Enhancing the Greenhouse Gas Conversion Efficiency in Microwave Discharges by Power Modulation

  • Britun N
  • Chen G
  • Silva T
  • et al.
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Abstract

Scientific interest to the plasma-assisted greenhouse gas conversion continuously increases nowadays, as a part of the global Green Energy activities. Among the plasma sources suitable for conversion of CO2 and other greenhouse gases, the non-equilibrium (low-temperature) discharges where the electron temperature is considerably higher than the gas temperature, represent special interest. The flowing gas discharges sustained by microwave radiation are proven to be especially suitable for molecular gas conversion due to high degree of non-equilibrium they possess. In this Chapter the optimization of CO2 conversion efficiency in microwave discharges working in pulsed regime is considered. The pulsed energy delivery represents new approach for maximization of CO2 conversion solely based on the discharge “fine-tuning”, i. e. without the additional power expenses. In our work several discharge parameters along the gas flow direction in the discharge have been studied using various diagnostic techniques, such as optical actinometry, laser-induced fluorescence, and gas chromatography. The results show that CO2 conversion efficiency can be essentially increased solely based on the plasma pulse frequency tuning. The obtained results are explained by the relation between the plasma pulse parameters and the characteristic time of the relevant energy transfer processes in the discharge.

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APA

Britun, N., Chen, G., Silva, T., Godfroid, T., Delplancke‐Ogletree, M. P., & Snyders, R. (2017). Enhancing the Greenhouse Gas Conversion Efficiency in Microwave Discharges by Power Modulation. In Green Chemical Processing and Synthesis. InTech. https://doi.org/10.5772/67875

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