Advanced Photovoltaic Development at Air Force Research Laboratory

被引:1
|
作者
Wilt, David M. [1 ]
机构
[1] USAF, Space Vehicles Directorate, Res Lab, Kirtland AFB, NM 87117 USA
关键词
photovoltaics; spacecraft; power systems;
D O I
10.1117/12.910931
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Photovoltaics continue to be the primary source of electrical power for most near-Sun space missions. The desire to enhance or enable new space missions through higher efficiency, increased specific power (W/kg), increased volumetric power density (W/m(3)) and improved radiation resistance, along with decreased costs, continues to push development of novel solar cell and array technologies. To meet present and future space power requirements, gallium arsenide based multijunction solar cells, thin-film solar cells, and more novel technologies such as intermediate bandgap devices are being pursued. These efforts have resulted in a continual advancement in performance, but new paradigms will be required to continue that performance trend. As cell efficiency increases, other cell and power system characteristics may become more important, namely cost and environmental durability as well as power system survivability. Opportunities for high performance photovoltaics continue to expand for both space and terrestrial applications.
引用
收藏
页数:9
相关论文
共 50 条
  • [1] ADVANCED PHOTOVOLTAIC POWER SYSTEM DEVELOPMENT AT THE US AIR FORCE RESEARCH LABORATORY
    Merrill, John
    Wilt, David
    Chapman, David
    Bradshaw, Geoff
    Montgomery, Kyle
    Gapp, Nathan
    Carpenter, Bernie
    [J]. 11TH EUROPEAN SPACE POWER CONFERENCE, 2017, 16
  • [2] Air force research laboratory cryocooler technology development
    Davis, TM
    Reilly, J
    Tomlinson, BJ
    [J]. CRYOCOOLERS 10, 1999, : 21 - 32
  • [3] Air force research laboratory cryocooler technology development
    Davis, TM
    Tomlinson, BJ
    [J]. INTERNATIONAL CRYOGENIC ENGINEERING CONFERENCE 1998, 1998, : 213 - 216
  • [4] Air force research laboratory cryocooler technology development
    Davis, TM
    Smith, DA
    Easton, RM
    [J]. ADVANCES IN CRYOGENIC ENGINEERING, VOLS. 49A AND B, 2004, 710 : 1205 - 1212
  • [5] Advanced space-based detector research at the air force research laboratory
    Alsing, P. M.
    Cardimona, D. A.
    Huang, D. H.
    Apostolova, T.
    Glass, W. R.
    Castillo, C. D.
    [J]. INFRARED PHYSICS & TECHNOLOGY, 2007, 50 (2-3) : 89 - 94
  • [6] An overview of air force research laboratory cryogenic technology development programs
    Davis, TM
    Tomlinson, BJ
    [J]. SPACE TELESCOPES AND INSTRUMENTS V, PTS 1-2, 1998, 3356 : 1139 - 1148
  • [7] Hydrogen peroxide compatible tankage development at the air force research laboratory
    Guerrero, J
    Hamilton, B
    Burton, R
    Crockett, D
    [J]. ENGINEERING, CONSTRUCTION AND OPERATIONS IN CHALLENGING ENVIRONMENTS: EARTH AND SPACE 2004, 2004, : 906 - 914
  • [8] An overview of Air Force Research Laboratory cryogenic technology development programs
    Davis, TM
    Tomlinson, BJ
    [J]. 1998 IEEE AEROSPACE CONFERENCE PROCEEDINGS, VOL 2, 1998, : 189 - 198
  • [9] Air Force Research Laboratory Integrated Omics Research
    DelRaso, Nicholas J.
    Chan, Victor T.
    Mauzy, Camilla A.
    Shiyanov, Pavel A.
    [J]. MILITARY MEDICINE, 2015, 180 (10) : 67 - 75
  • [10] Air Force Research Laboratory high power electric propulsion technology development
    Brown, Daniel L.
    Beal, Brian E.
    Haas, James M.
    [J]. IEEE Aerospace Conference Proceedings, 2010,