Regimes of an atmospheric pressure nanosecond repetitively pulsed discharge for methane partial oxidation

The operation of a nanosecond repetitively pulsed discharge for partial oxidation of CH4 is characterized at atmospheric pressure and room temperature. Two regimes are observed: diffuse and filamentary. The first is a low power regime, characterized by low rotational temperatures around 400 K. The s...

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Veröffentlicht in:Journal of physics. D, Applied physics Applied physics, 2018-04, Vol.51 (13), p.134005
Hauptverfasser: Maqueo, P D G, Maier, M, Evans, M D G, Coulombe, S, Bergthorson, J M
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container_issue 13
container_start_page 134005
container_title Journal of physics. D, Applied physics
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creator Maqueo, P D G
Maier, M
Evans, M D G
Coulombe, S
Bergthorson, J M
description The operation of a nanosecond repetitively pulsed discharge for partial oxidation of CH4 is characterized at atmospheric pressure and room temperature. Two regimes are observed: diffuse and filamentary. The first is a low power regime, characterized by low rotational temperatures around 400 K. The second is much more energetic with rotational temperatures close to 600 K. Both have vibrational temperatures of at least 10 times their rotational temperatures. The average electron number density was determined to be 8.9×1015 and 4.0×1017 cm−3, respectively, showing an increase in the ionization fraction in the more powerful filamentary regime. Results of CH4 conversion to H2, CO, CO2 and C2H6 are presented for the filamentary regime, while the diffuse regime shows no measurable conversion ability. As expected, oxidative mixtures show higher conversion ability than pure CH4. A maximum conversion efficiency of 26.3% and a maximum energy efficiency of 19.7% were reached for the oxidative mixtures.
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subjects atmospheric pressure plasma
fuel reforming
nanosecond pulsed plasma
optical emission spectroscopy
partial oxidation
title Regimes of an atmospheric pressure nanosecond repetitively pulsed discharge for methane partial oxidation
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