• Journal of Infrared and Millimeter Waves
  • Vol. 42, Issue 6, 711 (2023)
Tian-Ying HE, Qiang QIN*, Jin-Cheng KONG, Gang QIN, Chao-Wei YANG, Xiang-Qian WANG, Hong-Fu LI, Qiong-Fang WANG, Yong-Liang LI, Yi-Hu YANG, Yi-Min LI, Lin-Wei SONG, Xiu-Hua YANG, Yun LUO, Nan CHEN, Xu HU, Jun ZHAO, and Peng ZHAO
Author Affiliations
  • Kunming Institute of Physics,Kunming 650223,China
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    DOI: 10.11972/j.issn.1001-9014.2023.06.001 Cite this Article
    Tian-Ying HE, Qiang QIN, Jin-Cheng KONG, Gang QIN, Chao-Wei YANG, Xiang-Qian WANG, Hong-Fu LI, Qiong-Fang WANG, Yong-Liang LI, Yi-Hu YANG, Yi-Min LI, Lin-Wei SONG, Xiu-Hua YANG, Yun LUO, Nan CHEN, Xu HU, Jun ZHAO, Peng ZHAO. High operating temperature p-on-n HgCdTe MWIR 1024×768 FPA detector[J]. Journal of Infrared and Millimeter Waves, 2023, 42(6): 711 Copy Citation Text show less
    The photograph of the MWIR HgCdTe HOT IDCA
    Fig. 1. The photograph of the MWIR HgCdTe HOT IDCA
    Current-voltage characteristics for the MWIR HgCdTe p-on-n photodiode,293 K black body,150 K operating temperature
    Fig. 2. Current-voltage characteristics for the MWIR HgCdTe p-on-n photodiode,293 K black body,150 K operating temperature
    The relative spectral response at 150 K operating temperature,λc= 4.97 μm
    Fig. 3. The relative spectral response at 150 K operating temperature,λc= 4.97 μm
    The dark current dependence on the reciprocal temperature of p-on-n MWIR FPAs versus the predicted values by “Rule 07” and “Law 19”
    Fig. 4. The dark current dependence on the reciprocal temperature of p-on-n MWIR FPAs versus the predicted values by “Rule 07” and “Law 19”
    The temperature dependence of the NETD for the FPAs,measured with an aperture of F/2 in front of a black body at a temperature of 20 ℃
    Fig. 5. The temperature dependence of the NETD for the FPAs,measured with an aperture of F/2 in front of a black body at a temperature of 20 ℃
    The NETD histogram of FPAs at 150 K
    Fig. 6. The NETD histogram of FPAs at 150 K
    The temperature dependence of the operability for FPAs
    Fig. 7. The temperature dependence of the operability for FPAs
    The blind pixel distribution of 1 024×768 MWIR FPAs (above) and the central 512×384 area (below) at 150 K
    Fig. 8. The blind pixel distribution of 1 024×768 MWIR FPAs (above) and the central 512×384 area (below) at 150 K
    The IR-image at an operating temperature of 150 K from MWIR HgCdTe HOT FPAs
    Fig. 9. The IR-image at an operating temperature of 150 K from MWIR HgCdTe HOT FPAs
    ParameterTypical performance
    Format & pitch1024×768,10 μm
    FPA operating temperature150 K
    Spectral band3.7 - 4.97 μm
    Pixel capacity4 Me-@IWR/6 Me-@ITR
    Integration modeITR & IWR
    Power consumption (FPAs)173 mW
    NETD≤20 mK at 50% well fill capacity,F/2
    Operability99.4%
    F#2 or 4
    CoolerC351
    Weight (IDCA)250 g
    Power consumption (IDCA)2.5 W (at 20 ℃)
    Cool down time (IDCA)2.5 min (at 20 ℃)
    Optical axis69.15 mm
    Table 1. Typical performances of the HgCdTe MWIR HOT IDCA
    Tian-Ying HE, Qiang QIN, Jin-Cheng KONG, Gang QIN, Chao-Wei YANG, Xiang-Qian WANG, Hong-Fu LI, Qiong-Fang WANG, Yong-Liang LI, Yi-Hu YANG, Yi-Min LI, Lin-Wei SONG, Xiu-Hua YANG, Yun LUO, Nan CHEN, Xu HU, Jun ZHAO, Peng ZHAO. High operating temperature p-on-n HgCdTe MWIR 1024×768 FPA detector[J]. Journal of Infrared and Millimeter Waves, 2023, 42(6): 711
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