Waste to Renewable Biohydrogen: Volume One: Advances in Theory and Experiments provides a comprehensive overview of the advances, processes and technologies for waste treatment to hydrogen production. Sections introduce and compare the most widely adopted (and promising) technologies, such as dark fermentation, thermochemical and photosynthetic processes, look at modeling and simulation methodologies for the design and optimization of different processes and systems, and discuss the economic, environmental and sustainability implications of waste-to-biohydrogen systems. Other sections cover cost-benefit analysis, techno-economic analysis, lifecycle assessment, sustainability ranking and supply chain design, with a final section devoted to future trends and pathways.
The book's threefold coverage, spanning technology, systems modeling and sustainability offers a well-rounded reference that supports decision-making for energy researchers and industry practitioners alike. Graduate students, early career researchers and waste management professionals will also find the book helpful with its thorough introduction to the topic and its surrounding issues.
- Covers advanced waste-to-biohydrogen technologies, numerical simulation models, economic analysis, environmental performances, and sustainable supply chains
- Discusses the economic, technical, environmental and social performances of different technology pathways, including lifecycle analyses and techno-economic assessments
- Explores modeling methodologies for optimization and upscaling of sustainable technologies and systems
- Includes comparison and case studies of different kinds of feedstock
Part I Introduction, Experiments, Technologies and Processes 1. Sustainable Waste Management and Biohydrogen Potential Estimation 2. Waste to Biohydrogen: Potential and Feasibility 3. Waste to Biohydrogen: Progress, Challenges and Prospect 4. Comparisons of Biohydrogen Production Technologies and Processes 5. Waste Pre-treatment Technologies for Hydrogen Production 6. Advances of Dark Fermentation Hydrogen Production Technologies 7. Thermochemical Processes for Biohydrogen Production 8. Photosynthetic Hydrogen Production Bacteria Breeding Technologies 9. Photosynthetic Biological Hydrogen Production Reactors, Systems and Process Optimization 10. Photosynthetic Coupling Characteristics of Biological Hydrogen Production System 11. Photosynthetic Thermal Effect of Biological Hydrogen Production System 12.Scale-up and deisgn of biohydrogen production reactor from laboratory-scale to industrial-scale
Part II Numerical Models for Simulation and Optimization 13 Modelling of Biohydrogen Production System by Dark Fermentation 14. Numerical Simulation for Photosynthetic Biological Hydrogen System 15. CFD Simulation, Design and Optimization for Biohydrogen Systems 16. Artificial Neural Networks for Modeling of Biohydrogen Production Systems
Part III Economic, Environmental and Sustainability Implications 17. Cost-Benefit Analysis of waste-to-biohydrogen systems 18. Techno-economic analysis of biohydrogen production from waste 19. Life cycle assessment of waste-to-biohydrogen systems 20. Multi-criteria sustainability ranking of waste-to-biohydrogen systems 21. Sustainable Supply Chain Design for waste to biohydrogen 22. Outlook of Biohydrogen from Waste: Quo Vadis?
Quanguo Zhang is former Vice President and doctoral supervisor of the College of Mechanical and Electrical Engineering at Henan Agricultural University, China. He has been engaged in teaching and research work in the scientific field of biogas and biomass energy for a long time, having implemented projects from National Natural Science Foundation, 863 Hi-tech Project, Doctoral Program Foundation of State Education Ministry, among others. Fifteen of his research projects have won the provincial science and technology awards and he holds 11 national patents. He has also published more than 200 papers in these fields. Prof. Zhang has produced some original results with internationally significant effects on photo-fermentative bio-hydrogen production, biogas engineering, and high efficiency combustion of biomass. The self-inventive auxiliary heating container type biogas engineering technology he developed won the 12th Chinese Patent Award of Excellence and has successfully achieved industrial scale, generating great economic and social benefits.
Chao He is Associate Professor and deputy director of the Department of Energy and Environmental Engineering in the College of Mechanical and Electrical Engineering at Henan Agricultural University, China. He has been engaged in teaching and research work in the scientific field of biogas and biomass energy for a long time, has implemented 1 project from National Natural Science Foundation of China and 3 Henan science and technology projects of China. He has also published more than 40 papers in his field.
Jingzheng Ren is an Assistant Professor of Process System Engineering, Department of Industrial and Systems Engineering, The Hong Kong Polytechnic University, and Honorary Associate Professor of Engineering Operations Management, University of Southern Denmark (SDU). He was a full-time associate professor in SDU before moving to Hong Kong. His research mainly focuses on process system engineering, sustainability-oriented decision-making and waste management. He serves as the Editor of Sustainable Production and Consumption (Elsevier), Associate Editor of Environment, Development and Sustainability (Springer) and Associate Editor of Journal of Renewable and Sustainable Energy. He has edited 5 books and published more than 130 journal papers.
Goodsite, Michael Evan
Michael Evan Goodsite is a civil- and environmental engineering full professor and the Interim Director of The INSTITUTE FOR MINERAL AND ENERGY RESOURCES (IMER) and the Director of the UoA Industry Engagement Priority for Energy, Mining and Resources (Reporting to the Provost in this role). He is Seconded from his role as Head of the School of Civil, Environmental and Mining Engineering. He was formerly also Head (ad interim) of the Australian School of Petroleum (ASP) which is now ASPER and Director of Commercialisation for ECMS. Professor Goodsite has public and private leadership experience. The elected Regional Council of Southern Denmark appointed him as the Region of Southern Denmark's Chief Operating Officer with responsibility for Regional Development. A portfolio that included Regional business development, environment and natural resources. An experienced Board member: he currently is appointed by the Danish Minister of Energy to the Board of the Danish National Energy Technology Development and Demonstration Programme (EUDP) as well as other associations and businesses. His international university service includes Special Advisor to the Peking University Centre for Natural Resource Economics, China; Adjunct Professor to the University of Iceland and Honorary Senior Research Fellow to the Institute for Security and Development Policy (ISDP) in Stockholm, Sweden. His research interests: climate adaptation, green building and planning and as a fmr. military officer and Director of the US Army Cyber Counterintelligence Activity he researches operational efficiency/"green defense. He is chair of the ECMS In Situ Resource Utilisation (ISRU) initiative, which evolved into a UofA Centre for Sustainable Planetary and Space Resources, where he leads the mineral extractive module. Professor Goodsite is an expert evaluator/assessor for national and international research programs.