Advances and Technology Development in Greenhouse Gases: Emission, Capture and Conversion

Carbon Capture Technologies

1st Edition - July 19, 2024
Editors: Mohammad Reza Rahimpour, Mohammad Amin Makarem, Maryam Meshksar
Language: English
Paperback ISBN:
9 7 8 - 0 - 4 4 3 - 1 9 2 3 3 - 3
eBook ISBN:
9 7 8 - 0 - 4 4 3 - 1 9 2 3 4 - 0

Advances and Technology Development in Greenhouse Gases: Emission, Capture and Conversion is a comprehensive series that discusses the composition and properties of greenhous… Read more

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Advances and Technology Development in Greenhouse Gases: Emission, Capture and Conversion is a comprehensive series that discusses the composition and properties of greenhouse gases (GHGs) and introduces different sources of GHGs’ emission and the relation between GHGs and global warming. The comprehensive and detailed presentation of common technologies as well as novel research related to all aspects of GHGs makes this work an indispensable encyclopedic resource for researchers in academia and industry.

Carbon Capture Technologies is devoted to efficient technologies utilized for separating carbon-made GHGs. Section 1 reviews carbon capture concepts followed by a meticulous investigation of different classes of capture methods. Section 2 surveys the absorption process, including amines, physical absorbents, ionic liquids, and deep eutectic and nanoparticle-enhanced solvents. Section 3 addresses adsorption-based strategies with a focus on the role of different solid adsorbents. Section 4 introduces technologies that benefit from membranes and considers different materials utilized in the fabrication of membranes. Finally, Section 5 deals with other as state-of-the-art alternatives in carbon capture.

Cover image
Title page
Table of Contents
Copyright
List of contributors
About the editors
Preface
Reviewer acknowledgments
Section 1: Carbon capture concepts
Chapter one. Introduction to carbon capture methods and technologies
Abstract
1.1 Introduction
1.2 Present scenario
1.3 Part played by carbon capture and storage
1.4 Pathways to capture CO2 postcombustion
1.5 Future generation technologies to capture CO2
1.6 Negative emission technologies
1.7 Conclusion and future outlooks
Abbreviations and symbols
References
Section 2: Absorption techniques for carbon capture
Chapter two. Application of amines for carbon capture
Abstract
2.1 Introduction
2.2 Amine-based carbon capture processes
2.3 Amine-functionalized solid
2.4 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter three. Physical and hybrid solvents for carbon capture: ethers, ammonia, and methanol
Abstract
3.1 Introduction
3.2 Carbon capture techniques
3.3 Physical sorption techniques
3.4 Commercial physical absorption process
3.5 Techno-economic analysis of physical absorption
3.6 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter four. Ionic liquids and deep eutectic solvents for carbon capture
Abstract
4.1 Introduction
4.2 Principles and procedures
4.3 Processes
4.4 Current applications and cases
4.5 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter five. Carbon capture by solvents modified with nanoparticle
Abstract
5.1 Introduction
5.2 Nanoparticles in carbon capture
5.3 Mechanisms of nanoparticle-enhanced carbon capture
5.4 Methods for nanoparticle synthesis
5.5 Characterization techniques for nanoparticles
5.6 Surface modification of nanoparticles for carbon capture
5.7 Economic and environmental considerations
5.8 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter six. Carbon capture by encapsulated liquid sorbents
Abstract
6.1 Introduction
6.2 Different methods for carbon capture
6.3 Encapsulated liquid sorbents used for carbon capture
6.4 Sorbent selection criteria
6.5 Carbon capture with encapsulated ionic liquids
6.6 Carbon capture by amine-based sorbents
6.7 Performance and efficiency of encapsulated sorbents
6.8 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter seven. Novel gas–liquid contactors for carbon capture: mini- and microchannels and rotating packed beds
Abstract
7.1 Introduction
7.2 Mini- and microchannels for CO2 capture
7.3 Rotating packed bed for CO2 absorption
7.4 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter eight. Cryogenic fractionation for carbon capture
Abstract
8.1 Introduction
8.2 Carbon capture and sequestration
8.3 CO2 capture technologies
8.4 Cryogenic CO2 capture technologies
8.5 Conclusion and future outlooks
Abbreviations
References
Chapter nine. Enzymatic carbon capture and conversion technology
Abstract
9.1 Introduction
9.2 Enzymatic reactions for carbon capture
9.3 Enzyme immobilization
9.4 Biocatalytic absorption column for carbon capture
9.5 Biocatalytic membranes for carbon capture
9.6 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter ten. Economic assessments and environmental challenges of carbon capture using absorption techniques
Abstract
10.1 Introduction
10.2 Principles and procedures of CO2 capture technologies
10.3 Processes
10.4 Current applications
10.5 Conclusion and future outlooks
Abbreviations and symbols
References
Section 3: Adsorption techniques for carbon capture
Chapter eleven. Swing technologies for carbon capture: pressure, thermal, vacuum, electrical, and mixed swing processes
Abstract
11.1 Introduction
11.2 Cycles
11.3 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter twelve. Carbon capture by carbonaceous sorbents
Abstract
12.1 Introduction
12.2 Principles and procedures
12.3 Processes
12.4 Current applications and cases
12.5 Application of graphene-based adsorbents for CO2 adsorption
12.6 Conclusion and future outlooks
Acknowledgments
Author contribution statement
Abbreviations and symbols
References
Chapter thirteen. Metal oxides and porous-based sorbents for carbon capture: metal-organic frameworks, porous silica, zeolites
Abstract
13.1 Introduction
13.2 Carbon dioxide capture methods
13.3 Carbon dioxide adsorption processes
13.4 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter fourteen. Carbon dioxide adsorption over photocatalyst
Abstract
14.1 Introduction
14.2 Photocatalysis
14.3 Carbon dioxide adsorption
14.4 Photocatalytic carbon dioxide conversion
14.5 Applications
14.6 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter Fifteen. Amino-based adsorbents for carbon capture
Abstract
15.1 Introduction
15.2 Polyamine-based materials with high carbon dioxide adsorption capacity
15.3 Development of polyamine carbon dioxide adsorbents
15.4 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter sixteen. Carbon dioxide capture using algae
Abstract
16.1 Introduction
16.2 Mechanism
16.3 Closed system bioreactor
16.4 Open system
16.5 Conclusion and future outlooks
Abbreviations and symbols
References
Section 4: Membrane technology for carbon capture
Chapter seventeen. Hollow-fiber membranes for carbon capture and separation
Abstract
17.1 Introduction
17.2 Membrane module design
17.3 Principles and performance
17.4 Issues related to hollow-fiber mixed-matrix membranes fabrication for CO2 removal from CH4 and N2
17.5 Current applications and cases
17.6 Conclusion and future outlooks
Abbreviations
References
Chapter eighteen. Carbon capture and separation by polymeric membranes
Abstract
18.1 Introduction
18.2 Theory
18.3 Membrane architecture
18.4 Polymers
18.5 Robeson’s upper bound
18.6 Facilitated transport membranes
18.7 Current applications
18.8 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter nineteen. Carbon capture and separation by ionic liquid membranes
Abstract
19.1 Introduction
19.2 Types of ionic liquid membranes
19.3 Alternative to selective membranes: membrane contactors
19.4 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter twenty. Metal-organic framework mixed matrix membranes for carbon capture and separation
Abstract
20.1 Introduction
20.2 Metal-organic framework synthesis and characterization
20.3 Mixed matrix membrane preparation and characterization
20.4 Performance of metal-organic framework mixed matrix membranes for carbon capture and separation
20.5 Applications of metal-organic framework mixed matrix membranes in carbon capture and separation
20.6 Conclusion and future outlooks
Abbreviations and symbols
References
Section 5: Other technologies for carbon capture
Chapter twenty-one. Oxyfuel combustion as a carbon capture technique
Abstract
21.1 Introduction
21.2 Climate change: necessity and exigency for clean combustion technologies
21.3 Carbon capture and storage with the power generation
21.4 Comparing with postcombustion-capturing technique
21.5 Oxypower cycle design characteristics and consideration
21.6 Oxycombustion characteristics and final remarks
21.7 Current demonstration plants, proof-of-concepts, and pilot test rigs
21.8 Iran CO2 emission and outlook of oxyfuel combustion for carbon capture and storage in Iran
21.9 Conclusion and future outlooks
Abbreviations and symbols
References
Chapter twenty-two. Recent advances and new concepts of carbon capture
Abstract
22.1 Introduction
22.2 Technologies and methods
22.3 Challenges in carbon-capture technologies
22.4 Active projects in carbon capturing
22.5 Concepts in carbon capture
22.6 Adsorption-based carbon capture
22.7 Chemical fixation of CO2
22.8 Conclusion and future outlooks
Acknowledgments
Abbreviations and symbols
References
Chapter twenty-three. Economic assessment and environmental challenges of carbon capture using membrane techniques
Abstract
23.1 Introduction
23.2 Principles and procedures
23.3 Processes
23.4 Current applications and cases
23.5 Conclusion and future outlooks
Abbreviations and symbols
Subscripts and superscripts
References
Index

Mohammad Reza Rahimpour

Prof. Mohammad Reza Rahimpour is a professor in Chemical Engineering at Shiraz University, Iran. He received his Ph.D. in Chemical Engineering from Shiraz University joint with University of Sydney, Australia 1988. He started his independent career as Assistant Professor in September 1998 at Shiraz University. Prof. M.R. Rahimpour, was a Research Associate at University of California, Davis from 2012 till 2017. During his stay in University of California, he developed different reaction networks and catalytic processes such as thermal and plasma reactors for upgrading of lignin bio-oil to biofuel with collaboration of UCDAVIS. He has been a Chair of Department of Chemical Engineering at Shiraz University from 2005 till 2009 and from 2015 till 2020. Prof. M.R. Rahimpour leads a research group in fuel processing technology focused on the catalytic conversion of fossil fuels such as natural gas, and renewable fuels such as bio-oils derived from lignin to valuable energy sources. He provides young distinguished scholars with perfect educational opportunities in both experimental methods and theoretical tools in developing countries to investigate in-depth research in the various field of chemical engineering including carbon capture, chemical looping, membrane separation, storage and utilization technologies, novel technologies for natural gas conversion and improving the energy efficiency in the production and use of natural gas industries.

Affiliations and expertise

Professor, Department of Chemical Engineering, Shiraz University, Shiraz, Iran

Mohammad Amin Makarem

Dr. Mohammad Amin Makarem is a research associate at Shiraz University. His research interests are gas separation and purification, nanofluids, microfluidics, catalyst synthesis, reactor design, and green energy. In gas separation, his focus is on experimental and theoretical investigation and optimization of pressure swing adsorption process, and in the gas purification field, he is working on novel technologies such as microchannels. Recently, he has investigated methods of synthesizing biotemplate nanomaterials and catalysts. Besides, he has collaborated in writing and editing various books and book chapters for famous publishers such as Elsevier, Springer, and Wiley.

Affiliations and expertise

Research Associate, Department of Chemical Engineering, Shiraz University, Shiraz, Iran

Maryam Meshksar

Maryam Meshksar is a research associate at Shiraz University. Her research has focused on gas separation, clean energy, and catalyst synthesis. In gas separation, she is working on membrane separation process, and in the clean energy field, she has worked on different reforming-based processes for syngas production from methane experimentally. She has also synthesized novel catalysts for these processes which are tested in for the first time. Besides, she has reviewed novel technologies like microchannels for energy production. Recently, she has written various book-chapters for famous publishers such as Elsevier, Springer, and Wiley.

Affiliations and expertise

Research Associate, Department of Chemical Engineering, Shiraz University, Shiraz, Iran

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Advances and Technology Development in Greenhouse Gases: Emission, Capture and Conversion

Carbon Capture Technologies

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Institutional subscription on ScienceDirect

Mohammad Reza Rahimpour

Mohammad Amin Makarem

Maryam Meshksar