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Showing papers on "Population balance equation published in 1980"


Journal ArticleDOI
TL;DR: In this paper, a Monte Carlo simulation model has been developed to model the drop size distribution of a homogeneous dispersion sustained by turbulent agitation, which has the potential to model more complicated systems with further modification and may then be used as a scale-up tool.

39 citations


Book ChapterDOI
01 Jan 1980
TL;DR: In this article, the dynamics of aerosols are described by a population balance equation, which can be termed as the general dynamic equation, and the evolving size spectra, in the three cases of diffusion-, surface reaction-, and volume reaction-controlled growth, exhibits certain distinct features characteristic of the growth mechanism.
Abstract: Publisher Summary This chapter presents dynamics of aerosols. Aerosols, or atmospheric particles, can vary in size from collections of a few molecules to cloud droplets. The evolution of these particles occurs as a result of particle-particle collisions and individual particle growth because of accretion of vapor molecules. The process of individual particle growth can involve chemical reactions occurring in the particles. The chapter also presents the basic conservation equations for the aerosol number concentration as a function of particle size. It discusses the kinetic coefficients that appear in the basic equations and describes dimensionless groups that characterize the aerosol. It also illustrates the results of certain interesting cases of aerosol evolution during pure growth. The dynamic behavior of an aerosol is described by a population balance equation, which can be termed as the general dynamic equation. The evolving size spectra, in the three cases of diffusion-, surface reaction-, and volume reaction-controlled growth, exhibits certain distinct features characteristic of the growth mechanism.

12 citations



Journal ArticleDOI
TL;DR: In this article, the behavior of aerosols undergoing Brownian coagulation, Brownian diffusive deposition and gravitational sedimentation in a flow type chamber was studied by solving the population balance equation numerically for a polydisperse aerosol system and analytically for an monodisperse system, and then the results were examined by experiment.

5 citations