Experimental Study on Spiral Patterns in Dielectric Barrier Discharge System
LIU Shu-Hua, DONG Li-Fang, LIU Fu-Cheng, LI Shu-Feng, LI Xue-Chen, WANG Hong-Fang
College of Physics Science and Technology, Hebei University, Baoding 071002
Experimental Study on Spiral Patterns in Dielectric Barrier Discharge System
LIU Shu-Hua;DONG Li-Fang;LIU Fu-Cheng;LI Shu-Feng; LI Xue-Chen; WANG Hong-Fang
College of Physics Science and Technology, Hebei University, Baoding 071002
关键词 ：
52.35.Mw ,
52.80.Pi ,
89.75.Kd
Abstract ： Spiral patterns are obtained in a dielectric barrier discharge system with water electrodes. The dynamics of spiral formation and transition is investigated. Wavelength characteristic of spiral patterns is also studied. Correlation measurements indicate that the wavelength of spiral pattern increases with the increasing gas gap width and oscillates with the increasing drive frequency.
Key words ：
52.35.Mw
52.80.Pi
89.75.Kd
出版日期: 2006-12-01
:
52.35.Mw
(Nonlinear phenomena: waves, wave propagation, and other interactions (including parametric effects, mode coupling, ponderomotive effects, etc.))
52.80.Pi
(High-frequency and RF discharges)
89.75.Kd
(Patterns)
引用本文:
LIU Shu-Hua;DONG Li-Fang;LIU Fu-Cheng;LI Shu-Feng; LI Xue-Chen; WANG Hong-Fang. Experimental Study on Spiral Patterns in Dielectric Barrier Discharge System[J]. 中国物理快报, 2006, 23(12): 3316-3319.
链接本文:
https://cpl.iphy.ac.cn/CN/
或
https://cpl.iphy.ac.cn/CN/Y2006/V23/I12/3316
[1]
LI Cheng-Yue;DENG Bai-Quan;YAN Jian-Cheng. New Mechanism for Enhancing Ash Removal Efficiency and Reducing Tritium Inventory
[2]
LIU Jian-Guo;LI Ye-Zhou;WEI Guang-Mei. Auto-Bäcklund Transformation and Soliton-Type Solutions of the Generalized Variable-Coefficient Kadomtsev--Petviashvili Equation
[3]
LIU Hong-Jie;GU Yu-Qiu;ZHENG Zhi-Jian;JIAO Chun-Ye;NAM Sung-Mo;HAN Zai-Min;WANG Xiang-Xian;HE Ying-Ling;WEN Tian-Shu;ZHANG Shuang-Gen;WEN Xian-Lun;ZHOU Kai-Nan;WANG Xiao-Dong;HUANG Xiao-Jun;HUA Jian-Fei. Relativistic Electron Acceleration in a Wake Field Generated by the Intense Femtosecond Laser Interaction with a Mixture Jet of Deuterium Clusters and Molecules
[4]
TAN Chang;LIU Yue;WANG Xiao-Gang;MA Teng-Cai. Numerical Simulation on Expansion Process of Ablation Plasma Induced by Intense Pulsed Ion Beam
[5]
MA Jun;CHEN Yin-Hua;GAN Bao-Xia;WANG Fei-Hu;WANG Dong. Stability of Rayleigh--Taylor Vortices in Dusty Plasma
[6]
WANG Yun-Liang;ZHOU Zhong-Xiang;JIANG Xiang-Qian;YUAN Cheng-Xun;WANG Hai-Feng;ZHANG Hai-Feng;HOU Chun-Feng;JIANG Yong-Yuan;SUN Xiu-Dong;QIN Ru-Hu. Relativistic Electromagnetic Solitary Wave in a Cylindrical Magnetized Plasma
[7]
DONG Li-Fang;FAN Wei-Li;WANG Hui-Juan;ZHANG Qing-Li;WANG Long. Nonlinear Interaction and Coherent Structure in Tokamak Plasma Turbulence
[8]
CHEN Fen-Ce;HE Xian-Tu;SHENG Zheng-Mao;QIAO Bin;ZHANG Hong. Resonant Acceleration of Electrons in Combined Self-Consistent Quasistatic Electromagnetic Fields and Intense Laser Fields
[9]
LI Ji-Wei;PEI Wen-Bing. Effect of Guiding Magnetic Field on Weibel Instability
[10]
ZHANG Hui-Jie;WANG Peng-Ye;ZHAO Ying-Ying. Dynamics of the Spiral Tip in a Closed Belousov--Zhabotinsky Reaction
[11]
ZHANG Hui-Jie;WANG Peng-Ye;ZHAO Ying-Ying. Light-Gradient-Induced Spiral Wave Drifts in a Belousov--Zhabotinsky Reaction
[12]
WANG Hong-Li;OU-YANG Qi. Transition to Antispirals in the Complex Ginzburg--Landau Equation
[13]
OU Qiong-Rong;MENG Yue-Dong;XU Xu;SHU Xing-Sheng;REN Zhao-Xing. Effect of Frequency on Emission of XeI* Excimer in a Pulsed Dielectric Barrier Discharge
[14]
Q. Haque;H. Saleem. Large Amplitude Low Frequency Waves in a Magnetized Nonuniform Electron-Positron-Ion Plasma
[15]
JIANG Zhong-He;HU Xi-Wei;LIU Ming-Hai;GU Cheng-Lin;PAN Yuan. Experiment and Simulation of Atmospheric Pressure Glow Surface Discharge
2006, Vol. 23 
