Physical Review Letters · 1998 · 199 citations · 19 references
EngineeringMeteorologyCloud PhysicsComputational Fluid DynamicsTransport PhenomenaGrain Size DistributionGrowth TheoryKinetic ModelingParticle SizeGrowth By Vapor DiffusionGrowth KineticsParticle GrowthParticle Growth KineticsParticle Growth MechanismsParticle Size ModelingParticle-size DistributionVapor Growth
A new model is proposed to explain lognormal particle size distributions found in vapor growth processes such as gas evaporation, without invoking coagulation. In the model, particles are moving by diffusion and drift through a finite growth region. The particle size is assumed to be a power function of growth time, and the final size distribution is determined by the first passage times. By computer simulation, lognormal size distributions and scaling laws interrelating the distribution parameters, the size of the growth region, and the drift speed were found.
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H. Gleiter · Progress in Materials Science · 1989 · 3.7K citations · Full text
C. G. Granqvist, R. A. Buhrman · Journal of Applied Physics · 1976 · 1.6K citations
Natural Sciences, Materials Engineering, Materials Science +17
The theory of stochastic processes
A. Papoulis · Journal of the Franklin Institute · 1966 · 701 citations
Engineering, Mathematics, Physics +12