Mei, D.H., Liu, S.Y. and Tu, X. (2017) CO2 Reforming with Methane for Syngas Production Using Dielectric Barrier Discharge Plasma Coupled with Ni/γ-Al2O3 Catalysts: Process Optimization through Response Surface Methodology. Journal of CO2 Utilization, 21, 314-326.

has been cited by the following article:

• TITLE: Response Surface Modeling of Fuel Rich and Fuel Lean Catalytic Combustion of the Stabilized Confined Turbulent Gaseous Diffusion Flames

  AUTHORS: Tahani S. Gendy, Salwa A. Ghoneim, Amal S. Zakhary

  KEYWORDS: Catalytic Combustion, Fuel Lean/Fuel Rich, Noble Metals Burners, Thermal Structure, Modeling, Response Surface Method

  JOURNAL NAME: World Journal of Engineering and Technology, Vol.7 No.1, December 20, 2018

  ABSTRACT: The Response Surface Methodology (RSM) has been applied to explore the thermal structure of the experimentally studied catalytic combustion of stabilized confined turbulent gaseous diffusion flames. The Pt/γAl2O3 and Pd/γAl2O3 disc burners were situated in the combustion domain and the experiments were performed under both fuel-rich and fuel-lean conditions at a modified equivalence (fuel/air) ratio (ø) of 0.75 and 0.25 respectively. The thermal structure of these catalytic flames developed over the Pt and Pd disc burners were inspected via measuring the mean temperature profiles in the radial direction at different discrete axial locations along the flames. The RSM considers the effect of the two operating parameters explicitly (r), the radial distance from the center line of the flame, and (x), axial distance along the flame over the disc, on the measured temperature of the flames and finds the predicted maximum temperature and the corresponding process variables. Also the RSM has been employed to elucidate such effects in the three and two dimensions and displays the location of the predicted maximum temperature.