• Infrared and Laser Engineering
  • Vol. 50, Issue 7, 20211048 (2021)
Ming Li1、2、3, Tengfei Hao1、2、3, Shilong Pan4, Xihua Zou5, Binfeng Yun6, Weiwen Zou7, Wei Li1、2、3, and Lianshan Yan5
Author Affiliations
  • 1State Key Laboratory on Integrated Optoelectronics, Institute of Semiconductors, Chinese Academy of Sciences, Beijing 100083, China
  • 2School of Electronic, Electrical and Communication Engineering, University of Chinese Academy of Sciences, Beijing 100049, China
  • 3Center of Materials Science and Optoelectronics Engineering, University of Chinese Academy of Sciences, Beijing 100049, China
  • 4College of Electronic and Information Engineering, Nanjing University of Aeronautics and Astronautics, Nanjing 211106, China
  • 5School of Information Science and Technology, Southwest Jiaotong University, Chengdu 611756, China
  • 6School of Electronic Science and Engineering, Southeast University, Nanjing 210096, China
  • 7School of Electronic Information and Electrical Engineering, Shanghai Jiao Tong University, Shanghai 200240, China
  • show less
    DOI: 10.3788/IRLA20211048 Cite this Article
    Ming Li, Tengfei Hao, Shilong Pan, Xihua Zou, Binfeng Yun, Weiwen Zou, Wei Li, Lianshan Yan. Frontiers and prospects of integrated microwave photonics (Invited)[J]. Infrared and Laser Engineering, 2021, 50(7): 20211048 Copy Citation Text show less
    Semiconductor laser with high power and low noise. (a)-(c) are the semiconductor laser made by Emcore[18] in the U.S.A., Apic[19] in the U.S.A. and Z.K. Litecore[20] in China, respectively
    Fig. 1. Semiconductor laser with high power and low noise. (a)-(c) are the semiconductor laser made by Emcore[18] in the U.S.A., Apic[19] in the U.S.A. and Z.K. Litecore[20] in China, respectively
    Electro-optic modulator with broad bandwidth and low half-wave voltage. (a) Traditional lithium niobate modulator[22]; (b) Thin-film lithium niobate modulator[23]; (c) Plasmonic modulator[14, 21]; (d) InP and silicon modulator with high linearity[24-26]
    Fig. 2. Electro-optic modulator with broad bandwidth and low half-wave voltage. (a) Traditional lithium niobate modulator[22]; (b) Thin-film lithium niobate modulator[23]; (c) Plasmonic modulator[14, 21]; (d) InP and silicon modulator with high linearity[24-26]
    Photodetector with high saturation power. (a) Product of photodetector by II-VI Incorporated[27]; (b) Chip of InP photodetector[28]; (c) Chip of InP on SOI photodetector[29]; (d) Chip of Ge on SOI photodetector[30]
    Fig. 3. Photodetector with high saturation power. (a) Product of photodetector by II-VI Incorporated[27]; (b) Chip of InP photodetector[28]; (c) Chip of InP on SOI photodetector[29]; (d) Chip of Ge on SOI photodetector[30]
    Beamformer chips based on path selection to switch different delays. (a) Silicon nitride 5-bit delay chip with 4 channels[31]; (b) Silicon dioxide 5.5-bit delay chip with 8 channels[32]; (c) Silicon 5-bit beam control chip with 8 channels[33]
    Fig. 4. Beamformer chips based on path selection to switch different delays. (a) Silicon nitride 5-bit delay chip with 4 channels[31]; (b) Silicon dioxide 5.5-bit delay chip with 8 channels[32]; (c) Silicon 5-bit beam control chip with 8 channels[33]
    Beamformer chips based on dispersion tuning of microring resonators. (a) Silicon nitride multi-wavelength tunable delay chip[34]; (b) Silicon nitride tunable delay chip with 4 channels[35]; (c) Silicon beam control chip with 4 channels[36]
    Fig. 5. Beamformer chips based on dispersion tuning of microring resonators. (a) Silicon nitride multi-wavelength tunable delay chip[34]; (b) Silicon nitride tunable delay chip with 4 channels[35]; (c) Silicon beam control chip with 4 channels[36]
    Integrated microwave photonic filters. (a) Microwave photonic filter based on silicon nitride microring resonator[37]; (b) Microwave photonic filter based on SBS effect[38]; (c) Microwave photonic filter based on cascaded silicon nitride microring resonators[39]; (d) SOI integrated microwave photonic filter[40]; (e) Monolithically integrated InP microwave photonic filter[41]
    Fig. 6. Integrated microwave photonic filters. (a) Microwave photonic filter based on silicon nitride microring resonator[37]; (b) Microwave photonic filter based on SBS effect[38]; (c) Microwave photonic filter based on cascaded silicon nitride microring resonators[39]; (d) SOI integrated microwave photonic filter[40]; (e) Monolithically integrated InP microwave photonic filter[41]
    Integrated microwave photonic signal generation chips. (a) InP monolithically integrated microwave photonic oscillator chip[42]; (b) SOI integrated microwave photonic oscillator chip[43]; (c) SOI integrated arbitrary microwave waveform generation chip[44]; (d) SOI integrated chip for the generation of linearly chirped microwave signals[45]
    Fig. 7. Integrated microwave photonic signal generation chips. (a) InP monolithically integrated microwave photonic oscillator chip[42]; (b) SOI integrated microwave photonic oscillator chip[43]; (c) SOI integrated arbitrary microwave waveform generation chip[44]; (d) SOI integrated chip for the generation of linearly chirped microwave signals[45]
    Integrated microwave photonic frequency conversion chips. (a) InP monolithically integrated microwave photonic frequency conversion chip[46]; (b) SOI integrated microwave photonic frequency conversion chip[47]
    Fig. 8. Integrated microwave photonic frequency conversion chips. (a) InP monolithically integrated microwave photonic frequency conversion chip[46]; (b) SOI integrated microwave photonic frequency conversion chip[47]
    Silicon photonics analog to digital conversion chip[48]
    Fig. 9. Silicon photonics analog to digital conversion chip[48]
    Programmable microwave photonic signal processing chips. (a) Programmable microwave photonic integrated signal processing chip based on tunable MZI units[52]; (b) Programmable microwave photonic integrated signal processing chip based on tunable microdisks[53]
    Fig. 10. Programmable microwave photonic signal processing chips. (a) Programmable microwave photonic integrated signal processing chip based on tunable MZI units[52]; (b) Programmable microwave photonic integrated signal processing chip based on tunable microdisks[53]
    Ming Li, Tengfei Hao, Shilong Pan, Xihua Zou, Binfeng Yun, Weiwen Zou, Wei Li, Lianshan Yan. Frontiers and prospects of integrated microwave photonics (Invited)[J]. Infrared and Laser Engineering, 2021, 50(7): 20211048
    Download Citation