Design and fabrication optimization of low-crosstalk silicon arrayed waveguide gratings with 32 channels and 100-GHz spacing

被引:2
|
作者
Xie C. [1 ]
Zou X. [1 ]
Zou F. [1 ]
Zhang Y. [2 ]
Yan L. [1 ]
Pan W. [1 ]
机构
[1] School of Information Science & Technology, Southwest Jiaotong University, Sichuan, Chengdu
[2] State Key Lab of Advanced Optical Communication Systems and Networks, Department of Electronic Engineering, Shanghai Jiao Tong University, Shanghai
来源
关键词
Arrayed waveguide grating; Fabrication process; Massive wavelength division multiplexing; Silicon;
D O I
10.1016/j.optlastec.2023.109330
中图分类号
学科分类号
摘要
To satisfy the stringent requirements of large-capacity optical communication systems, the high-performance silicon arrayed waveguide gratings (AWG) with 32 wavelength channels and 100 GHz spacing are designed and fabricated. First of all, three types of arrayed waveguides are designed for seeking better performances, including rectangular-type, arc-type, and S-type ones. During fabrication, the taper connector is then introduced and the waveguide sidewall is further smoothed. Among the samples fabricated using E-beam lithography (EBL), the one with rectangular-type arrayed waveguides is characterized with better performance, showing a crosstalk of −14 dB and an insertion loss of 7.5 dB. Then, the target design with rectangle arrayed waveguides is further optimized and fabricated using 180-nm lithography platform for massive production. Outstanding results are achieved with an insertion loss of 4.5 dB, a channel uniformity of 0.95 dB, and a crosstalk as low as −20.4 dB, respectively. As far as we know, the AWGs might be the first compact silicon one fabricated by commercial lithography platform, characterized by comprehensive specifications (i.e., lowest crosstalk, highest channel uniformity, lowest insertion loss) for massive 100-GHz wavelength multiplexing/de-multiplexing. © 2023 Elsevier Ltd
引用
收藏
相关论文
共 28 条
  • [21] Ultra-Low-Crosstalk Silicon Arrayed-Waveguide Grating (De)multiplexer with 1.6-nm Channel Spacing
    Shen, Xiaowan
    Li, Chenlei
    Zhao, Weike
    Li, Huan
    Shi, Yaocheng
    Dai, Daoxin
    LASER & PHOTONICS REVIEWS, 2024, 18 (01)
  • [22] Low-crosstalk 10-GHz-Spaced 512-channel arrayed-waveguide grating multi/demultiplexer fabricated on a 4-in wafer
    Takada, K
    Abe, M
    Shibata, M
    Ishii, M
    Okamoto, K
    IEEE PHOTONICS TECHNOLOGY LETTERS, 2001, 13 (11) : 1182 - 1184
  • [23] Ultra-Low-Crosstalk Silicon Arrayed-Waveguide Grating (De)multiplexer with 1.6-nm Channel Spacing
    State Key Laboratory for Extreme Photonics and Instrumentation, College of Optical Science and Engineering, International Research Center for Advanced Photonics, Zhejiang University, Zijingang Campus, Hangzhou
    310058, China
    不详
    315100, China
    不详
    314000, China
    不详
    314000, China
    Laser Photon. Rev., 1
  • [24] Low loss 100 GHz spacing Si arrayed-waveguide grating using minimal terrace at slab-array interface
    Okayama, H.
    Onawa, Y.
    Shimura, D.
    Takahashi, H.
    Yaegashi, H.
    Sasaki, H.
    ELECTRONICS LETTERS, 2016, 52 (18) : 1545 - 1546
  • [25] Design and Fabrication of Low-Insertion-Loss and Low-Crosstalk Broadband 2 x 2 Mach-Zehnder Silicon Photonic Switches
    Dupuis, Nicolas
    Lee, Benjamin G.
    Rylyakov, Alexander V.
    Kuchta, Daniel M.
    Baks, Christian W.
    Orcutt, Jason S.
    Gill, Douglas M.
    Green, William M. J.
    Schow, Clint L.
    JOURNAL OF LIGHTWAVE TECHNOLOGY, 2015, 33 (17) : 3597 - 3606
  • [26] Fabrication of low-loss and polarisation-insensitive 256 channel arrayed-waveguide grating with 25 GHz spacing using 1.5% Δ waveguides
    Hida, Y
    Hibino, Y
    Itoh, M
    Sugita, A
    Himeno, A
    Ohmori, Y
    ELECTRONICS LETTERS, 2000, 36 (09) : 820 - 821
  • [27] 32-channel hybrid III-V/silicon laser arrays with 100GHz wavelength spacing based on LSBG structures on silicon waveguide
    Meng, Ranzhe
    Wan, Hailing
    Wang, Mingjin
    Ma, Pijie
    Dong, Fengxin
    Zheng, Wanhua
    SEMICONDUCTOR LASERS AND APPLICATIONS VIII, 2018, 10812
  • [28] Low-Loss and Low-Power Silicon Ring Based WDM 32x100 GHz Filter Enabled by a Novel Bend Design
    Deng, Qingzhong
    El-Saeed, Ahmed H.
    Elshazly, Alaa
    Lepage, Guy
    Marchese, Chiara
    Neutens, Pieter
    Kobbi, Hakim
    Magdziak, Rafal
    De Coster, Jeroen
    Vaskasi, Javad Rahimi
    Kim, Minkyu
    Tong, Yeyu
    Singh, Neha
    Filipcic, Marko Ersek
    Van Dorpe, Pol
    Croes, Kristof
    Chakrabarti, Maumita
    Velenis, Dimitrios
    De Heyn, Peter
    Verheyen, Peter
    Absil, Philippe
    Ferraro, Filippo
    Ban, Yoojin
    Van Campenhout, Joris
    LASER & PHOTONICS REVIEWS, 2025, 19 (05)