摘要
Dielectric barrier discharge(DBD) attracts lots of attentions for its great application promises,and the rotational temperature is one of its mostly important parameters.In order to measure the rotational temperature of a pulsed DBD in atmospheric air,the temperature is studied by using optical emission spectroscopy(OES).The discharge is excited by a high voltage pulse with 124 ns rise time and 230 ns full width at half maximum(FWHM) at a repetition rate of a few hundred hertz.The rotational temperatures are studied using different voltages,different repetition rates of the pulse power supply,and different gaps between dielectrics: They are in the range from 390 K to 500 K during the whole discharge.When the gap between dielectrics increases,the rotational temperature initially decreases and then increases.The rotational temperature changes complexly when the pulse repetition rate changes.When the voltage increases,the rotational temperature always decreases,which is not expected.These results allow one to predict the rotational temperature at different supply power parameters and electrode configurations,which is useful for the DBD's industrial application.
Dielectric barrier discharge （DBD） attracts lots of attentions for its great application promises, and the rotational temperature is one of its mostly important parameters. In order to measure the rotational temperature of a pulsed DBD in atmospheric air, the temperature is studied by using optical emission spectroscopy （OES）. The discharge is excited by a high voltage pulse with 124 ns rise time and 230 ns full width at half maximum （FWHM） at a repetition rate of a few hundred hertz. The rotational temperatures are studied using different vol- tages, different repetition rates of the pulse power supply, and different gaps between dielectrics： They are in the range from 390 K to 500 K during the whole discharge. When the gap between dielectrics increases, the rotational temperature initially decreases and then increases. The rotational temperature changes complexly when the pulse repetition rate changes. When the voltage increases, the rotational tempera- ture always decreases, which is not expected. These results allow one to predict the rotational temperature at different supply power parameters and electrode configurations, which is useful for the DBD＇s industrial application.
出处
《高电压技术》
EI
CAS
CSCD
北大核心
2013年第10期2568-2572,共5页
High Voltage Engineering
基金
Project supported by National Nature Science Foundation of China （11035004）, Double Hundred Talent Foundation of CAEP （2009R0102）, Key Laboratory of Puised Power of CAEP Science and Technology Development Foundation （2008B040237）.
