Ahmed, S. F.; Balachandran, R.; Marchione, T.; Mastorakos, E.
view article (8.121812)
Spark Ignition of Turbulent Nonpremixed Bluff-Body Flames.
Cambridge Univ., UK; University College London, London, UK
Combustion and Flame,
Vol. 150,
No. 1/2,
366-385,
October 2007
Kim, W.; Do, H.; Mungal, G.; Cappelli, M. A.
view article (8.121812)
Optimal Discharge Placement in Plasma-Assisted Combustion of a Methane Jet in Cross Flow.
Stanford Univ., CA
Combustion and Flame,
Vol. 153,
No. 4,
603-615,
June 2008
Lee, C. W.; Mastorakos, E.
view article (8.121812)
Transported Scalar PDF Calculations of Autoignition of a Hydrogen Jet in a Heated Turbulent Co-Flow.
Cambridge Univ., Trumpington Street, UK
Combustion Theory and Modelling,
Vol. 12,
No. 6,
1153-1178,
November 2008
Meyer, D. W.; Jenny, P.
view article (8.121812)
Improved Mixing Model Providing Joint Statistics of Scalar and Scalar Dissipation.
Stanford Univ., CA; Institute of Fluid Dynamics, ETH Zurich, Switzerland
Combustion and Flame,
Vol. 155,
No. 3,
490-508,
November 2008
Lignell, D. O.; Chen, J. H.; Smith, P. J.
view article (8.121812)
Three-Dimensional Direct Numerical Simulation of Soot Formation and Transport in a Temporally Evolving Nonpremixed Ethylene Jet Flame.
Utah Univ., Salt Lake City; Sandia National Laboratories, Livermore, CA
Combustion and Flame,
Vol. 155,
No. 1/2,
316-333,
October 2008
Yaldizli, M.; Mehravaran, K.; Mohammad, H.; Jaberi, F. A.
view article (8.121812)
Structure of Partially Premixed Methane Flames in High-Intensity Turbulent Flows.
Michigan State Univ., East Lansing
Combustion and Flame,
Vol. 154,
No. 4,
692-714,
September 2008
Choi, S. K.; Kim, J.; Chung, S. H.; Kim, J. S.
view article (8.121812)
Structure of the Edge Flame in a Methane-Oxygen Mixing Layer.
Seoul National Univ., Korea; CNRS-Laboratoire de Combustion et Systeme Reactifs, Cedex, France; Korea Institute of Science and Technology, 136-791 Seoul
Combustion Theory and Modelling,
Vol. 13,
No. 1,
39-56,
February 2009
Sen, B. A.; Hawkes, E. R.; Menon, S.
view article (8.121812)
Large Eddy Simulation of Extinction and Reignition With Artificial Neural Networks Based Chemical Kinetics.
Georgia Institute of Technology, Atlanta; New South Wales Univ., NSW 2052, Australia
Combustion and Flame,
Vol. 157,
No. 3,
566-578,
March 2010