An on-chip atomic layer deposited waveguide amplifier with net gain at C-band

Haotian Zhang, Shen-jun Zhu, Xiaoyan Zhou, Lin Zhang
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Abstract

Rare-earth-ion-doped materials provide many opportunities for on-chip amplifiers and light sources, which are important to silicon photonics. Here, we report an erbium-doped waveguide amplifier using atomic layer deposition. Method optimization yields erbium-doped Al2O3 films with excellent optical properties, which are showcased by the high-performance photoresist-erbium-doped Al2O3 hybrid amplifiers. We demonstrate signal enhancements (SE) of 30.4 dB and 16 dB at 1531.6 nm and 1550 nm in a 3.55-cm-long amplifier, respectively, corresponding to net gains of 8.4 dB and 5 dB. Furthermore, SE and gain increase with waveguide length under sufficient pumping, suggesting the potential for achieving greater gains for longer erbium-doped waveguide amplifiers. This work represents an important step towards high-gain rare-earth-ion-doped amplifiers and the integration of active devices on silicon platforms.
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具有 C 波段净增益的片上原子层沉积波导放大器
掺稀土离子材料为芯片放大器和光源提供了许多机会,这对硅光子学非常重要。在此,我们报告了一种使用原子层沉积技术的掺铒波导放大器。方法优化产生的掺铒 Al2O3 薄膜具有优异的光学特性,高性能的光致抗蚀剂-掺铒 Al2O3 混合放大器展示了这一特性。在 3.55 厘米长的放大器中,1531.6 纳米和 1550 纳米波长的信号增强(SE)分别为 30.4 分贝和 16 分贝,净增益分别为 8.4 分贝和 5 分贝。此外,在充分抽运的情况下,SE 和增益随波导长度的增加而增加,这表明更长的掺铒波导放大器有可能获得更大的增益。这项研究是向高增益掺稀土离子放大器和在硅平台上集成有源器件迈出的重要一步。
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