The high-efficiency co-design and the measurement verification of high-bandwidth silicon photonic microring modulator

IF 2.3 4区 计算机科学 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC
Yue Wu, Huimin He, Rui Cao, Fengman Liu
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Abstract

The microring modulator (MRM) is a small-size and low-power component, which is the potential for the next-generation optical interconnection. By the theoretical analysis, increasing the electrical bandwidth, which is relevant to the cross section and the doping concentration of the doping region, is a better way to increase electro-optical (EO) bandwidth. Therefore, a new doping profile of the PN depletion region with 4 doping concentration levels is introduced considering the electrical bandwidth. Based on the new doping profile, the MRM with the 160 μm length and the 0.33 and 0.2 μm coupling space are determined considering the trade-off between the EO bandwidth, quality factor (Q), extinction ratio, area of MRM, and power consumption. Moreover, the MRM is characterised and is applied in a wavelength division multiplexing transmitter. By the measurement, the transmitter with the designed MRM could transmit PAM4 signal at 52 Gbps rate, which indicates the MRM could be potential for the 50 Gbps/ch optical interconnection.

Abstract Image

高带宽硅光子微环调制器的高效协同设计与测量验证
微环调制器(MRM)是一种小尺寸、低功耗的器件,具有实现下一代光互连的潜力。通过理论分析,增加与掺杂区域的横截面和掺杂浓度有关的电带宽是提高电光带宽的较好方法。因此,考虑到电带宽,引入了一个具有4个掺杂浓度水平的PN耗尽区的新掺杂谱。在此基础上,考虑到电磁干扰带宽、质量因子(Q)、消光比、磁阻材料面积和功耗等因素,确定了长度为160 μm、耦合空间为0.33 μm和0.2 μm的磁阻材料。此外,对该MRM进行了表征并应用于波分复用发射机中。通过测试,所设计的MRM发射机能够以52 Gbps的速率传输PAM4信号,表明该MRM具有实现50 Gbps/ch光互连的潜力。
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来源期刊
Iet Optoelectronics
Iet Optoelectronics 工程技术-电信学
CiteScore
4.50
自引率
0.00%
发文量
26
审稿时长
6 months
期刊介绍: IET Optoelectronics publishes state of the art research papers in the field of optoelectronics and photonics. The topics that are covered by the journal include optical and optoelectronic materials, nanophotonics, metamaterials and photonic crystals, light sources (e.g. LEDs, lasers and devices for lighting), optical modulation and multiplexing, optical fibres, cables and connectors, optical amplifiers, photodetectors and optical receivers, photonic integrated circuits, photonic systems, optical signal processing and holography and displays. Most of the papers published describe original research from universities and industrial and government laboratories. However correspondence suggesting review papers and tutorials is welcomed, as are suggestions for special issues. IET Optoelectronics covers but is not limited to the following topics: Optical and optoelectronic materials Light sources, including LEDs, lasers and devices for lighting Optical modulation and multiplexing Optical fibres, cables and connectors Optical amplifiers Photodetectors and optical receivers Photonic integrated circuits Nanophotonics and photonic crystals Optical signal processing Holography Displays
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