DocumentCode :
1758804
Title :
Charging and Arcing Test on Semiconductive Coated Solar Coupon Panel
Author :
Takahashi, Asami ; Muraguchi, Ryo ; Iwata, M. ; Mengu Cho
Author_Institution :
Dept. of Appl. Sci. for Integrated Syst. Eng., Kyushu Inst. of Technol., Kitakyushu, Japan
Volume :
42
Issue :
2
fYear :
2014
fDate :
Feb. 2014
Firstpage :
384
Lastpage :
390
Abstract :
Two types of semiconductive antimony tin oxide (ATO) coating (single and multiple layers) have been applied on solar cells and a charge accumulation test has been performed under high-energy electron beams simulating a geostationary earth orbit environment and ECR plasma simulating a low earth orbit environment. No charge has been accumulated on the coated solar cells whereas a high charge has built up on the noncoated solar cells, confirmed by a noncontacting surface potential probe. Electrostatic discharge (ESD) testing has also been performed on both the coated and noncoated solar cells; however, no ESD has been detected on the coated solar cells. Therefore, ATO coating on solar cells can be used for charging mitigation. The performance of coated and noncoated solar cells onboard the HORYU-II, the high voltage (300 V) technology demonstration satellite made by the students of Kyushu Institute of Technology, has also been tested in a ground plasma chamber. After launching the HORYU-II, high voltage generation was confirmed. However, so far, we have not conducted arcing mitigation technology tests on orbit. In spite of the charging mitigation feature of ATO coating, the current-voltage characteristic of coated solar cells shows a power decrease, which needs to be studied along with ATO coated layer degradation due to atomic oxygen, vacuum ultraviolet irradiation, energetic protons, thermal cycling, and so on.
Keywords :
antimony compounds; arcs (electric); coatings; electrostatic discharge; solar cells; spacecraft charging; ECR plasma; ESD testing; arcing test; atomic oxygen; charge accumulation test; charging mitigation; charging test; electrostatic discharge; energetic protons; geostationary earth orbit environment; ground plasma chamber; high energy electron beams; high voltage technology demonstration satellite; low earth orbit environment; noncoated solar cells; noncontacting surface potential probe; semiconductive antimony tin oxide coating; semiconductive coated solar coupon panel; thermal cycling; vacuum ultraviolet irradiation; voltage 300 V; Arrays; Coatings; Electric potential; Electron beams; Photovoltaic cells; Surface charging; Surface treatment; Coatings; electrostatic discharge (ESD); satellites;
fLanguage :
English
Journal_Title :
Plasma Science, IEEE Transactions on
Publisher :
ieee
ISSN :
0093-3813
Type :
jour
DOI :
10.1109/TPS.2013.2295627
Filename :
6733424
Link To Document :
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