Preliminary Investigation of a Dielectric Barrier Discharge Lamp in Open Air at Atmospheric Pressure
LIU Feng1, WANG Wei-Wei1, CHANG Xi-Jiang2, LIANG Rong-Qing2**
1Department of Physics, School of Science, Hebei University of Engineering, Handan 056038 2Department of Light Sources and Illuminating Engineering, School of Information Science and Technology, Fudan University, Shanghai 200433
Preliminary Investigation of a Dielectric Barrier Discharge Lamp in Open Air at Atmospheric Pressure
LIU Feng1, WANG Wei-Wei1, CHANG Xi-Jiang2, LIANG Rong-Qing2**
1Department of Physics, School of Science, Hebei University of Engineering, Handan 056038 2Department of Light Sources and Illuminating Engineering, School of Information Science and Technology, Fudan University, Shanghai 200433
摘要A dielectric barrier discharge (DBD) lamp is investigated by using sinusoidal power with a 10 kHz frequency in open air at atmospheric pressure. With increasing applied voltages, the different discharge phenomena appear. At relatively low voltages, the discharge states are general stochastic filamentary discharges with weak light. However, at relatively high voltages, the walls of quartz tubes are heated sharply by plasma, and then the dazzling light is emitted very quickly to form the DBD Lamp, corresponding to the low maintaining voltage that is lower than the ignited voltage. The discharge state or mode of the DBD lamp that corresponds to the glow discharge is deduced according to the wave form of the circuit current, which is evidently different from the filamentary discharges. Under these conditions, the spectrum of the DBD lamp is continuous in the range 400–932 nm, which is scanned in the range 300–932 nm. It is also shown that there is another discharge state or mode that is different from the traditional filamentary discharges. Therefore, it is concluded that the discharge state or mode of the DBD lamp is a glow discharge.
Abstract：A dielectric barrier discharge (DBD) lamp is investigated by using sinusoidal power with a 10 kHz frequency in open air at atmospheric pressure. With increasing applied voltages, the different discharge phenomena appear. At relatively low voltages, the discharge states are general stochastic filamentary discharges with weak light. However, at relatively high voltages, the walls of quartz tubes are heated sharply by plasma, and then the dazzling light is emitted very quickly to form the DBD Lamp, corresponding to the low maintaining voltage that is lower than the ignited voltage. The discharge state or mode of the DBD lamp that corresponds to the glow discharge is deduced according to the wave form of the circuit current, which is evidently different from the filamentary discharges. Under these conditions, the spectrum of the DBD lamp is continuous in the range 400–932 nm, which is scanned in the range 300–932 nm. It is also shown that there is another discharge state or mode that is different from the traditional filamentary discharges. Therefore, it is concluded that the discharge state or mode of the DBD lamp is a glow discharge.
LIU Feng;WANG Wei-Wei;CHANG Xi-Jiang;LIANG Rong-Qing**
. Preliminary Investigation of a Dielectric Barrier Discharge Lamp in Open Air at Atmospheric Pressure[J]. 中国物理快报, 2011, 28(8): 85201-085201.
LIU Feng, WANG Wei-Wei, CHANG Xi-Jiang, LIANG Rong-Qing**
. Preliminary Investigation of a Dielectric Barrier Discharge Lamp in Open Air at Atmospheric Pressure. Chin. Phys. Lett., 2011, 28(8): 85201-085201.
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2011, Vol. 28 
