[1] V. Eremin, E. Blynskaya, K. Alekseev, S. Tishkov, S. Minaev, (2025) Comparative Analysis of Innovative Wet Granulation Technologies for Pharmaceutical Production (A Review), Pharmaceutical Chemistry J., 1-10.
[2] O.P. Ranjan, A.P. Kumbhar, (2025) Dry and wet granulation, in: Polymers for Oral Drug Delivery Technologies, Elsevier, pp. 463-494.
[3] P. Singh, V.K. Pandey, R. Singh, A.H. Dar, (2024) Spray-freeze-drying as emerging and substantial quality enhancement technique in food industry, Food Science and Biotechnology, 33(2), 231-243.
[4] J. Bag, N. Singh, (2024) Traditional and Contemporary Drying Methods an Overview, J. Ayurveda and Integrated Medical Sciences, 9(6), 111-121.
[5] S.M. El-Sayed, H.S. El-Sayed, A.M. Youssef, (2024) Recent developments in encapsulation techniques for innovative and high-quality dairy products: Demands and challenges, Bioactive Carbohydrates and Dietary Fibre, 100406.
[6] C. Jakkamsetty, P. Subramanian, A. Rashidinejad, (2024) Spray drying of milk and milk products, Spray Drying for the Food Industry, 87-123.
[7] H.I.C. Peláez, M. Cortés-Rodríguez, R. Ortega-Toro, (2023) Storage stability of a fluidized-bed agglomerated spray-dried strawberry powder mixture, F1000Research, 12, 1174.
[8] J. Jang, H. Arastoopour, (2013) CFD simulation of different-scaled bubbling fluidized beds.
[9] F. Taghipour, N. Ellis, C. Wong, (2005) Experimental and computational study of gas–solid fluidized bed hydrodynamics, Chemical Engineering Science, 60(24), 6857-6867.
[10] L. Armstrong, S. Gu, K. Luo, (2010), Study of wall-to-bed heat transfer in a bubbling fluidised bed using the kinetic theory of granular flow, Int. J heat mass transfer, 53(21-22) 4949-4959.
[11] V. Bigot, Guyot I. Bataille D., Roustan M.,- (1990) Possibilities of use of two sensors depression metrological techniques and fiber optics, to characterize the hydrodynamics of a fluidized bed triphasic, Recent Advances in Process Engineering, 4 ,143-156.
[12] F. Merchant, A. Margaritis, J. Wallace, A. Vardanis, (1987) A novel technique for measuring solute diffusivities in entrapment matrices used in immobilization, Biotechnology and bioengineering, 30(8), 936-945.
[13] L.A. Briens, N. Ellis, (2005) Hydrodynamics of three-phase fluidized bed systems examined by statistical, fractal, chaos and wavelet analysis methods, Chemical engineering science, 60(22) 6094-6106.
[14] X. Luo, P. Jiang, L.S. Fan, (1997) High‐pressure three‐phase fluidization: Hydrodynamics and heat transfer, AIChE J., 43(10)2432-2445.
[15] V. Bhatia, N. Epstein, (1974) Three phase fluidization: a generalized wake model, Fluidization and its Applications, 380-392.
[16] H. Jena, G. Roy, K. Biswal, (2008) Studies on pressure drop and minimum fluidization velocity of gas–solid fluidization of homogeneous well-mixed ternary mixtures in un-promoted and promoted square bed, Chemical Engineering J., 145(1) 16-24.
[17] J. Liu, L. Wang, G. Wu, (2024) Sintering Behavior of Molybdenite Concentrate During Oxidation Roasting Process in Air Atmosphere: Influences of Roasting Temperature and K Content, Molecules, 29(21) 5183.
[18] J. Heo, S. Baek, K. Kurniawan, S. Han, Y. Kim, H. Park, J. Seo, (2024) Optimizing rotary kiln operations for molybdenite concentrate oxidation roasting to produce molybdic trioxide, Chemical Engineering J. Advances, 20 100642.
[19] A.A. Shaikh, J. Bhattacharjee, P. Datta, S. Roy, (2024) A comprehensive review of the oxidation states of molybdenum oxides and their diverse applications, Sustainable Chemistry for the Environment, 100125.
[20] W. Zhang, K. Wang, Y. Tian, L. Liao, H. Liu, (2025) High hydrogen evolution reaction performance of MoS2 nanosheets with sulfur vacancies synthesized from natural molybdenite, J. Materials Science, 1-12.
[21] X.-b. Li, W. Tao, Q.-s. Zhou, T.-g. Qi, Z.-h. Peng, G.-h. Liu, (2021)Kinetics of oxidation roasting of molybdenite with different particle sizes, Transactions of Nonferrous Metals Society of China, 31(3) 842-852.
[22]I. Wilkomirsky, A. Otero, E. Balladares, (2010) Kinetics and reaction mechanisms of high-temperature flash oxidation of molybdenite, Metallurgical and Materials Transactions B, 41(1) 63-73.
[23] A. Abdel-Rehim, (1999) Thermal analysis and X-ray diffraction of roasting of Egyptian molybdenite, J. Thermal Analysis and Calorimetry, 57 415-431.
[24] M. Bidabadi, N. Moallemi, A. Shabani, M. Abdous, (2010) Analysis of size distribution and ignition temperature effects on flame speeds in aluminium dust clouds, Proceedings of the Institution of Mechanical Engineers, Part G: J. Aerospace Engineering, 224(1) 113-119.
[25] M. Bidabadi, A. Shabani, (2008)An analytic model for flame quenching distance in aluminum dust suspensions, Australian J. Basis and Applied Sciences, 2(4)1058-1067.
[26] M. Bidabadi, A. Shabani Shahrbabaki, M. Jadidi, S. Montazerinejad, (2010) An analytical study of radiation effects on the premixed laminar flames of aluminium dust clouds, Proceedings of the Institution of Mechanical Engineers, Part C: J. Mech. Eng. Sci., 224(8) 1679-1695.
[27] A.S. Shahrbabaki, R. Abazari, (2009) Perturbation method for heat exchange between a gas and solid particles, J. appl. mech. tech. phys., 50(6) 959-964.
[28] A.S. Shahrbabaki, V. Kalantar, S.H. Mansouri, (2022)Analytical and numerical considerations of the minimum fluidization velocity of the molybdenite particles, Computational Particle Mechanics.
[29] A. Shahrbabaki, M. Dodangeh, (2010) Particle temperature distribution in a dust flame, Proceedings of the Institution of Mechanical Engineers, Part C: J. Mech. Eng. Sci., 224(2) 363-367.
[30] M.A. Izquierdo Barrientos, (2014)Heat transfer and thermal storage in fixed and fluidized beds of phase change materials.
[31] R. Krupiczka, (1967) Analysis of thermal conductivity in granular materials, International Chemical Engineering, 7(1) 122.
[32] W.-c. Yang, (2003)Handbook of fluidization and fluid-particle systems, CRC press.
[33] D. Kunii, O. Levenspiel, (2013)Fluidization engineering, Elsevier.
[34] D. Gunn, (1978)Transfer of heat or mass to particles in fixed and fluidised beds, Int. J.of Heat and Mass Transfer, 21(4) 467-476.
[35] A.K. Kothari, (1967)Analysis of fluid-solid heat transfer coefficients in fluidized beds.
[36] J.H. Espenson, (1995)Chemical kinetics and reaction mechanisms, Citeseer.
[37] G. Mirson, A. Zelikman, (1965) Metallurgy of rare metals, Metallurgia Publ., Moscow.
[38] W. Lu, G.-h. Zhang, D. Jie, K.-c. Chou, (2015) Oxidation roasting of molybdenite concentrate, Transactions of Nonferrous Metals Society of China, 25(12) 4167-4174.
[39] S. Kan, K. Benzeşik, M.Ş. Sönmez, O. Yücel, Roasting of Molybdenite Concentrates in Pilot Scale Rotary Furnace.
[40] T. Marin, T. Utigard, C. Hernandez, (2009) Roasting kinetics of molybdenite concentrates, Canadian Metallurgical Quarterly, 48(1) 73-80.
)