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This book covers filtration in various modes of operation for both solid/gas and solid/liquid suspensions. It provides the necessary knowledge and background information to prepare… Read more
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Dedication
Preface
1. Introduction
1.1 Filtration as a Liquid–Solid Separation Technology
1.2 Classification of Filtration Processes
1.3 Laws of Filtration
Problem
References
Part 1 Cake Filtration
2. Cake Formation and Growth
2.1 Filtration Cycles
2.2 Analysis of Cake Filtration
2.3 The Conventional Cake Filtration Theory
2.4 Expressions of Cake Filtration Performance
2.5 Parabolic Law of Constant Pressure Filtration
2.6 Approximate Expressions of Cake Solidosity, Compressive Stress, and Pore Liquid Pressure Profiles
2.7 Applications of the Conventional Cake Filtration Theory
2.8 Application of the Conventional Theory to Crossflow Cake Filtration
Problems
References
3. Post-Treatment Processes of Cake Filtration
3.1 Deliquoring by Mechanical Force: Expression and Consolidation
3.2 Deliquoring by Suction or Blowing
3.3 Washing of Filter Cakes
Problems
References
4. Fabric Filtration of Gas–Solid Mixtures
4.1 Dust Cakes of Fabric Filtration vs. Cakes Formed from Liquid/Solid Suspensions
4.2 Analysis of Fabric Filtration
4.3 Dust Cake Structure and Properties
4.4 Filter Bag Cleaning
4.5 Fabric Filtration Design Calculations
4.6 Simplified Calculation of Multi-Compartment Fabric Filtration
Problems
References
Part 2 Deep Bed Filtration
5. Deep Bed Filtration
5.1 Macroscopic Conservation Equation
5.2 Phenomenological Expression for Filtration Rate
5.3 Physical Significance of the Filter Coefficient
5.4 Representation of Filter Media with Cell Models
5.5 Flow Rate–Pressure Drop Relationships for Flow through Porous Media
5.6 Filter Cleaning by Back Washing and Bed Expansion
5.7 Solution of the Macroscopic Conservation Equations of Deep Bed Filtration
Problems
References
6. Particle Deposition Mechanisms, Predictions, Determinations and Correlations of Filter Coefficient/Collector Efficiency
6.1 Deposition Mechanisms and Prediction of Collector Efficiency based on Individual Transport Mechanism
6.2 Experimental Determination of Filter Coefficient
6.3 Correlations of Filter Coefficient/Collector Efficiency of Aerosols
6.4 Filter Coefficient Correlations of Hydrosols
6.5 Particle-Collector Surface Interactions Effect on Hydrosol Deposition in Granular Media
Problems
References
7. Deep Bed Filtration Models
7.1 Experimental Results of Filtration Performance
7.2 Models Based on the Kozeny–Carman Equation
7.3 Models Based on Assumption that Deposited Particles Function as Collectors
7.4 Models Based on Changing Particle–Collector Surface Interactions
7.5 Modeling Filtration as a Stochastic Process
Problems
References
Index
CT