• DocumentCode
    83971
  • Title

    An Environmental Application in Acid Gas Cracking With a High-Frequency Pulsed Gliding Arc

  • Author

    Pacheco-Sotelo, J.O. ; Salazar-Torres, Juan Alfonso ; Valdivia-Barrientos, R. ; Pacheco-Pacheco, Marquidia ; Ibanez-Olvera, Mario ; Soria-Arguello, Gustavo ; Silva-Rosas, Jesus

  • Author_Institution
    Inst. Nac. de Investig. Nucl., Ocoyoacac, Mexico
  • Volume
    42
  • Issue
    3
  • fYear
    2014
  • fDate
    Mar-14
  • Firstpage
    767
  • Lastpage
    773
  • Abstract
    An environmental application of a high-frequency pulsed gliding arc (HFPGA) is presented in this paper. It consists of the degradation of an acid gas mixture (CO2 and H2S) considered as a residue during its sweetening process and contained in sour gas. Plasma interaction with acid gas, leads to a molecular dissociation, mainly forming CO and H2, also known as syngas. In recent years, the syngas has become one of the alternative energy sources more profitable and investigated. The mixture of carbon monoxide and hydrogen, recovered from the decomposition of organic material, provides energy power with innovative applications in microturbines and fuel cells, in conjunction with others applications. The molecular dissociation is achieved with a HFPGA, which, among other properties, has the possibility of working as cold plasma and thermal plasma. Electric analysis was performed to determine instantaneous current, voltage, and power used in the HFPGA for acid gas treatment. From analysis of power consumption, the SE and ECE were 17.62 kJmol-1 and 59.05%, respectively. The analysis of solid residues obtained during the treatment with HFPGA is also presented.
  • Keywords
    fuel cells; gas mixtures; organic compounds; plasma applications; plasma interactions; syngas; turbines; ECE; SE; acid gas cracking; acid gas mixture; carbon monoxide mixture; cold plasma; electric analysis; energy sources; environmental application; fuel cell; high-frequency pulsed gliding arc; hydrogen mixture; microturbines; molecular dissociation; organic material decomposition; plasma interaction; power consumption; sour gas; sweetening process; syngas; thermal plasma; Discharges (electric); Electrodes; Energy consumption; Inductors; Plasma temperature; Power supplies; Acid gas mixture; conversion efficiency; gas selectivity; molecular dissociation; pulsed gliding arc; specific energy consumption; syngas;
  • fLanguage
    English
  • Journal_Title
    Plasma Science, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0093-3813
  • Type

    jour

  • DOI
    10.1109/TPS.2014.2299732
  • Filename
    6729089