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Self-Organization of Microgap Dielectric-Barrier Discharge in Gas Flow

Symmetric self-organized discharge filaments have been observed in the 140-mum microgap dielectric-barrier discharge between two parallel glass plates. With increasing voltage, the number of filaments increases, and the distance between the filaments decreases. The gas flow velocity affects the arra...

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Published in:	IEEE transactions on plasma science 2008-08, Vol.36 (4), p.1260-1261
Main Authors:	Takaki, K., Nawa, K., Mukaigawa, S., Fujiwara, T., Aizawa, T.
Format:	Article
Language:	English
Subjects:	Atmospheric pressure Atmospheric-pressure plasmas barrier discharge Dielectrics Discharge Electric potential Electrodes Filaments Flow velocity Fluid flow Gas flow Glass Homogeneous structure Indium tin oxide microplasma Plasma Plasma displays self-organization Surface discharges Voltage
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description	Symmetric self-organized discharge filaments have been observed in the 140-mum microgap dielectric-barrier discharge between two parallel glass plates. With increasing voltage, the number of filaments increases, and the distance between the filaments decreases. The gas flow velocity affects the arrangement of the filaments. The homogeneous structure appears around the upstream area at high flow velocity, and the homogeneous area spreads with increasing flow velocity.
doi_str_mv	10.1109/TPS.2004.924582
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source	IEEE Electronic Library (IEL) Journals
subjects	Atmospheric pressure Atmospheric-pressure plasmas barrier discharge Dielectrics Discharge Electric potential Electrodes Filaments Flow velocity Fluid flow Gas flow Glass Homogeneous structure Indium tin oxide microplasma Plasma Plasma displays self-organization Surface discharges Voltage
title	Self-Organization of Microgap Dielectric-Barrier Discharge in Gas Flow
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