Toward very large format infrared detector arrays

被引:0
|
作者
Gunapala, S. D. [1 ]
Bandara, S. V. [1 ]
Liu, J. K. [1 ]
Mumolo, J. M. [1 ]
Hill, C. J. [1 ]
Ting, D. Z. [1 ]
Kurth, E. [1 ]
Woolaway, J. [2 ]
LeVan, P. D. [3 ]
Tidrow, M. Z. [4 ]
机构
[1] CALTECH, Jet Prop Lab, 4800 Oak Grove Dr, Pasadena, CA 91109 USA
[2] FLIR Syst Inc, Indigo Operat, Goleta, CA 93117 USA
[3] Air Force Res Lab, Kirtland AFB, NM 87117 USA
[4] Missile Def Agcy DV, Washington, DC 20301 USA
关键词
infrared detectors; maga-pixel; QWIP; dualband; two-color; infrared imaging; focal plane arrays;
D O I
10.1117/12.753485
中图分类号
TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
Mid-wavelength infrared (MWIR) and long-wavelength infrared (LWIR) 1024x 1024 pixel InGaAs/GaAs/AlGaAs based quantum well infrared photodetector (QWIP) focal planes have been demonstrated with excellent imaging performance. The MWIR QWIP detector array has demonstrated a noise equivalent differential temperature (NEAT) of 17 mK at a 95K operating temperature with f/2.5 optics at 300K background and the LWIR detector array has demonstrated a NEAT of 13 mK at a 70K operating temperature with the same optical and background conditions as the MWIR detector array after the subtraction of system noise. Both MWIR and LWIR focal planes have shown background limited performance (BLIP) at 90K and 70K operating temperatures respectively, with similar optical and background conditions. It is well known that III-V compound semiconductor materials such as GaAs, InP, etc. are easy to grow and process into devices. In addition, III-V compound semiconductors are available in large diameter wafers, up to 8-inches. Thus, III-V compound semiconductor based infrared focal plane technologies such as QWIP, InSb, and strain layer superlattices (SLS) are potential candidates for the development of large format focal planes such as 4096x4096 pixels and larger. In this paper, we will discuss the possibility of extending the infrared detector array size up to 16 megapixels.
引用
收藏
页数:10
相关论文
共 50 条
  • [21] A cryogenic testbed for the characterisation of large detector arrays for astronomical and Earth-observing applications in the near to very-long-wavelength infrared
    Brien, Thomas L. R.
    Ade, Peter A. R.
    Haiml, Markus
    Hargrave, Peter C.
    Hoehnemann, Holger
    Pascale, Enzo
    Sudiwala, Rashmi V.
    Van Aken, Dirk
    SPACE TELESCOPES AND INSTRUMENTATION 2016: OPTICAL, INFRARED, AND MILLIMETER WAVE, 2016, 9904
  • [22] Very low noise AC/DC power supply systems for large detector arrays
    Arnaboldi, C.
    Bau, A.
    Carniti, P.
    Cassina, L.
    Giachero, A.
    Gotti, C.
    Maino, M.
    Passerini, A.
    Pessina, G.
    REVIEW OF SCIENTIFIC INSTRUMENTS, 2015, 86 (12):
  • [23] Three-dimensional modeling and simulation of large-format hybrid indium antimonide detector arrays
    Zhang, Li-Wen
    Shao, Ming
    Zhang, Xiao-Ling
    Meng, Qing-Duan
    Wang, Jin-Chan
    Lv, Yan-Qiu
    OPTICAL ENGINEERING, 2013, 52 (10)
  • [24] Operational and performance comparisons between conventional and foveating large format infrared focal plane arrays
    Massie, MA
    Curzan, JP
    Coussa, RA
    Infrared Technology and Applications XXXI, Pts 1 and 2, 2005, 5783 : 260 - 271
  • [25] Large-format infrared arrays for future space and ground-based astronomy applications
    Love, PJ
    Ando, KJ
    Bornfreund, RE
    Corrales, E
    Mills, RE
    Cripe, JR
    Lum, NA
    Rosbeck, JP
    Smith, MS
    INFRARED SPACEBORNE REMOTE SENSING IX, 2001, 4486 : 373 - 384
  • [26] Modeling and stress analysis of large format InSb focal plane arrays detector under thermal shock
    Zhang, Li-Wen
    Meng, Qing-Duan
    Zhang, Xiao-Ling
    Yu, Qian
    Lv, Yan-Qiu
    Si, Jun-Jie
    INFRARED PHYSICS & TECHNOLOGY, 2013, 60 : 29 - 34
  • [27] INFRARED DETECTOR ARRAYS BY RF SPUTTERING
    CORSI, C
    ALFIERI, I
    PETROCCO, G
    INFRARED PHYSICS, 1972, 12 (04): : 271 - &
  • [28] Hybrid and monolithic infrared detector arrays
    Van Hoof, C
    Zimmermann, L
    John, J
    De Moor, P
    Kavadias, S
    Gastal, M
    Németh, S
    Borghs, G
    Merken, P
    FIFTH INTERNATIONAL CONFERENCE ON MATERIAL SCIENCE AND MATERIAL PROPERTIES FOR INFRARED OPTOELECTRONICS, 2001, 4355 : 23 - 31
  • [30] RESPONSIVITY UNIFORMITY OF INFRARED DETECTOR ARRAYS
    NORTON, P
    RADFORD, W
    SEMICONDUCTOR SCIENCE AND TECHNOLOGY, 1991, 6 (12C) : C96 - C98