• Acta Photonica Sinica
  • Vol. 51, Issue 2, 0251201 (2022)
Jianwei ZHANG, Yongqiang NING*, Xing ZHANG, Yinli ZHOU, Chao CHEN, Hao WU, Li QIN, and Lijun WANG
Author Affiliations
  • State Key Laboratory of Luminescence and Applications,Changchun Institute of Optics,Fine Mechanics and Physics,Chinese Academy of Sciences,Changchun 130033,China
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    DOI: 10.3788/gzxb20225102.0251201 Cite this Article
    Jianwei ZHANG, Yongqiang NING, Xing ZHANG, Yinli ZHOU, Chao CHEN, Hao WU, Li QIN, Lijun WANG. Development and Future of Vertical Cavity Surface Emitting Lasers Operated at High Temperatures(Invited)[J]. Acta Photonica Sinica, 2022, 51(2): 0251201 Copy Citation Text show less
    The 3D schematic of VCSEL structure
    Fig. 1. The 3D schematic of VCSEL structure
    Reflective spectra of 22-pair DBR consisted of GaAs and AlAs materials
    Fig. 2. Reflective spectra of 22-pair DBR consisted of GaAs and AlAs materials
    The Gain spectra of active region andcavity mode changing with operation temperatures,and thered solid circle indicated the cavity-mode gain at different temperatures[33]
    Fig. 3. The Gain spectra of active region andcavity mode changing with operation temperatures,and thered solid circle indicated the cavity-mode gain at different temperatures33
    The Quantum precision measurement devices[35,42-43]
    Fig. 4. The Quantum precision measurement devices3542-43
    The physical components of chip scale atomic clock[21]
    Fig. 5. The physical components of chip scale atomic clock21
    The external-cavity VCSEL operated under high temperatures and its linewidth[52]
    Fig. 6. The external-cavity VCSEL operated under high temperatures and its linewidth52
    The VCSEL integrated with grating structure,which is used to control the mode and polarization of VCSEL,reported by ULM university[56]
    Fig. 7. The VCSEL integrated with grating structure,which is used to control the mode and polarization of VCSEL,reported by ULM university56
    The inter-contact VCSEL structure reported by Ioffe institute and its diamond-shape oxide aperture[38]
    Fig. 8. The inter-contact VCSEL structure reported by Ioffe institute and its diamond-shape oxide aperture38
    Theelliptical surface shallow integrated on the VCSEL surface,reported by CIOMP(Changchun Institute of Optics,Fine Mechanics and Physics)[66]
    Fig. 9. Theelliptical surface shallow integrated on the VCSEL surface,reported by CIOMP(Changchun Institute of Optics,Fine Mechanics and Physics)66
    The schematic diagram of VCSEL reported by CIOMP,emitting high single-mode power[69]
    Fig. 10. The schematic diagram of VCSEL reported by CIOMP,emitting high single-mode power69
    The VCSEL mesa with closeisolation trench,reported by Suzhou Institute of Nano-Tech and Nano-Bionics[71]
    Fig. 11. The VCSEL mesa with closeisolation trench,reported by Suzhou Institute of Nano-Tech and Nano-Bionics71
    The schematic structure of an oxide-confined VCSEL incorporating a built-inindex guide,reported by Institute of Semiconductors[74]
    Fig. 12. The schematic structure of an oxide-confined VCSEL incorporating a built-inindex guide,reported by Institute of Semiconductors74
    Proportion of energy consumption in data center
    Fig. 13. Proportion of energy consumption in data center
    The schematic structure of high-speed 980 nm VCSEL used for the optical inter-connections[82]
    Fig. 14. The schematic structure of high-speed 980 nm VCSEL used for the optical inter-connections82
    Schematic diagram and top view of VCSELs with different Zn diffusion diameters[86]
    Fig. 15. Schematic diagram and top view of VCSELs with different Zn diffusion diameters86
    The integrated high-speed VCSEL module reported by IMB and CUT[90]
    Fig. 16. The integrated high-speed VCSEL module reported by IMB and CUT90
    Schematicdiagram of VCSELs with Zn diffusion[91]
    Fig. 17. Schematicdiagram of VCSELs with Zn diffusion91
    The SEM image of high-speed VCSELs[92]
    Fig. 18. The SEM image of high-speed VCSELs92
    Wavelength/nmBandwidth/GHzModulation speed/GbpsOperating temperature/℃YearReference
    TU Berlin9801120120200882
    TU Berlin9803885201183
    TU Berlin9802338120201182
    Finisar850101495201284
    Emcore850162885201385
    CUT850214085201386
    NCTU85022.43485201387
    TU Berlin980234685201488
    TU Berlin9803885201489
    TU Berlin980183585201490
    IBM/CUT850215090201591
    NCU850204185201592
    UIUC85024.55085201693
    TU Berlin98024.55085201694
    CUT1 060164085201795
    VIS85025150201896
    VIS85025130201895
    VIS85025180202097
    Table 1. The research development of high-temperature and high-speed VCSELs
    Jianwei ZHANG, Yongqiang NING, Xing ZHANG, Yinli ZHOU, Chao CHEN, Hao WU, Li QIN, Lijun WANG. Development and Future of Vertical Cavity Surface Emitting Lasers Operated at High Temperatures(Invited)[J]. Acta Photonica Sinica, 2022, 51(2): 0251201
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