[1] Elkotb, M. M., et al, Organic dust ignition in the high temperature flow behind a shock wave, Process safety and environmental protection, 75.1 (1997): 14-18.
[2] Liu, Yi, Jinhua Sun, and Dongliang Chen, Flame propagation in hybrid mixture of coal dust and methane, Journal of Loss Prevention in the Process Industries 20.4 (2007): 691-697.
[3] Proust, Ch, A few fundamental aspects about ignition and flame propagation in dust clouds, Journal of Loss Prevention in the Process Industries 19.2 (2006): 104-120.
[ 4] Proust, Christophe, Flame propagation and combustion in some dust-air mixtures, Journal of Loss Prevention in the Process Industries 19 .1 (2006): 89-100.
[5] Eckhoff, Rolf K, Differences and similarities of gas and dust explosions: a critical evaluation of the European 'ATEX'directives in relation to dusts, Journal of Loss Prevention in the Process Industries 19.6 (2006): 553-560.
[6] Chen, Zhihua, and Baochun Fan, Flame propagation through aluminum particle cloud in a combustion tube, Journal of Loss Prevention in theProcess Industries 18.1 (2005): 13-19.
[7] Shoshin, Y., and E. Dreizin, Particle combustion rates in premixed flames of polydisperse metalair aerosols, Combustion and Flame 133.3 (2003):
275- 287.
[8] Bidabadi, M., and A. Rahbari, Modeling combustion oflycopodium particles by considering the temperature difference between the gas and the particles, Combustion, Explosion, and Shock Waves 45.3 (2009): 278-285.
[9] Bidabadi, Mehdi, and Alireza Rahbari, Novel analytical model for predicting the combustion characteristics of premixed flame propagation in lycopodium dust particles, Journal of mechanical science and technology 23.9 (2009): 2417-2423.
[ 10] Bidabadi, Mehdi, Ashkan Shakibi, and Alireza Rahbari, The radiation and heat loss effects on the premixed flame propagation through lycopodium dust particles, Journal of the Taiwan Institute of Chemical Engineers 42.1 (2011): 180-185.
[11] Essenhigh, Robert H., and Joseph Csaba, The thermal radiation theory for plane flame propagation in coal dust clouds, Symposium (International) on Combustion. Vol. 9. No. 1. Elsevier, 1963.
[12] Bhaduri, D., and S. Bandyopadhyay, Combustion in coal dust flames, Combustion and Flame 17 .1 (1971): 15-24.
[13] Ozerova, G. E., and A. M. Stepanov, Effect of radiation on flame propagation through a gas suspension of solid fuel particles, Combustion, Explosion, and Shock Waves 9.5 (1973): 543-549.
[14] Smoot, L. Douglas, and M. Duane Horton, Propagation of laminar pulverized coal-air flames,Progress in Energy and Combustion Science 3 .4 (1977): 235-258.
[15] Krazinski, John L., Richard 0. Buckius, and Herman Krier, Coal dust flames: A review and development of a model for flame propagation, Progress in Energy and Combustion science 5 .1 (1979): 31-71.
[16] Slezak, Scott E., Richard 0. Buckius, andHerman Krier, A model of flame propagation in rich mixtures of coal dust in air, Combustion and flame 59.3 (1985): 251-265.
[17] Mills, K., and M. Matalon, Burner-generated spherical diffusion flames, Combustion science and technology 129.1-6 (1997): 295-319.
[18] Cheatham, S., and M. Matalon, Heat loss and Lewis number effects on the onset of oscillations in diffusion flames, Symposium (International) on Combustion. Vol. 26. No. 1. Elsevier, 1996.
[19] Mills, K., and M. Ma talon, Extinction of sphericaldiffusion flames in the presence of radiant loss, Symposium (International) on Combustion. Vol.27. No. 2. Elsevier, 1998.
[20] Spalding, D. V, The theory of steady laminar spherical flame propagation: Equations and numerical solution, Combustion and Flame 4 (1960): 51-58.
[21] Spalding, D. B., and V. K. Jain, The theory of steady laminar spherical flame propagation: Analytical solutions, Combustion and Flame 5 (1961): 11-18.
[22] He, Longting, Critical conditions for spherical flame initiation in mixtures with high Lewis numbers, Combustion Theory and Modelling 4.2 (2000): 159-172.
[24] Chen, Zheng, and Yiguang Ju, Theoretical analysis of the evolution from ignition kernel to flame ball and planar flame, Combustion Theory and Modelling 11.3 (2007): 427-453.
[25] Zhang, Huangwei, and Zheng Chen, Spherical flame initiation and propagation with thermally sensitive intermediate kinetics, Combustion and Flame 158.8 (2011): 1520-1531.
[26] Greenberg, J. B, Propagation and extinction of an unsteady spherical spray flame front, Combustion Theory and Modelling 7.1 (2003): 163-174.
[27] Greenberg, J. B, Finite-rate evaporation and droplet drag effects in spherical flame front propagation through a liquid fuel mist, Combustion and flame 148.4 (2007): 187-197.
[28] Mehdi Bidabadi, Abazar Vahdat Azad, Effects of radiation on propagating spherical flames of dust-air mixtures, Powder Technology 276 (2015)45-59
[29] Taylor, Simon Crispin. Burning velocity and the influence of flame stretch. Diss. University of Leeds, 1991.
[30] Markstein, George H, Experimental and theoretical studies of flame-front stability, Journal of the Aeronautical Sciences (2012).
[31] Strehlow, R. A., L. D. Savage, and S. C. Sorenson, Coal dust combustion and suppression, AIAA/SAE 10 th Propulsion Conference. 1974.