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Waste Biorefinery: Value Addition through Resources Utilization provides scientific and technical information surrounding the most advanced and innovative processing technolog… Read more
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Waste Biorefinery: Value Addition through Resources Utilization provides scientific and technical information surrounding the most advanced and innovative processing technologies used for the conversion of biogenic waste to biofuels, energy products and biochemicals. The book covers recent developments and achievements in the field of biochemical, thermo-chemical and hybrid methods and the necessities and potentials generated by different kinds of residual streams, including biomass in presumably more decentralized biorefineries. An assortment of case-studies from developing and developed countries illustrate the topics presented, covering energy, chemicals, fuels, food for animal recovery from different waste matrices, and more.
Finally, the advantages and limitations of different technologies are discussed, considering local energy demand, government policies, environmental impacts and education in bioenergy. This book will serve as an excellent resource for science graduates, chemical engineers, environmental engineers, biotechnologists and industrial experts in these areas.
Organic chemists, industrial chemists, chemical engineers, biochemical engineers, microbiologists, biotechnologists working in academic institutes, research institutes, industries, policy experts and governmental agencies. MS/M.Tech students; Ph.D scholars; researchers studying biomass conversion, lignin valorisation, biofuels, biorefineries, bioprocesses and bio-products, bio-chemicals etc. Chemists, chemical engineers, biochemical engineers, microbiologists, biotechnologists working in academic institutes, research institutes, industries and governmental agencies
I General1. Waste carbon resources for waste biorefinery: strategies for sustainable recycling2. Sustainable development goals (SDGs) and role of waste biorefinery3. Energy and Environment4. Advances in Conversion processes for complex feeds/streams- Physical and mechanical- Biochemical- Thermo-chemical
II Integrated Biorefineries/Waste Valorization5. Food waste biorefinery- Collection systems- Components and composition (eg. Food, cooking oil, outdated food etc.)- Conversion methods (eg. Thermo chemical and biochemical etc.)- Products that can be obtained (eg. Ethanol, biogas, biodiesel, biojet etc.)- Utilization of products and limitations
6. Case study : Food waste biorefinery (the following will become independent chapters)6a. Japan 6b. USA6c. Germany
7. Case study: Edible crop biorefinery (the following will be independent chapters)7a. USA 7b. Germany, France, Spain, some European country 7c. Brazil
8. Municipal solid waste biorefinery- Collection, segregation- Pretreatment- Composition and properties- Conversion methods (eg. Biochemical and thermochemical etc.)- Products and applications (eg. Methane, biogas etc.)- Possibility of integration
9. Case studies for MSW biorefinery (the following may become independent chapters)9a. China 9b. Europe
10. Sewage sludge biorefinery
11. Case study of sewage sludge biorefinery 11a. USA11b. Europe11c. Japan
12. Pulp and Paper biorefinery - Paper production and its feedstocks- Paper production waste streams utilization- Waste streams – lignin etc., - Various lignin streams – process by which they are obtained its physic chemical characteristics- Products (eg. Heat, electricity, fuels, chemicals, others etc.,)- Cost economics
13. Aquatic biorefinery : Azolla, water hyacinth - Availability- Feed properties- Biochemical- Thermochemical- Hybrid processes
III Associated studies14. Biorefinery emissions (e.g., Greenhouse gases, LUC, ILUC, LCS etc.)15. Techno-economic studies Life Cycle Analysis : present status and challenges 16. Footprints (e.g., Carbon and water, etc.) 17. Balances (e.g., Energy and exergy etc) 18. Supply chain optimization
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Professor Ashok Pandey is currently Executive Director, Centre for Energy and Environmental Sustainability-India, Lucknow. He is HSBS National Innovation Chair (Biotechnology) and is/has been Visiting/Distinguished Professor in many countries. His major research and technological development interests are industrial & environmental biotechnology and energy biosciences, focusing on biomass to biofuels & chemicals, waste to wealth & energy, etc.
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