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Investigations on Mesoscale Structure in Gas–Solid Fluidization and Heterogeneous Drag Model [electronic resource] / by Cheng Chen.

By: Chen, Cheng [author.].
Contributor(s): SpringerLink (Online service).
Material type: materialTypeLabelBookSeries: Springer Theses, Recognizing Outstanding Ph.D. Research: Publisher: Berlin, Heidelberg : Springer Berlin Heidelberg : Imprint: Springer, 2016Edition: 1st ed. 2016.Description: XVII, 118 p. online resource.Content type: text Media type: computer Carrier type: online resourceISBN: 9783662483732.Subject(s): Thermodynamics | Heat engineering | Heat transfer | Mass transfer | Chemistry, Technical | Engineering Thermodynamics, Heat and Mass Transfer | Thermodynamics | Industrial ChemistryAdditional physical formats: Printed edition:: No title; Printed edition:: No title; Printed edition:: No titleDDC classification: 621.4021 Online resources: Click here to access online
Contents:
Introduction -- Analysis on the EMMS Theory -- Cluster Model and Heterogeneous Drag Model -- Condition Universality of Heterogeneous Drag Model -- Conclusions and Outlook.
In: Springer Nature eBookSummary: This book explores the Energy Minimization Multi-scale (EMMS) theory and the drag model for heterogeneous gas-solid fluidized flows. The results show that the cluster density plays a critical role with regard to drag. A novel cluster model is proposed and indicates that the profile of cluster density is single-peaked with the maximum value located at solid concentrations of 0.1~0.15. The EMMS theory is improved with the cluster model and an accurate drag model is developed. The model’s universality is achieved by investigating the relationship between the heterogeneity and flow patterns. The drag model is subsequently verified numerically and experimentally.
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Introduction -- Analysis on the EMMS Theory -- Cluster Model and Heterogeneous Drag Model -- Condition Universality of Heterogeneous Drag Model -- Conclusions and Outlook.

This book explores the Energy Minimization Multi-scale (EMMS) theory and the drag model for heterogeneous gas-solid fluidized flows. The results show that the cluster density plays a critical role with regard to drag. A novel cluster model is proposed and indicates that the profile of cluster density is single-peaked with the maximum value located at solid concentrations of 0.1~0.15. The EMMS theory is improved with the cluster model and an accurate drag model is developed. The model’s universality is achieved by investigating the relationship between the heterogeneity and flow patterns. The drag model is subsequently verified numerically and experimentally.

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