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Enhancement of Propane Flame Stability by Dielectric Barrier Discharges

  • Yongho Kim , Sy M. Stange , Louis A. Rosocha EMAIL logo and Vincent W. Ferreri
Published/Copyright: November 30, 2016
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Abstract

Non-thermal plasmas have recently found novel applications in improving fuel combustion. Typical electron temperatures in such plasmas are of order a few electron volts. Such electrons are sufficient to break down fuel molecules and to produce free radicals which may significantly affect combustion efficiency. In this work, we use a dielectric barrier discharge (DBD) to activate propane (C3H8) fuel before it is mixed with air and ignited. The use of activated propane enables us to operate combustion in very lean-burn conditions; for 0.2 lpm propane, air flow was 38 lpm, compared with an air flow of 26 lpm in the absence of a plasma. A residual gas analyzer (RGA) measures the decomposition products of the propane discharge, indicating that atomic and molecular hydrogen are produced in the plasma and that their concentrations depend on the DBD energy density. Based on the observations discussed in this work, we have shown that by activating propane, the DBD increases combustion stability.

Received: 2004-12-23
Revised: 2004-8-10
Accepted: 2005-1-14
Published Online: 2016-11-30
Published in Print: 2005-7-1

© 2016 by Walter de Gruyter Berlin/Boston

Articles in the same Issue

  1. Preface
  2. The Oxidation of Carbon Soot in a Non-thermal, Atmospheric Pressure Plasma: Experiment and Modelling
  3. Study in Space and Time of the Gas Temperature Variations in Dielectric Barrier Discharge Reactors
  4. Removal of Phenol from Water: A Comparison of Energization Methods
  5. Non Thermal Plasma NOx Remediation: From Binary Gas Mixture to Lean-Burn Gasoline and Diesel Engine Exhaust
  6. Influences of Reactor Geometry on Ozone Production with Dielectric Barrier Discharges: Experimental and Simulation Studies
  7. Ozone Production by Primary and Secondary Streamers in Pulsed Positive Corona Discharge
  8. Hybrid Gas/Liquid Electrical Discharge Reactors with Zeolites for Colored Wastewater Degradation
  9. CF4/O2/He Reaction Chemistry in an Atmospheric Pressure Plasma Jet
  10. Enhancement of Propane Flame Stability by Dielectric Barrier Discharges
  11. Soot Free Non-Thermal Plasma Reforming of Hydro Carbon Gas by Flow Stabilized Corona Discharges
  12. Decoloration of Organic Dye in Water by Pulsed Discharge Plasma Generated Simultaneously in Gas and Liquid Media
  13. The Effect of Conductivity on Active Species Products by Electrical Discharge with Air Bubbles in Water
  14. The Role of Surface Reactions in De-NOx Processes in Corona Discharge-Catalyst (or Zeolite) Hybrid Systems
  15. Characteristics of DC Corona Streamers Induced by UV Laser Irradiation in Non-Thermal Plasma
  16. Decomposition of Gas-Phase Benzene Using Plasma – Driven Catalyst Reactor: Complete Oxidation of Adsorbed Benzene Using Oxygen Plasma
  17. A Solution to the Problem of Large Energy Consumption of the De-NOx Process by Non-Thermal Plasma
  18. DC and Pulsed Surface Corona Discharge along a Dielectric Flat Plate in Air: Electrical Properties and Discharge-Induced Ionic Wind
  19. Dependence of NOx Removal by Pulsed Streamer Discharge on the Input Energy Density to Nitric Oxide Ratio
  20. After-Treatment of NOx Using Combination of Non-Thermal Plasma and Oxidative Catalyst Prepared by Novel Impregnation
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