Title :
Removal of carbon monoxide by low temperature plasma-catalysis
Author :
Kwan-Tae Kim ; Sungkwon Jo ; Jae Ok Lee ; Dae Hoon Lee ; Young-Hoon Song
Author_Institution :
Korea Inst. of Machinery & Mater., Daejeon, South Korea
Abstract :
Summary form only given. Dielectric barrier discharge as a part of non-thermal plasmas has been widely studied for various applications, such as surface treatment, synthesis of inorganic materials, abatement of pollutants, and hydrocarbon reforming. These applications employ highly reactive species generated in non-thermal plasmas that are favorable to induce physical and chemical reactions at relatively low temperatures1. In particular, the application of plasma-catalysis hybrid technology for post-process treatment of pollutants has attracted considerable interest because the combination of a plasma with catalysis has a possibility for reducing the operational temperature and cost. For the removal of carbon monoxide at low temperature, the oxidation of carbon monoxide on a catalyst based on platinum was investigated with introducing ozone generated by dielectric barrier discharge. From the experiments, it is found that the carbon monoxide can be dramatically decreased with supplying ozone.
Keywords :
carbon compounds; catalysis; catalysts; dielectric-barrier discharges; oxidation; ozone; plasma chemistry; plasma materials processing; platinum; CO; O3; Pt; carbon monoxide oxidation; carbon monoxide removal; chemical reactions; dielectric barrier discharge; hydrocarbon reforming; inorganic material synthesis; low-temperature plasma-catalysis; nonthermal plasmas; ozone; physical reactions; plasma-catalysis hybrid technology; platinum catalyst; pollutant abatement; pollutant post-process treatment; surface treatment; Carbon; Chemicals; Oxidation; Plasma temperature;
Conference_Titel :
Plasma Sciences (ICOPS) held with 2014 IEEE International Conference on High-Power Particle Beams (BEAMS), 2014 IEEE 41st International Conference on
Conference_Location :
Washington, DC
Print_ISBN :
978-1-4799-2711-1
DOI :
10.1109/PLASMA.2014.7012615