Bedoukian   RussellIPM   RussellIPM   Piezoelectric Micro-Sprayer


Home
Animal Taxa
Plant Taxa
Semiochemicals
Floral Compounds
Semiochemical Detail
Semiochemicals & Taxa
Synthesis
Control
Invasive spp.
References

Abstract

Guide

Alphascents
Pherobio
InsectScience
E-Econex
Counterpart-Semiochemicals
Print
Email to a Friend
Kindly Donate for The Pherobase

« Previous AbstractThe effect of ligation or separation between the intrauterine device horn and adjacent ovary on implantation in the hamster    Next AbstractNote: Gliding arc discharges with phase-chopped voltage supply for enhancement of energy efficiency in volatile organic compound decomposition »

J Hazard Mater


Title:Nitrogen dioxide formation in the gliding arc discharge-assisted decomposition of volatile organic compounds
Author(s):Bo Z; Yan J; Li X; Chi Y; Cen K;
Address:"State Key Laboratory of Cleaning Energy Utilization, Institute for Thermal Power Engineering, Zhejiang University, Hangzhou, Zhejiang 310027, People's Republic of China. zjuzhengbo@gmail.com"
Journal Title:J Hazard Mater
Year:2009
Volume:20081209
Issue:2-Mar
Page Number:1210 - 1216
DOI: 10.1016/j.jhazmat.2008.12.030
ISSN/ISBN:1873-3336 (Electronic) 0304-3894 (Linking)
Abstract:"To apply gliding arc discharge (GAD) plasma processing to volatile organic compounds (VOCs) emission control, the formation of NO(2) as an undesired byproduct needs to be addressed. Comparative results of effluent temperature and product concentrations between experiment and thermodynamic equilibrium calculation show that the NO(2) formation in dry air GAD is totally out of thermodynamic equilibrium. Meanwhile, obvious NO (A(2)Sigma+)) and N(2)(+) (B(2)Sigma(u)(+)) are detected as the major reactive species in the dry air GAD plasma region. These results suggest that the thermal (or Zeldovich) NO(x) formation mechanism is not significant in GAD system, while the energy level and the density of electrons in the plasma region will severely influence the NO(2) formation. The presence of 500 ppm VOCs in the feed gases shows a limiting influence on the NO(2) formation, which is in the order of aromatic hydrocarbon (C(6)H(6) and C(7)H(8))>straight-chain hydrocarbon (C(4)H(10) and C(6)H(14))>halogenated hydrocarbon (CCl(4)). The influences of VOCs chemical structure, supply voltage, feed gas humidity, and reactor geometry on NO(2) formation are investigated, and the results correspond to above mechanism analysis. Based on the above, the possible pathways of the inhibition of NO(2) formation in GAD-assisted VOCs decomposition process are discussed"
Keywords:"Air Pollutants/chemistry Air Pollution/*prevention & control Alkanes/chemistry Electrochemical Techniques/*methods Gases Hydrocarbons, Aromatic/chemistry Hydrocarbons, Halogenated/chemistry Nitrogen Dioxide/*chemical synthesis Temperature Thermodynamics V;"
Notes:"MedlineBo, Zheng Yan, Jianhua Li, Xiaodong Chi, Yong Cen, Kefa eng Research Support, Non-U.S. Gov't Netherlands 2009/01/21 J Hazard Mater. 2009 Jul 30; 166(2-3):1210-6. doi: 10.1016/j.jhazmat.2008.12.030. Epub 2008 Dec 9"

 
Back to top
 
Citation: El-Sayed AM 2024. The Pherobase: Database of Pheromones and Semiochemicals. <http://www.pherobase.com>.
© 2003-2024 The Pherobase - Extensive Database of Pheromones and Semiochemicals. Ashraf M. El-Sayed.
Page created on 22-11-2024