Physical Processes in Barrier Discharge Lamp Working in He/D2O Mixture
Physical Processes in Barrier Discharge Lamp Working in He/D2O Mixture
摘要
This paper presents both results of a numerical modeling and an experimental study of the influence of various parameters on the radiation characteristics of barrier discharge lamp working in He/D2O mixture.It is obtained that the intensity of ultraviolet radiation is a non-monotonic function of both the water and the helium pressures.The experimental results also show that the increase of both the discharge voltage and the discharge pulse frequency leads to the increase of radiation intensity.The comparison between the experimentally obtained data and the results of numerical modeling allows us to define the mechanism controlling the ultraviolet radiation in He/D2O mixture at various parameters.
This paper presents both results of a numerical modeling and an experimental study of the influence of various parameters on the radiation characteristics of barrier discharge lamp working in He/D2O mixture. It is obtained that the intensity of ultraviolet radiation is a non-monotonic function of both the water and the helium pressures. The experimental results also show that the increase of both the dis- charge voltage and the discharge pulse frequency leads to the increase of radiation intensity. The comparison between the experimentally obtained data and the results of numerical modeling allows us to define the mechanism controlling the ultraviolet radiation in He/D2O mix- ture at various parameters.
出处
《高电压技术》
EI
CAS
CSCD
北大核心
2013年第9期2193-2200,共8页
High Voltage Engineering
参考文献19
-
1Vul Y A, Kidalov S V, Milenin V M, et al. New efficient low-pressure gas-discharge source of optical radiation using hydroxyl OH[J]. Technical Physics Letters, 1998, 25(1): 4-6.
-
2Shuaibov A K, Dashchenko A I, Shevera I V. Stationary radiator in the 130~190 nm range based on a water vapour plasma[J]. Quantum Electronics, 2001, 31(6): 547-548.
-
3Shuaibov A K, Shimon L L, Dashchenko A I, et al. Optical characteristics of the plasma of a glow discharge in a He/H20 mixture[J]. Plasma Physics Reports, 2001, 27(10): 897-900.
-
4Shuaibov A K, Shevera I V, Shimon L L, et al. Modem sources of ullraviolet radiation: development and application[M]. Uzhorod, Ukraine: Uzhorod Universi- ty Publishing, 2001: 222.
-
5Boichenko A M, Lomaev M M, Panchenko A N, et al. Ultraviolet and vacuum ultraviolet excimer lamps: physics, techniques, and application[M]. Tomsk, Rus- sian: SST, 2011: 512.
-
6Shuaibov A K. Chemiluminescent radiation of a stationary electrodischarge plasma of low pressure on vapour mixtures of water with helium[J]. Ukrainian Jottmal of Physics, 2001, 46(10): 1047-1050.
-
7Avdeev S M, Sosnin E A, Smirnov A A, et al. Study of spectral, temporal and energy characteristics of gas discharge lamps working on water and water ammo- nia[J]. Atmospheric and Oceanic Optics, 2009, 22(5): 560-565.
-
8Shuaibov A K, Minya A J, Gomoki Z T, et al. Vacuum-UV emitter using low- pressure discharge in helium-water vapor mixture[J]. Technical Physics Letters, 2011, 37(2): 126-127.
-
9Hrytsak R V, Shuaibov A K, Minya A I, et al. Ultraviolet emitter barrier discharge on the molecule of heavy water (D2O)[C]//The 10^th International Conference on Atomic and Molecular Pulsed Lasers. Tomsk, Russian: [s.n.], 2011: 104.
-
10Lunin V V, Popovich M P, Tkachenko S N. Physical chemistry of ozone[M]. Moscow, Russian: Moscow University Press, 1998: 480.
-
1Diodes推出可提升功率密度的高压SBR整流器SBR10U200P5[J].电子元器件应用,2009,11(6):81-81.
-
2UV净水用的无电极放电系统[J].水处理信息报导,2002(1):56-56.
-
3张青,马桂红,范海涛,刘建永.金属基体用远红外涂料的研究[J].山东陶瓷,2013,36(3):7-12.
-
4耀皮玻璃再推N系列可钢Low—E镀膜玻璃[J].建筑玻璃与工业玻璃,2015,0(1):37-37.
-
5张肇富.印刷陶瓷贴花纸的紫外线固化油墨[J].丝网印刷,1993(6):31-32.
-
6玻璃节能涂液[J].21世纪建筑材料,2009,29(2):73-73.
-
7LIMing LI Cheng-rong ZHAN Hua-mao XU Jin-bao ZHANG Xian-jun.Effect of Barrier Materials on Discharge Properties in Air at Low Pressure[J].高电压技术,2007,33(12):80-84. 被引量:2
-
8防止褪色的新型建筑玻璃[J].中国玻璃,2007,32(2):40-40.
-
9防止褪色的新型建筑玻璃[J].建筑玻璃与工业玻璃,2007(6):39-40.
-
10武登忠.大型石化联合装置火炬系统设计要点[J].化工设计,2011,21(5):10-13. 被引量:5