| 1 |
A computational study of a small-scale biomass burner: The influence of chemistry, turbulence and combustion sub-models
Farokhi M, Birouk M, Tabet F
Energy Conversion and Management, 143, 203, 2017 |
| 2 |
A computationally inexpensive CFD approach for small-scale biomass burners equipped with enhanced air staging
Buchmayr M, Gruber J, Hargassner M, Hochenauer C
Energy Conversion and Management, 115, 32, 2016 |
| 3 |
Prediction of the heating characteristic of billets in a walking hearth type reheating furnace using CFD
Prieler R, Mayr B, Demuth M, Holleis B, Hochenauer C
International Journal of Heat and Mass Transfer, 92, 675, 2016 |
| 4 |
The usability and limits of the steady flamelet approach in oxy-fuel combustions
Mayr B, Prieler R, Demuth M, Hochenauer C
Energy, 90, 1478, 2015 |
| 5 |
Application of the steady flamelet model on a lab-scale and an industrial furnace for different oxygen concentrations
Prieler R, Mayr B, Demuth M, Spoljaric D, Hochenauer C
Energy, 91, 451, 2015 |
| 6 |
Numerical investigation of the steady flamelet approach under different combustion environments
Prieler R, Demuth M, Spoljaric D, Hochenauer C
Fuel, 140, 731, 2015 |
| 7 |
CFD and experimental analysis of a 115 kW natural gas fired lab-scale furnace under oxy-fuel and air-fuel conditions
Mayr B, Prieler R, Demuth M, Potesser M, Hochenauer C
Fuel, 159, 864, 2015 |
| 8 |
A numerical study on combustion characteristics of blended methane-hydrogen bluff-body stabilized swirl diffusion flames
Kashir B, Tabejamaat S, Jalalatian N
International Journal of Hydrogen Energy, 40(18), 6243, 2015 |
| 9 |
Evaluation of a steady flamelet approach for use in oxy-fuel combustion
Prieler R, Demuth M, Spoljaric D, Hochenauer C
Fuel, 118, 55, 2014 |
| 10 |
Eulerian particle flamelet modeling of a bluff-body CH4/H-2 flame
Odedra A, Malalasekera W
Combustion and Flame, 151(3), 512, 2007 |
