[1] Silva Neto, G.C., Chui, D.S., Martins, F.P., Fleury, A.T., Furnari, F., Trigo, F.C., Identification of CO2 and O2 emissions dynamics in a natural gas furnace through flame images, ARMAX models, and Kalman filtering, Journal of the Brazilian Society of Mechanical Sciences Engineering, 43(5), 2021, 256.
[2] Jia, Y., Zhou, W., Tang, J., Luo, Y., Design optimization and CFD evaluation of a volute swirl burner with central gas supply, Journal of the Brazilian Society of Mechanical Sciences Engineering, 42(4), 2020, 196.
[3] Mancini, M., Weber, R., Bollettini, U., Predicting NOx emissions of a burner operated in flameless oxidation mode, Proceedings of the Combustion Institute, 29(1), 2002, 1155-1163.
[4] Yapıcı, H., Kayatas, N., Albayrak, B., Basturk, G., Numerical calculation of local entropy generation in a methane–air burner, Energy Conversion and Management, 46(11-12), 2005, 1885-1919.
[5] Saario, A., Rebola, A., Coelho, P., Costa, M., Oksanen, A., Heavy fuel oil combustion in a cylindrical laboratory furnace: measurements and modeling, Fuel, 84(4), 2005, 359-369.
[6] Yang, W., Blasiak, W., Numerical study of fuel temperature influence on single gas jet combustion in highly preheated and oxygen deficient air, Energy, 30(2-4), 2005, 385-398.
[7] Vuthaluru, R., Vuthaluru, H., Modelling of a wall fired furnace for different operating conditions using FLUENT, Fuel Processing Technology, 87(7), 2006, 633-639.
[8] Schaffel-Mancini, N., Mancini, M., Szlek, A., Weber, R., Novel conceptual design of a supercritical pulverized coal boiler utilizing high temperature air combustion (HTAC) technology, Energy, 35(7), 2010, 2752-2760.
[9] Huang, M.-M., Shao, W.-W., Xiong, Y., Liu, Y., Zhang, Z.-D., Lei, F.-L., Xiao, Y.-H., Effect of fuel injection velocity on MILD combustion of syngas in axially-staged combustor, Applied Thermal Engineering, 66(1-2), 2014, 485-492.
[10] He, Y., Zou, C., Song, Y., Liu, Y., Zheng, C., Numerical study of characteristics on NO formation in methane MILD combustion with simultaneously hot and diluted oxidant and fuel (HDO/HDF), Energy, 112, 2016, 1024-1035.
[11] Elorf, A., Sarh, B., Excess air ratio effects on flow and combustion caracteristics of pulverized biomass (olive cake), Case Studies in Thermal Engineering, 13, 2019, 100367.
[12] Tu, Y., Xu, S., Xie, M., Wang, Z., Liu, H., Numerical simulation of propane MILD combustion in a lab-scale cylindrical furnace, Fuel, 290, 2021, 119858.
[13] Ceglie, V., Stefanizzi, M., Capurso, T., Fornarelli, F., Camporeale, S.M., Thermoacoustic Combustion Stability Analysis of a Bluff Body-Stabilized Burner Fueled by Methane–Air and Hydrogen–Air Mixtures, Energies, 16(7), 2023, 3272.
[14] Cao, J., Sun, Y., Yang, F., Zhao, X., Gu, Y., Tan, H., Experimental and Numerical Study on the Combustion Characteristics of Premixed Methane/Air in Porous Media Burner, Combustion Science and Technology, 2024, https://doi.org/10.1080/00102202.2024.2340724.
[15] Sun, M., Shao, Y., Gong, Y., Xu, C., Song, T., Lu, P., Agarwal, R.K., Numerical Investigation of Flow and Flame Structures in an Industrial Swirling Inverse Diffusion Methane/Air Burner, Fire, 7(7), 2024, 237.
[16] Dekhatawala, A., Bhale, P., Shah, R., Effect of Equivalence Ratio on Flame Morphology, Thermal and Emissions Characteristics of Inverse Diffusion Porous Burner, Journal of Applied Fluid Mechanics, 17(6), 2024, 1217-1229.
[17] Liao, M., He, Z., Jia, S., Liang, X., Chan, T.L., Li, Y., Xu, X., Liu, T., Comparison of the flame stabilities during oxy-methane and air-methane combustion in a two-layer porous burner, Case Studies in Thermal Engineering, 51, 2023, 103657.
[18] Hulsbos, M.R., Hermanns, R.T.E., Bastiaans, R.J.M., de Goey, L.P.H., The Heat Flux Method for hybrid iron–methane–air flames, Combustion and Flame, 266, 2024, 113531.
[19] Füzesi, D., Wang, S., Józsa, V., Chong, C.T., Ammonia-methane combustion in a swirl burner: Experimental analysis and numerical modeling with Flamelet Generated Manifold model, Fuel, 341, 2023, 127403.
[20] Al-Khafaji, M., Yang, J., Tomlin, A.S., Thompson, H.M., de Boer, G., Liu, K., Morsy, M.E., Laminar burning velocities and Markstein numbers for pure hydrogen and methane/hydrogen/air mixtures at elevated pressures, Fuel, 354, 2023, 129331.
[21] Fluent, A., Ansys fluent theory guide, ANSYS Inc., USA, 2018.
[22] White, F.M., Corfield, I., Viscous fluid flow, McGraw-Hill, New York, 2006.
[23] Incropera, F.P., DeWitt, D.P., Bergman, T.L., Lavine, A.S., Fundamentals of heat and mass transfer, Wiley, New York, 1996.
[24] Cengel, Y.A., Boles, M.A., Thermodynamics: An Engineering Approach 6th Editon (SI Units), The McGraw-Hill Companies, Inc., New York, 2007.
[25] Siswantara, A.I., Darmawan, S., Tanujaya, H., Inverse-turbulent Prandtl number effects on Reynolds numbers of RNG k-ε turbulence model on cylindrical-curved pipe, Applied Mechanics and Materials, 758, 2015, 35-44.
[26] Yan, S., Tang, G., Zhou, C.Q., Guo, X., Computational Fluid Dynamics Modeling of Combustion Characteristics of a CH4/O2 Combustor in a Copper Anode Furnace, ACS Omega, 4(7), 2019, 12449-12458.
[27] Yang, X., Clements, A., Szuhánszki, J., Huang, X., Moguel, O.F., Li, J., Gibbins, J., Liu, Z., Zheng, C., Ingham, D., Prediction of the radiative heat transfer in small and large scale oxy-coal furnaces, Applied Energy, 211, 2018, 523-537.
[28] Jiang, B., Liang, H., Huang, G., Xingang, L., Study on NOx formation in CH4/Air jet combustion, Chinese Journal of Chemical Engineering, 14(6), 2006, 723-728.
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