Chemical Vapor Deposition · 2007 · 15 citations · 8 references
EngineeringChemical EngineeringMaterials EngineeringComputational Fluid DynamicsProcess Systems EngineeringReaction EngineeringGrain Size DistributionParticle SizeParticulate MatterProcess SimulationReactor KineticsReactor ModelingBreakage KineticsOperating ConditionsParticle Growth KineticsParticle Size ModelingPopulation BalancePopulation Balance EquationsPopulation Balance ModelingSilicon
Abstract A finite‐dimensional, state‐space model of the discrete distribution function bypasses discretization of the continuous population balance, and facilitates simple modeling and fast numerical integration. An analytical expression describes the steady‐state, average particle diameter as a function of parameters such as nucleation, agglomeration, breakage, seed rate, and average seed particle diameter. The discrete population balance model is used to evaluate the analytical expression sensitivity to growth and decay phenomena such as nucleation, agglomeration, and breakage. The analytical expression is validated against data obtained from an industrial‐scale, fluidized bed, pilot reactor designed to produce solar‐grade silicon. The results indicate how the analytical expression describes a CVD‐type growth process, and also how the growth process may deviate due to the operating conditions.
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Charles D. Immanuel, Francis J. Doyle · Chemical Engineering Science · 2003 · 109 citations
Engineering, Chemical Engineering, Computational Engineering +14
Cell population modelling of yeast glycolytic oscillations
Michael A. Henson, Dirk Müller · Biochemical Journal · 2002 · 62 citations · Full text
Life Sciences, Biology, Cell Biology +16