Correctability and long-term stability of infrared focal plane arrays

被引:35
|
作者
Gross, W
Hierl, T
Schulz, M
机构
[1] Bavarian Ctr Appl Energy Res, ZAE Bayern, D-91058 Erlangen, Germany
[2] Univ Erlangen Nurnberg, Inst Appl Phys, D-91058 Erlangen, Germany
关键词
IR focal plane arrays; correctability; nonuniformity correction; long-term stability; bad pixels;
D O I
10.1117/1.602055
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
The temperature resolution of infrared focal plane arrays is limited by temporal and spatial noise. The spatial noise usually is partially removed by correction procedures. These correction procedures reduce the spatial noise to a magnitude below the temporal noise. The correctability c defined as the ratio of the spatial to the temporal noise is a figure of merit for the state of the correction. We consider the transient degradation of the correctability after correction. A new figure of merit, the long-term stability time constant tau(lts) is introduced. This time indicates the duration after a nonuniformity correction during which the spatial noise increases to values higher than that of the temporal noise. Several staring infrared focal plane arrays differing in size and in detector material are investigated. The correctability c is determined after various correction procedures and the long-term stability time tau(lts) is measured. The degradation of the correctability is caused by a few individual pixels in the detector array. We can classify three different types of "bad pixels, which degrade the correctability. These are weak pixels that show a low responsivity and flickering and drifting pixels that show excessive 1/f-noise. (C) 1999 Society of Photo-Optical Instrumentation Engineers. [S0091-3286(99)01805-X].
引用
收藏
页码:862 / 869
页数:8
相关论文
共 50 条
  • [31] Antimonide Based Infrared Detectors and Focal Plane Arrays
    Krishna, Sanjay
    2018 IEEE RESEARCH AND APPLICATIONS OF PHOTONICS IN DEFENSE CONFERENCE (RAPID), 2018, : 141 - 141
  • [32] Lead chalcogenides based infrared focal plane arrays
    Agranov, GA
    Novoselov, SK
    Nesterov, VK
    Sergeev, DN
    THIRD CONFERENCE ON PHOTONIC SYSTEMS FOR ECOLOGICAL MONITORING, 1997, 3200 : 163 - 168
  • [33] Current status of infrared detectors and focal plane arrays
    Park, YS
    JOURNAL OF THE KOREAN PHYSICAL SOCIETY, 1998, 32 (04) : 443 - 451
  • [34] On-chip ADC for infrared focal plane arrays
    Gao Lei
    Chen Guo-qiang
    Wang Pan
    Ding Rui-jun
    INTERNATIONAL SYMPOSIUM ON PHOTOELECTRONIC DETECTION AND IMAGING 2013: INFRARED IMAGING AND APPLICATIONS, 2013, 8907
  • [35] SHORT WAVELENGTH INFRARED HYBRID FOCAL PLANE ARRAYS
    VURAL, K
    BLACKWELL, JD
    MARIN, EC
    EDWALL, DD
    RODE, JP
    PROCEEDINGS OF THE SOCIETY OF PHOTO-OPTICAL INSTRUMENTATION ENGINEERS, 1983, 409 : 107 - 111
  • [36] SOI diode uncooled infrared focal plane arrays
    Kimata, Masafami
    Ueno, Masashi
    Takeda, Munehisa
    Seto, Toshiki
    QUANTUM SENSING AND NANOPHOTONIC DEVICES III, 2006, 6127
  • [37] Monolithic integration of diffractive microlens arrays and infrared focal plane arrays
    Chen, SH
    Yi, XJ
    Wang, HC
    Liu, LQ
    Wang, YG
    INTERNATIONAL JOURNAL OF INFRARED AND MILLIMETER WAVES, 2002, 23 (05): : 705 - 710
  • [38] Dual-band infrared focal plane arrays
    Rogalski, A
    16TH INTERNATIONAL CONFERENCE ON PHOTOELECTRONICS AND NIGHT VISION DEVICES, 2000, 4340 : 1 - 14
  • [39] Solution for the nonuniformity correction of infrared focal plane arrays
    Zhou, HX
    Liu, SQ
    Lai, R
    Wang, DB
    Cheng, YB
    APPLIED OPTICS, 2005, 44 (15) : 2928 - 2932
  • [40] Silicon photodetectors for longwave infrared focal plane arrays
    Chernokozhin, VV
    Smart Imagers and Their Application, 2005, 5944 : 12 - 23