Soot Coagulation with Surface Growth Kinetics

Hodges, Joseph T.; Foster, David E.

doi:10.1080/00102208708960323

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Bimodal Solution Formulation1

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1989

1990

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Cited by 2 publications

(1 citation statement)

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“…The above observations under various experimental conditions led to the wide use of the lognormal form as a reasonable approximation to the PVDF of aerosol particulates (Whitby, 1981;Lee et al, 1983Dobbins and Mulholland, 1984;Hodges and Foster, 1986).…”

Section: Bimodal Solution Formulationmentioning

confidence: 99%

A Bimodal Integral Solution of the Dynamic Equation for an Aerosol Undergoing Simultaneous Particle Inception and Coagulation

Megaridis

Dobbins

1990

Aerosol Science and Technology

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Section: Bimodal Solution Formulationmentioning

confidence: 99%

A Bimodal Integral Solution of the Dynamic Equation for an Aerosol Undergoing Simultaneous Particle Inception and Coagulation

Megaridis

Dobbins

1990

Aerosol Science and Technology

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An Integral Solution of the Aerosol Dynamic Equation Including Surface Growth Reactions

Megaridis

Dobbins

1989

GCST

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A mathematical model examining the dynamic behavior of an aerosol undergoing simultaneous particle inception and coagulation or surface growth reactions and coagulation is presented. A bimodal configuration of the distribution function is used to formulate the problem when particle inception mechanisms arc present. Both modes of the distribution are assumed to be of a log-normal form with time varying properties. The model requires knowledge ofthe specific surface growth rate as a function of time, and is potentially applicable for studying aerosols where the surface growth reactions do not coexist with the particle inception mechanisms. The model is used to simulate the time evolution of a soot aerosol inside a flame environment and some important conclusions are drawn related to this problem.

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Soot Coagulation with Surface Growth Kinetics

Cited by 2 publications

References 8 publications

A Bimodal Integral Solution of the Dynamic Equation for an Aerosol Undergoing Simultaneous Particle Inception and Coagulation

A Bimodal Integral Solution of the Dynamic Equation for an Aerosol Undergoing Simultaneous Particle Inception and Coagulation

An Integral Solution of the Aerosol Dynamic Equation Including Surface Growth Reactions

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