A minimal potential energy model for predicting stratification pattern in binary and ternary solid-liquid fluidized beds

Predicting the stratification pattern of a binary or ternary solid-liquid fluidized bed requires not only the calculation of the volume fractions of particles in mixed and mono-component layers but also the specification of the order and the thickness of the layers in the bed. A model was developed...

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Veröffentlicht in:Chemical engineering science 1996, Vol.51 (3), p.341-351
Hauptverfasser: Funamizu, Naoyuki, Takakuwa, Tetsuo
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Takakuwa, Tetsuo
description Predicting the stratification pattern of a binary or ternary solid-liquid fluidized bed requires not only the calculation of the volume fractions of particles in mixed and mono-component layers but also the specification of the order and the thickness of the layers in the bed. A model was developed for such prediction on the hypothesis that the total potential energy of particles in a bed is minimal. Experiments were carried out for a solid system consisting of glass beads, activated carbon and acrylic particles. The experimental results verified the predicted stratification patterns computed on the basis of the hypothesis adopted in this study.
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source Elsevier ScienceDirect Journals
subjects Acrylics
Activated carbon
Applied sciences
Calculations
Chemical engineering
Exact sciences and technology
Fluidization
Glass
Mathematical models
Mixtures
Optimization
Particles (particulate matter)
Solid solutions
Thermal stratification
Thermodynamic stability
Volume fraction
title A minimal potential energy model for predicting stratification pattern in binary and ternary solid-liquid fluidized beds
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