1. EL-Sayed, S.A., 2022. Review of thermal decomposition, kinetics parameters and evolved gases during pyrolysis of energetic materials using different techniques. J. Anal. Applied Pyrolysis, Vol. 161. 10.1016/j.jaap.2021.105364.
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2. Mostafa, M.E., Y.M. Khedr, P. Ling, H. Chi and S. Hu et al., 2021. Experimental and numerical modelling of solid and hollow biomass pellets high-temperature rapid oxy-steam combustion: the effect of integrated CO₂/H₂O concentration. Fuel, Vol. 303. 10.1016/j.fuel.2021.121249.
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3. Mostafa, M.E., Y. Zhang, S. Hu, Y. Wang and S. Su et al., 2021. Mechanical characteristics and energy consumption of solid and hollow biomass pellet production using a statistical analysis of operating parameters. Waste Biomass Valorization, 12: 6635-6657.
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4. Mostafa, M.E., J. Xu, J. Zhou, H. Chi and S. Hu et al., 2021. Optimization and statistical analysis of the effect of main operation conditions on the physical characteristics of solid and hollow cylindrical pellets. Biomass Convers. Biorefin., Vol. 2021. 10.1007/s13399-021-01541-7.
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5. El-Sayed, S.A., 2021. Thermal explosion of a reactive gas mixture at constant pressure for non-uniform and uniform temperature systems. Defence Technol., Vol. 2021. 10.1016/j.dt.2021.06.009.
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6. EL-Sayed, S.A. and M.E. Mostafa, 2021. Kinetics, thermodynamics, and combustion characteristics of Poinciana pods using TG/DTG/DTA techniques. Biomass Convers. Biorefin., Vol. 2021. 10.1007/s13399-021-02021-8.
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7. Hanjian, L., C. Huanying, H. Song, H. Limo and X. Kai et al., 2020. Combustion behavior of large size coal over a wide range of heating rates in a concentrating photothermal reactor. Fuel Process. Technol., Vol. 197. 10.1016/j.fuproc.2019.106187.
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8. El-Sayed, S.A. and M.E. Mostafa, 2020. Thermal pyrolysis and kinetic parameter determination of mango leaves using common and new proposed parallel kinetic models. RSC Adv., 10: 18160-18179.
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9. EL-Sayed, S.A., 2020. Analytical and numerical solutions of sodium particle ignition based on the thermal explosion theory with different forms of reaction rates and variable thermal conductivity. Ann. Nucl. Energy, 10.1016/j.anucene.2020.107372.
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10. Mostafa, M.E., S. Hu, Y. Wang, S. Su, X. Hu, S.A. Elsayed and J. Xiang, 2019. The significance of pelletization operating conditions: An analysis of physical and mechanical characteristics as well as energy consumption of biomass pellets. Renewable Sustainable Energy Rev., 105: 332-348.
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11. Mostafa, M.E., L. He, J. Xu, S. Hu and Y. Wang et al., 2019. Investigating the effect of integrated CO₂ and H₂ O on the reactivity and kinetics of biomass pellets oxy-steam combustion using new double parallel volumetric model (DVM). Energy, 179: 343-357.
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12. Mostafa, M.E., H. Tang, J. Xu, H.Y. Chi and K. Xu et al., 2019. Experimental study of ignition and combustion characteristics of mixed rice straw and sewage sludge solid and hollow spherical pellets in a plasma combustion system. Key Eng. Mater., 797: 327-335.
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13. El‐Sayed, S.A., M.A. Ismail and M.E. Mostafa, 2019. Thermal decomposition and combustion characteristics of biomass materials using TG/DTG at different high heating rates and sizes in the air. Environ. Prog. Sustainable Energy, 38: 1-14.
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14. El-Sayed, S.A. and E.H. Noseir, 2019. Simulation of combustion of sesame and broad bean stalks in the freeboard zone inside a pilot-scale bubbling fluidized bed combustor using CFD  modeling. Appl. Thermal Eng., 10.1016/j.applthermaleng.2019.113767.
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15. El-Sayed, S.A. and E.H. Noseir, 2019. Simulation of combustion of sesame and broad bean stalks in the freeboard zone inside a pilot-scale bubbling fluidized bed combustor using CFD modeling. Applied Ther. Eng., Vol. 158. 10.1016/j.applthermaleng.2019.113767.
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16. El-Sayed, S., 2019. Thermal decomposition, kinetics and combustion parameters determination for two different sizes of rice husk using TGA. Eng. Agric., Environ. Food, 12: 460-469.
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17. El-Sayed, S.A., A.A. El-baz and E.H. Noseir, 2018. Sesame and broad bean stalks: mixing characteristics of chips as a biomass fuel for bubbling fluidized bed combustor. Int. J. Chem. Reactor Eng., 10.1515/ijcre-2017-0138.
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18. El-Sayed, S.A., A.A. El-baz and E.H. Noseir, 2018. Sesame and broad bean plant residue: Thermogravimetric investigation and devolatilization kinetics analysis during the decomposition in an inert atmosphere. J. Brazilian Soc. Mech. Sci. Eng., Vol. 40. 10.1007/s40430-018-1356-5.
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19. El-Sayed, S.A., A.A. El-Baz and E.H. Noseir, 2018. Sesame and broad bean stalks: Mixing characteristics of chips as a biomass fuel for bubbling fluidized bed combustor. Int. J. Chem. Reactor Eng., Vol. 16. 10.1515/ijcre-2017-0138.
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20. El-Sayed, S.A., 2018. Self-ignition of dust cloud in a hot gas. J. Braz. Soc. Mech. Sci. Eng., Vol. 40. 10.1007/s40430-018-1200-y.
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21. El-Sayed, S.A., 2018. Self-ignition of dust cloud in a hot gas. J. Braz. Soc. Mech. Sci. Eng., 10.1007/s40430-018-1200-y.
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22. El-Sayed, S.A. and M.K.E. Mohamed, 2018. Mechanical properties and characteristics of wheat straw and pellets. Energy Environ., 29: 1224-1246.
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23. El-Sayed, S.A. and M.E. Mostafa, 2018. Combustion and emission characteristics of egyptian sugarcane bagasse and cotton stalks powders in a bubbling fluidized bed combustor. Waste Biomass Valorization. 10.1007/s12649-018-0199-8.
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24. El-Sayed, S.A. and M. Khairy, 2018. Investigation of combustion and emissions of single wheat dust pellet in a fixed-bed combustor. Int. J. Heat Technol., 36: 525-542.
25. El-Sayed, S.A. and M. Khairy, 2018. An experimental study of combustion and emissions of wheat straw pellets in high-temperature air flows. Combustion Sci. Technol., 190: 222-251.
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26. El-Sayed, S.A. and E.H. Noseir, 2018. Experimental investigation of combustion characteristics and emissions for a pilot-scale bubbling fluidized bed combustor fueled by biomass chips of sesame and broad bean stalks. Combust. Sci. Technol., 10.1080/00102202.2018.1555535.
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27. El-Sayed, S. and M. Khairy, 2018. Assessment of the combustion and emission behavior of crushed corn cob pellets in a Fixed bed combustor. J. Thermal Sci. Eng. Applic. 10.1115/1.4040964.
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28. El-Sayed S.A., 2018. Ignition of a pyrolysis wooden particle based on the thermal explosion theory. Iranian Journal of Science and Technology, Transactions of Mechanical Engineering 42: 317-327.
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29. Saad, E.S. and M. Khairy, 2017. Preparation and characterization of fuel pellets from corn cob and wheat dust with binder. Iranica J. Energy Environ., 8: 71-87.
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30. El‐Sayed, S.A., T.M. Khass and M.E. Mostafa, 2017. Thermo‐physical and kinetics parameters determination and gases emissions of self‐ignition of sieved rice husk of different sizes on a hot plate. Asia‐Pacific J. Chem. Eng., 12: 536-550.
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31. El-Sayed, S.A. and M. Khairy, 2017. Preparation and characterization of fuel pellets from corn cob and wheat dust with binder. Iranica J. Energy Environ., 8: 71-87.
32. El-Sayed, S.A. and M.E.S. Mostafa, 2016. Estimation of thermal and kinetic parameters of sugarcane bagasse and cotton stalks dust layers from hot surface ignition tests. Combustion Sci. Technol., 188: 1655-1673.
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33. El-Sayed, S.A., 2015. Ignition characteristics for thermal runaways of hazard chemical reactions of different degree of reactions. Int. J. Energetic Mater., 1: 31-55.
34. El-Sayed, S.A. and M.E. Mostafa, 2015. Thermal analysis and kinetic parameters determination of biomass pyrolysis using (TGA/DTG) and (DTA) at different heating rates. Waste Biomass Valorization J., 6: 401-415.
35. El-Sayed, S.A. and M.E. Mostafa, 2015. Kinetic parameters determination of biomass pyrolysis fuels using TGA and DTA techniques. Waste Biomass Valorization, 6: 401-415.
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36. El-Sayed, S.A. and M. Khairy, 2015. Effect of heating rate on the chemical kinetics of different biomass pyrolysis materials. Biofuels, 6: 157-170.
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37. El-Sayed, S.A. and M.E. Mostafa, 2014. Pyrolysis characteristics and kinetic parameters determination of biomass fuel powders by differential thermal gravimetric analysis (TGA/DTG). Energy Conversion Manage., 85: 165-172.
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38. El-Sayed, S.A. and M.E. Mostafa, 2014. Analysis of grain size statistic and particle size distribution of biomass powders. Waste Biomass Valorization, 5: 1005-1018.
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39. El-Sayed, S.A., 2013. Explosion characteristics of a volatile explosive. Open Thermodynamics J., 7: 88-102.
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40. El-Sayed, S.A. and T.M. Khass, 2013. Smoldering combustion of rice husk dusts on a hot surface. Combustion Explosion Shock Waves, 49: 159-166.
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41. El-Sayed, S.A., S.A. El-Sayed and M.M. Saadoun, 2012. Experimental study of heat transfer to flowing air inside a circular tube with longitudinal continuous and interrupted fins. J. Electr. Cooling Thermal Control, 2: 1-16.
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42. El-Sayed, S.A., 2010. Letter to editor. Process Safety Environ. Protect., 88: 446-448.
43. El-Sayed, S.A., 2009. Ignition characteristics, conditions of criticality and disappearance of criticality of cumene hydroperoxide reaction by modeling approach. Process Safety Environ. Protect., 87: 293-299.
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44. El-Sayed, S.A., 2008. Critical and transition conditions for ignition of a carbon particles dust cloud in an adiabatic confined vessel. Combustion Sci. Technol., 180: 1572-1587.
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45. El-Sayed, S.A., 2006. Effect of degree of reaction on critical conditions and times to ignition of a gas mixture explosion. Combustion Sci. Technol., 178: 1055-1086.
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46. El-Sayed, S.A., S.M. Mohamed, A.A. Abdel-Latif and E.A. Abdel-Hamid, 2004. Experimental study of heat transfer and fluid flow in longitudinal rectangular-fin array located in different orientations in fluid flow. Exp. Thermal Fluid Sci., 29: 113-128.
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47. El-Sayed, S.A., 2004. Adiabatic thermal explosion of a solid-gas mixture. Combust. Sci. Tech., 176: 237-256.
48. El-Sayed, S.A., 2003. Thermal explosion of autocatalytic reaction. J. Loss Prevention Process Ind., 16: 249-257.
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49. El-Sayed, S.A., 2003. The criteria of criticality and transition conditions of gas explosion. Combustion Sci. Technol., 175: 225-251.
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50. El-Sayed, S.A., 2003. Explosion characteristics of autocatalytic reaction. Combustion Flame, 133: 375-378.
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51. El-Sayed, S.A., 2003. Critical and transition conditions of gaseous explosion. J. Loss Prevention Process Ind., 16: 281-288.
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52. Hanafi, A.S., S.A. El-Sayed and M.E. Mostafa, 2002. Fluid flow and heat transfer around circular cylinder-flat and curved plates combinations. Exp. Thermal Fluid Sci., 25: 631-649.
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53. El-Sayed, S.A., S.M. Mohamed, A.M. Abdel-Latif and E.A. Abdel-Hamid, 2002. Investigation of turbulent heat transfer and fluid flow in longitudinal rectangular-fin arrays of different geometries and shrouded fin array. Exp. Thermal Fluid Sci., 26: 879-900.
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54. Abou-Arab, T.W., S.A. El-Sayed, M.M. Shamloul and T.M. Khass, 2001. Study of combustion characteristics of coflowing gas and liquid fuel stream. Energy Fuels, 15: 1369-1382.
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55. El-Sayed, S.A. and A.M. Abdel-Latif, 2000. Smoldering combustion of dust layer on hot surface. J. Loss Prevention Process Ind., 13: 509-517.
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56. Shouman, A.R. and S.A. El-Sayed, 1999. Accounting for reactant consumption in the thermal explosion theory: IV-numerical solution of the Arrhenius problem. Combustion Flame, 117: 422-428.
57. Shouman, A.R. and S.A. El-Sayed, 1998. Accounting for reactant consumption in the thermal explosion theory: III-Criticality conditions for the Arrhenius problem. Combustion Flame, 113: 212-223.
58. Shouman, A.R. and S.A. El-Sayed, 1997. Accounting for reactant consumption in the thermal explosion problem part II: A direct solution with application to the Frank-Kamenetskii problem. Combustion Flame, 108: 361-386.
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59. Elkotb, M.M., S.A. El-Sayed, R.M. El-Taher and A.M.E. Abdel-Latif, 1997. Organic dust ignition in the high temperature flow behind a shock wave. Process Safety Environ. Protect., 75: 14-18.
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60. El-Sayed, S.A., S.A. El-Sayed, M.E. Abdel-Hamid and M.M. Sadoun, 1997. Experimental study of turbulent flow inside a circular tube with longitudinal interrupted fins in the streamwise direction. Exp. Thermal Fluid Sci., 15: 1-15.
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61. Elkotb, M.M., S.A. El-Sayed, R.M. El-Taher and A.M.E. Abdel-Latif, 1996. Experimental study of organic dust ignition behind shock waves. J. Loss Prevention Process Ind., 9: 249-253.
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62. El-Sayed, S.A., 1996. Thermal explosion of dispersed media: Critical conditions for discrete particles in an inert or a reactive matrix. J. Loss Prevention Process Ind., 9: 383-392.
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63. El-Sayed, S.A., 1996. Ignition characteristics of metal ignition in the thermal explosion theory. J. Loss Prev. Process Ind., 9: 393-400.
64. El-Sayed, S.A., 1995. Ignition and transition conditions for inflammation and extinction for a first-order heterogeneous reaction. J. Loss Prevention Process Ind., 8: 237-243.
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65. El-Sayed, S.A., 1995. Effect of heating a semi-transparent medium by radiant energy on ignition characteristics in thermal explosion theory. J. Loss Prevention Process Ind., 8: 103-110.
66. El-Sayed, S.A., 1994. Critical conditions in the uniform systems with variable heat transfer coefficient in the thermal explosion theory. Combustion Flame, 98: 231-240.
67. Shouman, A.R. and S.A. El-Sayed, 1992. Accounting for reactant consumption in the thermal explosion theory: I-Mathematical foundation. Combustion Flame, 88: 321-344.