Description
Book SynopsisThis comprehensive text takes a multidisciplinary approach to explore the challenges of sustainable development and how engineering practice can contribute to assessing and developing solutions. Worked examples, exercises, and applications are included, and software tutorials, lecture slides, and a solutions manual are available online.
Trade Review'This book addresses such critical topics as life-cycle assessment, energy and material flows, exergy, sustainability assessment, engineering design, industrial symbiosis, and circular economy. The author utilizes various case studies/examples, such as the case of genetically modified organisms (GMOs) and the lessons from Easter Island. There are flowcharts and solved quantitative examples that make the introduced concepts less abstract. Each chapter is followed by exercises, making it easier to use for academic purpose / course assessment. I believe this text will be useful for advanced undergraduate or graduate-level college students, and that it is successful in its goal to rigorously address the role of engineering with respect to environmental sustainability, and to help engineers understand sustainability.' John W. Sutherland, Fehsenfeld Family Head of Environmental and Ecological Engineering, Purdue University
'In Sustainable Engineering, Bhavik R. Bakshi demonstrates that engineers and conservationists can be important allies. Using a variety of real-world examples and detailed case studies, Bakshi makes the case that engineering practices can lead to a sustainable future.' Mark R. Tercek, CEO of The Nature Conservancy and author of Nature's Fortune: How Business and Society Thrive by Investing in Nature
'Sustainable Engineering provides a comprehensive engineering treatment of sustainability. This is the only textbook covering many of the new approaches to sustainable engineering. Clear, succinct chapters, and the range of quantitative problems, make for a welcome textbook that will be widely useful for undergraduate engineering classes. It includes recent concepts such as water footprinting, energy return on investment, material flow analysis, energy analysis, ecosystem services calculations, techno-economic analysis, and industrial symbiosis. The problems are quantitative and thorough, with sufficient worked examples that they can be mastered in an introductory sustainable engineering course. The sustainability framing is broad and thorough, allowing undergraduates to see the big-picture context for sustainable engineering. References are also excellent, encouraging students to become familiar with key data sources, software, and the relevant scientific literature.' Valerie Thomas, Anderson Interface Professor of Natural Systems, Georgia Institute of Technology
Table of ContentsPart I. Introduction and Motivation: 1. The basis of human well-being; 2. Status of ecosystem goods and services; 3. Sustainability: definitions and challenges; Part II. Reasons for Unsustainability: 4. Economics and the environment; 5. Business and the environment; 6. Science, engineering, and the environment; 7. Society and the environment; Part III. Sustainability Assessment: 8. Goal definition and scope; 9. Inventory analysis; 10. Mathematical framework; 11. Footprint assessment; 12. Energy and material flow analysis; 13. Exergy analysis; 14. Cumulative exergy consumption and emergy analysis; 15. Life cycle impact assessment; 16. Ecosystem services in sustainability impact assessment; Part IV. Solutions for Sustainability: 17. Designing sustainable processes and products; 18. Ecosystem ecology; 19. Industrial symbiosis and circular economy; 20. Ecosystems in engineering; 21. Economic policies; 22. Societal development.
