• Study On Optical Communications
  • Vol. 50, Issue 6, 23008401 (2024)
Linjun HOU, Song FENG*, Jie OUYANG, Xiangjian HU..., Haojie LI, Shaokai GUO, Yong LIU, Di WANG, Menglin CHEN, Lulu FENG, Ran ZHOU, Jianyang WU, Yuling ZENG and Xinyi HE|Show fewer author(s)
Author Affiliations
  • School of Science, Xi’an Polytechnic University, Xi’an 710048, China
  • show less
    DOI: 10.13765/j.gtxyj.2024.230084 Cite this Article
    Linjun HOU, Song FENG, Jie OUYANG, Xiangjian HU, Haojie LI, Shaokai GUO, Yong LIU, Di WANG, Menglin CHEN, Lulu FENG, Ran ZHOU, Jianyang WU, Yuling ZENG, Xinyi HE. Research Progress of Silicon based Micro Ring Resonators[J]. Study On Optical Communications, 2024, 50(6): 23008401 Copy Citation Text show less
    Schematic diagram of conventional circular MRR structure
    Fig. 1. Schematic diagram of conventional circular MRR structure
    Runway type MRR with two bus waveguides and four ports
    Fig. 2. Runway type MRR with two bus waveguides and four ports
    Schematic diagram of optimization of runway type MRR structure
    Fig. 3. Schematic diagram of optimization of runway type MRR structure
    Schematic diagram of runway type MRR with DI design
    Fig. 4. Schematic diagram of runway type MRR with DI design
    Schematic diagram of series/parallel cascaded MRR structure
    Fig. 5. Schematic diagram of series/parallel cascaded MRR structure
    WDM multiplexer based on second-order MRR cascaded structure
    Fig. 6. WDM multiplexer based on second-order MRR cascaded structure
    Schematic diagram of internal and external MRR structure
    Fig. 7. Schematic diagram of internal and external MRR structure
    Schematic diagram of MZI embedded MRR array with multiple wavelength inputs
    Fig. 8. Schematic diagram of MZI embedded MRR array with multiple wavelength inputs
    Schematic diagram of tunable MRR
    Fig. 9. Schematic diagram of tunable MRR
    Schematic diagram of pressure sensor based on MRR
    Fig. 10. Schematic diagram of pressure sensor based on MRR
    MRR vertical view
    Fig. 11. MRR vertical view
    Schematic diagram of a mixed Si3N4-LiNbO3 MRR
    Fig. 12. Schematic diagram of a mixed Si3N4-LiNbO3 MRR
    年份类型R/μmQFSR/nm参考文献
    2012All-Pass50.07.6×105[9]
    2012All-Pass2 450.02.0×1070.043[10]
    2015Add-Drop1 270.01.2×1050.202[11]
    2015Add-Drop8.12.0×10411.350[12]
    2017All-Pass115.03.7×107[13]
    2019All-Pass60.08.0×1052.000[14]
    2020All-Pass29.01.3×1060.900[15]
    2021All-Pass50.01.0×1062.000[16]
    2022Add-Drop20.07 750.08.000[17]
    Table 1. Performance parameters of conventional circular MRR
    年份R/μmQFSR/nmFWHM/nm参考文献
    2018201.14×106[37]
    201939 661.0028.0000.16[39]
    2019910.400[30]
    2019201.38×1040.11[40]
    2021106 276.008.160[41]
    2023107.40×104[42]
    20222085 261.000.2950.02[43]
    2021400.15[44]
    20215010 511.000.15[38]
    Table 2. Performance parameters of MRR based SOI
    年份平台R/μmQFSR/nmFWHM/nm参考文献
    2017GaN404.14[56]
    2020GaN8.00×10325.300.200 0[21]
    2017Al2O31505.40×104[57]
    2018SiON6302.20×1040.390.070 0[58]
    2018Si3N41201.05×107[59]
    2023Si3N42046 552.00[23]
    2022Si3N4207 750.008.00[17]
    2022Si3N41004.80×105[60]
    2023Si3N41654.40×1051.210.003 6[50]
    2023Si3N4207.70×1038.000.200 0[49]
    2022Si3N4551.6028.462.810 0[61]
    2022Si3N4102.30×10319.00[62]
    2019Si3N456>1063.38[63]
    Table 3. Performance parameters of MRR based on III-V family materials
    年份R/μmQFSR/nmFWHM传输损耗/dB/cmER/dB参考文献
    2012201.3×1045.050.118 nm1.30[68]
    20181.9×1050.3227.00[69]
    20221304.800 GHz0.6234.73[70]
    20214.750 GHz34.76[66]
    20192008.0×1050.830.33[71]
    2022153 706.0[72]
    20195200.550.040 nm8.00[73]
    2020155 546.0[74]
    2019505.3×105[75]
    20193.1×1045.230.050 nm7.5025.00[64]
    20193001.8×1050.580.3227.00[67]
    Table 4. Performance parameters of MRR based on LN
    Linjun HOU, Song FENG, Jie OUYANG, Xiangjian HU, Haojie LI, Shaokai GUO, Yong LIU, Di WANG, Menglin CHEN, Lulu FENG, Ran ZHOU, Jianyang WU, Yuling ZENG, Xinyi HE. Research Progress of Silicon based Micro Ring Resonators[J]. Study On Optical Communications, 2024, 50(6): 23008401
    Download Citation