Kang Li
Ceramic Membranes for Separation and Reaction (eBook, PDF)
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Kang Li
Ceramic Membranes for Separation and Reaction (eBook, PDF)
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Ceramic Membranes for Reaction and Separation is the first single-authored guide to the developing area of ceramic membranes. Starting by documenting established procedures of ceramic membrane preparation and characterization, this title then focuses on gas separation. The final chapter covers ceramic membrane reactors;- as distributors and separators, and general engineering considerations. * Chapters include key examples to illustrate membrane synthesis, characterisation and applications in industry. * Theoretical principles, advantages and disadvantages of using ceramic membranes under the various conditions are discussed where applicable.…mehr
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Ceramic Membranes for Reaction and Separation is the first single-authored guide to the developing area of ceramic membranes. Starting by documenting established procedures of ceramic membrane preparation and characterization, this title then focuses on gas separation. The final chapter covers ceramic membrane reactors;- as distributors and separators, and general engineering considerations. * Chapters include key examples to illustrate membrane synthesis, characterisation and applications in industry. * Theoretical principles, advantages and disadvantages of using ceramic membranes under the various conditions are discussed where applicable.
Produktdetails
- Produktdetails
- Verlag: John Wiley & Sons
- Seitenzahl: 316
- Erscheinungstermin: 30. April 2007
- Englisch
- ISBN-13: 9780470319468
- Artikelnr.: 37291234
- Verlag: John Wiley & Sons
- Seitenzahl: 316
- Erscheinungstermin: 30. April 2007
- Englisch
- ISBN-13: 9780470319468
- Artikelnr.: 37291234
Kang Li is Professor of Chemical Engineering at Imperial College London. His present research interests are in the preparation and characterisation of polymeric and inorganic hollow fibre membranes, fluid separations using membranes, and membrane reactors for energy application and CO2 capture. Kang Li currently leads a research group at Imperial of 2 MSc students, 8 PhD students and 3 post-doctorial research fellows. He has published over 180 research papers in international referred journals, holds five patents, and is the author of a book in the area of ceramic membranes - Ceramic Membranes for Separation and Reaction, John Wiley, 2007 -.
Chapter 1. Ceramic Membranes and Membrane Processes. 1.1 Introduction. 1.2
Membrane Processes. References. Chapter 2. Preparation of Ceramic
Membranes. 2.1 Introduction. 2.2 Slip casting. 2.3 Tape casting. 2.4
Pressing. 2.5 Extrusion. 2.6 Sol-gel process. 2.7 Dip-coating. 2.8 Chemical
vapour deposition (CVD). 2.9 Preparation of hollow fibre ceramic membranes.
Appendix 2.1: Surface forces. References. Chapter 3. Characterisation of
Ceramic Membranes. 3.1 Introduction. 3.2 Morphology of membrane surfaces
and cross sections. 3.3 Porous ceramic membranes. (a) Bubble point method.
(b) Liquid displacement method. (a) Liquid permeation. (b) Gas permeation.
3.4 Dense ceramic membranes. Notation. References. Chapter 4. Transport and
Separation of Gases in Porous Ceramic Membranes. 4.1 Introduction. 4.2
Performance indicators of gas separation membranes. 4.3 Ceramic membranes
for gas separation. 4.4 Transport Mechanisms. 4.5 Modification of porous
ceramic membranes for gas separation. 4.6 Resistance model for gas
transport in composite membranes. 4.7 System design. (a) Perfect mixing.
(b) Cross flow. (c ) Parallel plug flow. (a) Perfect mixing. (b) Cross
flow. (c) Cocurrent flow. (d) Countercurrent flow. Notation. References.
Chapter 5. Ceramic Hollow Fibre Membrane Contactors for Treatment of
Gases/Vapours. 5.1 Introduction. 5.2 General review. 5.3 Operating modes
and mass transfer coefficients. 5.4 Mass transfer in hollow fibre
contactors. 5.5 Effect of chemical reaction. 5.6 Design equations.
Notation. References. Appendix A. Chapter 6. Mixed Conducting Ceramic
Membranes for Oxygen Separation. 6.1 Introduction. 6.2 Fundamentals of
mixed conducting ceramic materials. 6.3 Current status in oxygen permeable
membranes. Sr(Co,Fe)O3-d (SCFO). La(Co,Fe)O3-d (LCFO). LaGaO3(LGO). 6.4
Dual phase membranes. 6.5 Oxygen transport. 6.6 Air separation. Cocurrent
flow. Countercurrent flow. Effect of operating pressures and temperatures.
Effect of flow patterns. Effect of feed flow rate. Effect of membrane area.
Comparison with experimental data. Production of oxygen using hollow fibre
modules. 6.7 Further development-challenges and prospects. Notation.
References. Chapter 7. Mixed Conducting Ceramic Membranes for Hydrogen
Permeation. 7.1 Introduction. 7.2 Proton and electron (hole) conducting
materials and membranes. 7.3 Dual phase membranes. 7.4 Proton transport.
Effect of membrane thickness. Effect of temperature. Effect of partial
pressure of oxygen. Comparison with experimental data. 7.5 Applications of
proton conducting ceramic membranes. Notation. References. Chapter 8.
Ceramic Membrane Reactors. 8.1 Introduction. 8.2 Membranes as product
separators. 8.3 Membranes as a reactant distributor. Notation. References.
Membrane Processes. References. Chapter 2. Preparation of Ceramic
Membranes. 2.1 Introduction. 2.2 Slip casting. 2.3 Tape casting. 2.4
Pressing. 2.5 Extrusion. 2.6 Sol-gel process. 2.7 Dip-coating. 2.8 Chemical
vapour deposition (CVD). 2.9 Preparation of hollow fibre ceramic membranes.
Appendix 2.1: Surface forces. References. Chapter 3. Characterisation of
Ceramic Membranes. 3.1 Introduction. 3.2 Morphology of membrane surfaces
and cross sections. 3.3 Porous ceramic membranes. (a) Bubble point method.
(b) Liquid displacement method. (a) Liquid permeation. (b) Gas permeation.
3.4 Dense ceramic membranes. Notation. References. Chapter 4. Transport and
Separation of Gases in Porous Ceramic Membranes. 4.1 Introduction. 4.2
Performance indicators of gas separation membranes. 4.3 Ceramic membranes
for gas separation. 4.4 Transport Mechanisms. 4.5 Modification of porous
ceramic membranes for gas separation. 4.6 Resistance model for gas
transport in composite membranes. 4.7 System design. (a) Perfect mixing.
(b) Cross flow. (c ) Parallel plug flow. (a) Perfect mixing. (b) Cross
flow. (c) Cocurrent flow. (d) Countercurrent flow. Notation. References.
Chapter 5. Ceramic Hollow Fibre Membrane Contactors for Treatment of
Gases/Vapours. 5.1 Introduction. 5.2 General review. 5.3 Operating modes
and mass transfer coefficients. 5.4 Mass transfer in hollow fibre
contactors. 5.5 Effect of chemical reaction. 5.6 Design equations.
Notation. References. Appendix A. Chapter 6. Mixed Conducting Ceramic
Membranes for Oxygen Separation. 6.1 Introduction. 6.2 Fundamentals of
mixed conducting ceramic materials. 6.3 Current status in oxygen permeable
membranes. Sr(Co,Fe)O3-d (SCFO). La(Co,Fe)O3-d (LCFO). LaGaO3(LGO). 6.4
Dual phase membranes. 6.5 Oxygen transport. 6.6 Air separation. Cocurrent
flow. Countercurrent flow. Effect of operating pressures and temperatures.
Effect of flow patterns. Effect of feed flow rate. Effect of membrane area.
Comparison with experimental data. Production of oxygen using hollow fibre
modules. 6.7 Further development-challenges and prospects. Notation.
References. Chapter 7. Mixed Conducting Ceramic Membranes for Hydrogen
Permeation. 7.1 Introduction. 7.2 Proton and electron (hole) conducting
materials and membranes. 7.3 Dual phase membranes. 7.4 Proton transport.
Effect of membrane thickness. Effect of temperature. Effect of partial
pressure of oxygen. Comparison with experimental data. 7.5 Applications of
proton conducting ceramic membranes. Notation. References. Chapter 8.
Ceramic Membrane Reactors. 8.1 Introduction. 8.2 Membranes as product
separators. 8.3 Membranes as a reactant distributor. Notation. References.
Chapter 1. Ceramic Membranes and Membrane Processes. 1.1 Introduction. 1.2
Membrane Processes. References. Chapter 2. Preparation of Ceramic
Membranes. 2.1 Introduction. 2.2 Slip casting. 2.3 Tape casting. 2.4
Pressing. 2.5 Extrusion. 2.6 Sol-gel process. 2.7 Dip-coating. 2.8 Chemical
vapour deposition (CVD). 2.9 Preparation of hollow fibre ceramic membranes.
Appendix 2.1: Surface forces. References. Chapter 3. Characterisation of
Ceramic Membranes. 3.1 Introduction. 3.2 Morphology of membrane surfaces
and cross sections. 3.3 Porous ceramic membranes. (a) Bubble point method.
(b) Liquid displacement method. (a) Liquid permeation. (b) Gas permeation.
3.4 Dense ceramic membranes. Notation. References. Chapter 4. Transport and
Separation of Gases in Porous Ceramic Membranes. 4.1 Introduction. 4.2
Performance indicators of gas separation membranes. 4.3 Ceramic membranes
for gas separation. 4.4 Transport Mechanisms. 4.5 Modification of porous
ceramic membranes for gas separation. 4.6 Resistance model for gas
transport in composite membranes. 4.7 System design. (a) Perfect mixing.
(b) Cross flow. (c ) Parallel plug flow. (a) Perfect mixing. (b) Cross
flow. (c) Cocurrent flow. (d) Countercurrent flow. Notation. References.
Chapter 5. Ceramic Hollow Fibre Membrane Contactors for Treatment of
Gases/Vapours. 5.1 Introduction. 5.2 General review. 5.3 Operating modes
and mass transfer coefficients. 5.4 Mass transfer in hollow fibre
contactors. 5.5 Effect of chemical reaction. 5.6 Design equations.
Notation. References. Appendix A. Chapter 6. Mixed Conducting Ceramic
Membranes for Oxygen Separation. 6.1 Introduction. 6.2 Fundamentals of
mixed conducting ceramic materials. 6.3 Current status in oxygen permeable
membranes. Sr(Co,Fe)O3-d (SCFO). La(Co,Fe)O3-d (LCFO). LaGaO3(LGO). 6.4
Dual phase membranes. 6.5 Oxygen transport. 6.6 Air separation. Cocurrent
flow. Countercurrent flow. Effect of operating pressures and temperatures.
Effect of flow patterns. Effect of feed flow rate. Effect of membrane area.
Comparison with experimental data. Production of oxygen using hollow fibre
modules. 6.7 Further development-challenges and prospects. Notation.
References. Chapter 7. Mixed Conducting Ceramic Membranes for Hydrogen
Permeation. 7.1 Introduction. 7.2 Proton and electron (hole) conducting
materials and membranes. 7.3 Dual phase membranes. 7.4 Proton transport.
Effect of membrane thickness. Effect of temperature. Effect of partial
pressure of oxygen. Comparison with experimental data. 7.5 Applications of
proton conducting ceramic membranes. Notation. References. Chapter 8.
Ceramic Membrane Reactors. 8.1 Introduction. 8.2 Membranes as product
separators. 8.3 Membranes as a reactant distributor. Notation. References.
Membrane Processes. References. Chapter 2. Preparation of Ceramic
Membranes. 2.1 Introduction. 2.2 Slip casting. 2.3 Tape casting. 2.4
Pressing. 2.5 Extrusion. 2.6 Sol-gel process. 2.7 Dip-coating. 2.8 Chemical
vapour deposition (CVD). 2.9 Preparation of hollow fibre ceramic membranes.
Appendix 2.1: Surface forces. References. Chapter 3. Characterisation of
Ceramic Membranes. 3.1 Introduction. 3.2 Morphology of membrane surfaces
and cross sections. 3.3 Porous ceramic membranes. (a) Bubble point method.
(b) Liquid displacement method. (a) Liquid permeation. (b) Gas permeation.
3.4 Dense ceramic membranes. Notation. References. Chapter 4. Transport and
Separation of Gases in Porous Ceramic Membranes. 4.1 Introduction. 4.2
Performance indicators of gas separation membranes. 4.3 Ceramic membranes
for gas separation. 4.4 Transport Mechanisms. 4.5 Modification of porous
ceramic membranes for gas separation. 4.6 Resistance model for gas
transport in composite membranes. 4.7 System design. (a) Perfect mixing.
(b) Cross flow. (c ) Parallel plug flow. (a) Perfect mixing. (b) Cross
flow. (c) Cocurrent flow. (d) Countercurrent flow. Notation. References.
Chapter 5. Ceramic Hollow Fibre Membrane Contactors for Treatment of
Gases/Vapours. 5.1 Introduction. 5.2 General review. 5.3 Operating modes
and mass transfer coefficients. 5.4 Mass transfer in hollow fibre
contactors. 5.5 Effect of chemical reaction. 5.6 Design equations.
Notation. References. Appendix A. Chapter 6. Mixed Conducting Ceramic
Membranes for Oxygen Separation. 6.1 Introduction. 6.2 Fundamentals of
mixed conducting ceramic materials. 6.3 Current status in oxygen permeable
membranes. Sr(Co,Fe)O3-d (SCFO). La(Co,Fe)O3-d (LCFO). LaGaO3(LGO). 6.4
Dual phase membranes. 6.5 Oxygen transport. 6.6 Air separation. Cocurrent
flow. Countercurrent flow. Effect of operating pressures and temperatures.
Effect of flow patterns. Effect of feed flow rate. Effect of membrane area.
Comparison with experimental data. Production of oxygen using hollow fibre
modules. 6.7 Further development-challenges and prospects. Notation.
References. Chapter 7. Mixed Conducting Ceramic Membranes for Hydrogen
Permeation. 7.1 Introduction. 7.2 Proton and electron (hole) conducting
materials and membranes. 7.3 Dual phase membranes. 7.4 Proton transport.
Effect of membrane thickness. Effect of temperature. Effect of partial
pressure of oxygen. Comparison with experimental data. 7.5 Applications of
proton conducting ceramic membranes. Notation. References. Chapter 8.
Ceramic Membrane Reactors. 8.1 Introduction. 8.2 Membranes as product
separators. 8.3 Membranes as a reactant distributor. Notation. References.