Sustainable Utilization of Carbon Dioxide in Waste Management

Moving Toward Reducing Environmental Impact

1st Edition - November 25, 2022
Authors: Abdel-Mohsen O. Mohamed, Maisa El Gamal, Suhaib Hameedi
Language: English
Paperback ISBN:
9 7 8 - 0 - 1 2 - 8 2 3 4 1 8 - 1
eBook ISBN:
9 7 8 - 0 - 1 2 - 8 2 3 6 0 6 - 2

Sustainable Utilization of Carbon Dioxide in Waste Management addresses all aspects of sustainable use of carbon dioxide in waste management processes and provides best practices… Read more

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Sustainable Utilization of Carbon Dioxide in Waste Management addresses all aspects of sustainable use of carbon dioxide in waste management processes and provides best practices and process improvements for carbon sequestration in the management of a variety of waste types, including carbide lime waste, construction waste, and reject brine effluents, amongst others. The book also provides underlying research on the environmental impacts of these wastes and the need for carbon capture to emphasize the importance and need for improvements of these processes. Overall, this information will be key to determining lifecycle benefits of CO2 for each newly improved waste process.

This is an important source of information for environmental and sustainability scientists and engineers, as well as academics and researchers in the field who should be trying to achieve increased carbon capture in any form of waste process to reduce environmental impact.

Cover image
Title page
Table of Contents
Copyright
Dedication
About the authors
Preface
Chapter 1. Emerging carbon-based waste management sustainable practices
1.1. Introduction
1.2. Waste management principles and approaches
1.3. Circular economy (CE)
1.4. End-of-waste criteria
1.5. Case study 1: development of EoW criteria for construction and demolition reprocessed waste aggregates
1.6. Case study 2: development of EoW criteria for secondary aggregates from industrial processes
1.7. Case study 3: development of EoW criteria for carbon capture and utilization (CCU) products
1.8. Summary and concluding remarks
Chapter 2. Carbon capture and utilization
2.1. Introduction
2.2. Carbon capture
2.3. Carbon capture cost
2.4. Carbon dioxide transport
2.5. Carbon storage (CS) technologies
2.6. Carbon utilization (CU) technologies
2.7. Global CO2 utilization projects
2.8. Carbon capture and utilization economic evaluation
2.9. Carbon binding capacity in carbon-based products
2.10. Market potential of carbon-based products
2.11. Policies and regulations to support carbon capture, storage, and utilizations
2.12. Summary and concluding remarks
Chapter 3. Assessment of carbon dioxide utilization technologies
3.1. Introduction
3.2. Technical and economic assessment
3.3. Life-cycle assessment
3.4. Summary and concluding remarks
Chapter 4. Carbonation reaction kinetics
4.1. Introduction
4.2. Chemical reactions
4.3. Reaction models
4.4. Unreacted core shrinking model for spherical particles
4.5. Grain model
4.6. Other approaches
4.7. Summary and concluding remarks
Chapter 5. Mineral carbonation
5.1. Introduction
5.2. Carbonation of alkaline materials
5.3. Principles of accelerated carbonation reaction
5.4. Controlling parameters
5.5. Useful carbonated products
5.6. Utilization of carbonated products
5.7. Life cycle assessment (LCA)
5.8. Summary and concluding remarks
Chapter 6. Carbonation technologies
6.1. Introduction
6.2. Technology readiness
6.3. Direct gas-solid carbonation
6.4. Single step aqueous processes
6.5. Multistep aqueous processes
6.6. Case studies for the use of the MGF process: I. cement kiln dust (CKD)
6.7. Case studies for the use of MGF process: II. steel slag
6.8. Case studies for the use of MGF processes: III. production of sewerage pipes
6.9. Case studies for the use of MGF process: IV. technology demonstration in underground sewerage environment
6.10. Case studies for the use of MGF process: V. technology demonstration in saline and variable acidic environments
6.11. Summary and concluding remarks
Chapter 7. Laboratory carbonation methods: testing and evaluation
7.1. Introduction
7.2. Experimental methods
7.3. CO2 experimental uptake
7.4. Carbonation efficiency and ratio
7.5. Summary and concluding remarks
Chapter 8. Carbonation of fly ash
8.1. Introduction
8.2. Classification of fly ash
8.3. Sources of fly ash
8.4. Fly ash utilizations
8.5. Environmental risks
8.6. Carbonation methods
8.7. Chemical reactions of CO2 sequestration by fly ash
8.8. Thermodynamic simulations of phase equilibria
8.9. Treatment methods
8.10. Summary and concluding remarks
Chapter 9. Carbonation of steel slag
9.1. Introduction
9.2. Sources and characteristics of slags
9.3. Steel and iron slags utilizations
9.4. Environmental impact
9.5. Hydration/pretreatment
9.6. Carbonation
9.7. CO2 sequestration
9.8. Treatment methods
9.9. Summary and concluding remarks
Chapter 10. Carbonation of calcium carbide residue
10.1. Introduction
10.2. Calcium carbide manufacturing
10.3. Sources of calcium carbide residue
10.4. Utilization of calcium carbide residue
10.5. CCR disposal practice
10.6. Precipitated calcium carbonate
10.7. Treatment processes
10.8. Summary and concluding remarks
Chapter 11. Carbonation of cement-based construction waste
11.1. Introduction
11.2. Concrete waste
11.3. Waste concrete recycling
11.4. Cement types, composition, and hydration
11.5. Carbonation mechanisms
11.6. Carbonation of cementitious products
11.7. Carbonation of concrete cement waste
11.8. Supercritical CO2 carbonation of cement concrete waste
11.9. Pozzolanic reactivity of carbonated concrete cement fines waste
11.10. Industrial concrete waste recycling
11.11. Summary and concluding remarks
Chapter 12. Carbonation of mine tailings waste
12.1. Introduction
12.2. Mine tailings waste residues
12.3. Natural carbonation of tailings waste residues
12.4. Mineral carbonation
12.5. Carbonation of anorthosite tailing waste residues
12.6. Carbonation of ultramafic tailing waste residues
12.7. Carbonation of ophiolitic complexes tailing waste residues
12.8. Accelerated carbonation of tailings waste residues
12.9. Red mud
12.10. Utilization of carbonated tailings waste residues
12.11. Summary and concluding remarks
Chapter 13. Carbonation of brine waste
13.1. Introduction
13.2. Desalination capacity
13.3. Brine characteristics
13.4. Environmental issues
13.5. Brine waste management
13.6. Carbonation using solvay process
13.7. Carbonation of high Mg and Ca brine waste
13.8. Carbonation using mixed metal oxides
13.9. Carbonation using alkaline industrial waste
13.10. Carbonation using electrodialysis
13.11. Useful products
13.12. Life cycle and techno-economic assessments
13.13. Summary and concluding remarks
Chapter 14. Carbonation of cement kiln dust
14.1. Introduction
14.2. Sources and characteristics of cement-based dust
14.3. Uses of cement kiln dust
14.4. Treatment of cement kiln dust
14.5. Treatment processes
14.6. Modeling of carbonation kinetics
14.7. Summary and concluding remarks
Index

Abdel-Mohsen O. Mohamed

Prof. Abdel-Mohsen O. Mohamed: Prior to being the General Managing Director of EX Scientific Consultants on July 2020, Prof. Mohamed was employed by number of higher education institutions in the United Arab Emirates (UAE) and Canada, where he had over 42 years of experience as a faculty member as well as an academic and research administrator. In addition, Prof. Mohamed is actively serving as the Senior Scientific Advisor to Uberbinder Inc., Seattle, Washington, USA, since January 2020, and the Senior Scientific Advisor to Uberbinder Limited, Oxford, UK, since January 2022.

Affiliations and expertise

Uberbinder Inc.

Maisa El Gamal

Dr. Maisa M. El Gamal is currently employed by Zayed University as an Assistant Professor in the Environmental Science Department, College of Natural and Health Sciences. She holds a Doctorate degree in Chemical Science from Ta33nta University and a Master in Material Science from Alexandria University. She has worked for 20 years as a researcher with long experience in different areas like CO2 capture and storage, soil stability, sulfur concrete production and solid waste management. More recently, her research activities are focused on the development of novel CO2 adsorbent materials. Her record spans more than 100 publications in high impact journals, international and local conferences, patents, books, and book chapters. She has dedicated the working in these research fields beside her job as a teacher of Chemical and Environmental science and as supervisor to the students in their senior projects at Zayed University

Affiliations and expertise

Assistant Professor in the Environmental Science Department, College of Natural and Health Sciences

Suhaib Hameedi

Suhaib Hameedi gained his BSc. in chemical engineering from Mutah University-Jordan in 2005. His graduation training was in Jordanian phosphate mines company. He joined industries through chemicals manufacturing application in Jordan until 2010, and water treatment application until 2013 in United Arab Emirates. He earned his MSc. degree in chemical engineering from the United Arab Emirates University in 2016 with a thesis about CO2 capture by steel-making residues. During his masters, he had duties as research assistant in CO2 capture using industrial wastes. In addition, he was a teaching assistant to thermodynamics for a engineering students course. He joined Zayed University (ZU) in 2016 as a Researcher in environmental studies, mainly carbonation of industrial wastes. He participated in local and international conferences through papers, posters and oral presentation. Recently he is a member of the published patent of a new apparatus for carbon sequestration submitted by Prof. AMO Mohamed.

Affiliations and expertise

Zayed University, UAE

Life Sciences

Physical Sciences & Engineering

Social Sciences & Humanities

Health

Sustainable Utilization of Carbon Dioxide in Waste Management

Moving Toward Reducing Environmental Impact

Purchase options

Save 50% on book bundles

Institutional subscription on ScienceDirect

Abdel-Mohsen O. Mohamed

Maisa El Gamal

Suhaib Hameedi