Ground detectors for optical communications from deep space

被引:6
|
作者
Biswas, A [1 ]
Madden-Woods, B [1 ]
Srinivasan, M [1 ]
Vilnrotter, V [1 ]
Farr, W [1 ]
机构
[1] CALTECH, Jet Prop Lab, Pasadena, CA 91109 USA
关键词
avalanche photodiodes; pulse position modulation; bit-error rate;
D O I
10.1117/12.464111
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
A variety of avalanche photodiodes (APD's) were tested with pulse position modulated (PPM) Q-switched laser pulses incident on the detector, with varying amounts of attenuation. The detector output was recorded and postprocessed in order to determine the signal and noise slot statistics, as well as, to estimate bit-error-rates (BER). The probability distribution functions predicted by a Webb+Gaussian model were compared to the measured slot statistics, as were theoretical BER curves. Allowing noise equivalent temperature to be a free fitting parameter yielded good fits between measurements and theory. All the measurements used 256-ary PPM and 10-25 ns slot widths, with a Q-switched Nd: YVO4 laser modulated at 50K-100K pulses per second. A 3 mm diameter, silicon (Si) APD with 80% quantum efficiency (QE) at 532 nm displayed a sensitivity of 11-12 photons/bit for a BER of 10(-2) in the absence of background light. For this detector the sensitivity deteriorated to 18 photons/bit in the presence of 100 photons per 25 ns slot of background light. A 0.8 mm diameter near infrared (NIR) enhanced Si APD with QE of 0.38 displayed sensitivities of 23 - 32 photons/bit for a BER of 10(-2) at 1064 nm in the absence of background light. Backgrounds of 400 photons per 25 ns slot degraded the sensitivity to similar to 58 photons/slot. Finally a 3 mm 0 diameter NIR enhanced Si APD yielded a sensitivity of similar to 100 photons/bit @ 1064 nm for a BER of 10(-2) with no background present.
引用
收藏
页码:72 / 83
页数:12
相关论文
共 50 条
  • [21] Free-Space Optical MISO Communications With an Array of Detectors
    Bashir, Muhammad Salman
    Alouini, Mohamed-Slim
    IEEE OPEN JOURNAL OF THE COMMUNICATIONS SOCIETY, 2020, 1 (01): : 1765 - 1780
  • [22] Quantum Limits of Space-to-Ground Optical Communications
    Hemmati, H.
    Dolinar, S.
    2012 CONFERENCE ON LASERS AND ELECTRO-OPTICS (CLEO), 2012,
  • [23] Arrayed Space Optical Communications: Localization of the Ground Station
    Fang, Zexi
    Manikas, Athanassios
    2017 IEEE INTERNATIONAL CONFERENCE ON COMMUNICATIONS (ICC), 2017,
  • [24] Optical membrane technology for deep space optical communications filters
    Roberts, W. Thomas
    2005 IEEE Aerospace Conference, Vols 1-4, 2005, : 1991 - 2000
  • [25] An AI approach to ground station autonomy for deep space communications
    Fisher, F
    Estlin, T
    Mutz, D
    Chien, S
    ISAIRAS '99: FIFTH INTERNATIONAL SYMPOSIUM ON ARTIFICIAL INTELLIGENCE, ROBOTICS AND AUTOMATION IN SPACE, 1999, 440 : 191 - 198
  • [26] Optical gravitational wave detectors on the ground and in space:theory and technology
    Jean-Yves Vinet
    Research in Astronomy and Astrophysics, 2010, 10 (10) : 956 - 1004
  • [27] Optical gravitational wave detectors on the ground and in space: theory and technology
    Vinet, Jean-Yves
    RESEARCH IN ASTRONOMY AND ASTROPHYSICS, 2010, 10 (10) : 956 - 1004
  • [28] Results from the DOLCE (Deep Space Optical Link Communications Experiment) Project
    Baister, Guy
    Kudielka, Klaus
    Dreischer, Thomas
    Tuechler, Michael
    FREE-SPACE LASER COMMUNICATION TECHNOLOGIES XXI, 2009, 7199
  • [29] Deep space uplink receiver prototype for optical communications
    Sburlan, S. E.
    Birnbaum, K. M.
    Farr, W. H.
    FREE-SPACE LASER COMMUNICATION TECHNOLOGIES XXIII, 2011, 7923
  • [30] Discovery deep space optical communications (DSOC) transceiver
    Roberts, W. Thomas
    FREE-SPACE LASER COMMUNICATION AND ATMOSPHERIC PROPAGATION XXIX, 2017, 10096