TY - JOUR VL - 10 A1 - Ahmed, A.O.M. A1 - Maulud, A.S. A1 - Ramasamy, M. A1 - Mahadzir, S. JF - Journal of Applied Sciences UR - https://www.scopus.com/inward/record.uri?eid=2-s2.0-78049400624&doi=10.3923%2fjas.2010.3207.3214&partnerID=40&md5=58d066364bd2329982ec0e94555dfbee Y1 - 2010/// ID - scholars1364 KW - Catalysts; Catalytic cracking; Cracks; Fluid dynamics; Gasoline; Hydrodynamics; Kinetic parameters; Kinetic theory KW - Catalyst circulation rates; Catalyst-to-oil ratios; Industrial residues; Kinetic modeling; Material and energy balances; Process Variables; Steady-state modeling; Two-dimensional hydrodynamic modeling KW - Fluid catalytic cracking N2 - The aim of this study is to obtain a steady state model that can simulate an industrial Residue Fluid Catalytic Cracking (RFCC) unit. This unit is one of the technologies for producing more gasoline from residue. The yield of gasoline in RFCC strongly depends on certain process variables. In this work, an RFCC model is developed by combining the material and energy balance equations with a 7-lump kinetic model and a modified two-dimensional hydrodynamic model. Simulation has been performed based on the data from an operating unit at Khartoum Refinery Company (KRC) and the results are reported. Optimum values of process variables for a required cracking efficiency, such as space velocity, catalyst to oil ratio and catalyst circulation rate, are also reported. © 2010 Asian Network for Scientific Information. IS - 24 EP - 3214 PB - Asian Network for Scientific Information SN - 18125654 TI - Steady state modeling and simulation of the riser in an industrial RFCC unit SP - 3207 N1 - cited By 0 AV - none ER -