,因为它提供了大的带隙,低双光子吸收,cmos兼容的制造方法和显著的非线性[1,2]。突出的应用是光频梳产生[2]和超连续谱产生[3]。为了提高效率,这些应用需要具有异常群速度色散的波导,这可以通过调整波导尺寸来实现[2,3]。光学质量的SiN薄膜通常是通过LPCVD沉积的,但是高加工温度(约800°C)会导致高层应力和裂纹的形成。在这项工作中,我们研究了反应磁控溅射(PVD)作为低温(< 150°C)沉积用于光波导的SiN薄膜的方法。
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Low Stress, Anomalous Dispersive Silicon Nitride Waveguides Fabricated by Reactive Sputtering
Silicon nitride (SiN) waveguides are a promising platform for nonlinear photonic devices, as it offers a large bandgap, low two-photon absorption, CMOS-compatible fabrication methods and a significant nonlinearity [1,2]. Prominent applications are optical frequency comb generation [2] and supercontinuum generation [3]. These applications require waveguides with an anomalous group velocity dispersion in order to be efficient, which can be achieved by tailoring the waveguide dimensions [2,3]. Optical-quality SiN films are commonly deposited by LPCVD, however the high processing temperatures (> 800 ° C) can cause a high layer stress and crack formation. In this work we investigate reactive magnetron sputtering (PVD) as a method for low temperature (< 150 °C) deposition of SiN thin-films for optical waveguides.
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