| タイトル | Ultra-Lightweight Hybrid Thin-Film Solar Cells: A Survey of Enabling Technologies for Space Power Applications |
| 本文（外部サイト） | http://hdl.handle.net/2060/20080006648 |
| 著者（英） | Seo, Kang; Friske, Theresa J.; Choi, S.; Banger, Kulbinder K.; Lee, Chung-Young; Bailey, Sheila G.; Landi, Brian J.; Jin, Michael H.-C.; Hepp, Aloysius F.; Ledbetter, Abram; Bonner, Carl E.; Castro, Stephanie L.; Dickman, John E.; Raffaelle, Ryne P.; McNatt, Jeremiah S.; Anctil, Annick; Rauh, David; Sun, Sam-S.; DiLeo, Roberta; Zhang, Cheng |
| 著者所属（英） | NASA Glenn Research Center |
| 発行日 | 2007-12-01 |
| 言語 | eng |
| 内容記述 | The development of hybrid inorganic/organic thin-film solar cells on flexible, lightweight, space-qualified, durable substrates provides an attractive solution for fabricating solar arrays with high mass specific power (W/kg). Next generation thin-film technologies may well involve a revolutionary change in materials to organic-based devices. The high-volume, low-cost fabrication potential of organic cells will allow for square miles of solar cell production at one-tenth the cost of conventional inorganic materials. Plastic solar cells take a minimum of storage space and can be inflated or unrolled for deployment. We will explore a cross-section of in-house and sponsored research efforts that aim to provide new hybrid technologies that include both inorganic and polymer materials as active and substrate materials. Research at University of Texas at Arlington focuses on the fabrication and use of poly(isothianaphthene-3,6-diyl) in solar cells. We describe efforts at Norfolk State University to design, synthesize and characterize block copolymers. A collaborative team between EIC Laboratories, Inc. and the University of Florida is investigating multijunction polymer solar cells to more effectively utilize solar radiation. The National Aeronautics and Space Administration (NASA)/Ohio Aerospace Institute (OAI) group has undertaken a thermal analysis of potential metallized substrates as well as production of nanoparticles of CuInS2 and CuInSe2 in good yield at moderate temperatures via decomposition of single-source precursors. Finally, preliminary work at the Rochester Institute of Technology (R.I.T.) to assess the impact on performance of solar cells of temperature and carbon nanotubes is reported. Technologies that must be developed to enable ultra-lightweight solar arrays include: monolithic interconnects, lightweight array structures, and new ultra-light support and deployment mechanisms. For NASA applications, any solar cell or array technology must not only meet weight and AMO efficiency goals, but also must be durable enough to survive launch conditions and space environments. |
| NASA分類 | Inorganic, Organic and Physical Chemistry |
| レポートNO | E-16170
AIAA-2007-4721
NASA/TM-2007-214955 |
| 権利 | Copyright, Distribution as joint owner in the copyright |
| URI | https://repository.exst.jaxa.jp/dspace/handle/a-is/256949 |
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