铌酸锂
材料科学
光电子学
调制(音乐)
光调制器
带宽(计算)
波导管
光通信
混合硅激光器
集成光学
电光调制器
插入损耗
硅
光子学
硅光子学
光学
千兆位
光子集成电路
电子工程
波分复用
相位调制
光调制幅度
光纤
光开关
集成平台
集成电路
光交叉连接
绝缘体上的硅
作者
Mingbo He,Mengyue Xu,Yuxuan Ren,Jian Jian,Ziliang Ruan,Yongsheng Xu,Shengqian Gao,Shihao Sun,Xueqin Wen,Lidan Zhou,Lin Liu,Changjian Guo,Hui Chen,Siyuan Yu,Liu Liu,Xinlun Cai
出处
期刊:Nature Photonics
[Nature Portfolio]
日期:2019-03-04
卷期号:13 (5): 359-364
被引量:1079
标识
DOI:10.1038/s41566-019-0378-6
摘要
Optical modulators are at the heart of optical communication links. Ideally, they should feature low insertion loss, low drive voltage, large modulation bandwidth, high linearity, compact footprint and low manufacturing cost. Unfortunately, these criteria have only been achieved on separate occasions.Based on a Silicon and Lithium Niobate hybrid integration platform, we demonstrate Mach-Zehnder modulators that simultaneously fulfill these criteria. The presented device exhibits an insertion loss of 2.5 dB, voltage-length product of 2.2 Vcm, high linearity, electro-optic bandwidth of at least 70 GHz and modulation rates up to 112 Gbit/s. The high-performance modulator is realized by seamless integration of high-contrast waveguide based on Lithium Niobate - the most mature modulator material - with compact, low-loss silicon circuits. The hybrid platform demonstrated here allows for the combination of 'best-in-breed' active and passive components, opening up new avenues for enabling future high-speed, energy efficient and cost-effective optical communication networks.
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