Chemistry of Sustainable Energy
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Understanding the chemistry underlying sustainable energy is central to any long-term solution to meeting our future energy needs. Chemistry of Sustainable Energy presents chemistry through the lens of several sustainable energy options, demonstrating the breadth and depth of research being carried out to address issues of sustainability and the global energy demand. The author, an organic chemist, reinforces fundamental principles of chemistry as they relate to renewable or sustainable energy generation throughout the book.
Written with a qualitative, structural bias, this survey text illustrates the increasingly interdisciplinary nature of chemistry research with examples from the literature to provide relevant snapshots of how solutions are developed, providing a broad foundation for further exploration. It examines those areas of energy conversion that show the most promise of achieving sustainability at this point, namely, wind power, fuel cells, solar photovoltaics, and biomass conversion processes. Next-generation nuclear power is addressed as well.
This book also covers topics related to energy and energy generation that are closely tied to understanding the chemistry of sustainable energy, including fossil fuels, thermodynamics, polymers, hydrogen generation and storage, and carbon capture. It offers readers a broad understanding of relevant fundamental chemical principles and in-depth exposure to creative and promising approaches to sustainable energy development.
Table of Contents
What Is Energy?
Energy, Technology, and Sustainability
Energy Units, Terms, and Abbreviations
Electricity Generation and Storage
Formation of Oil and Gas
Extraction of Fossil Fuels
Carbon Capture and Storage
Online Resources Related to Carbon Capture and
The First Law of Thermodynamics
The Second Law and Thermodynamic Cycles: the Carnot Efficiency
Exergy and Life-Cycle Assessment
Polymers and Sustainable Energy
Characterization of Polymers
Polymer Chemistry and Wind Energy
Catalysis and Hydrogen Production
Thermodynamics and Fuel Cells
Efficiency and Fuel Cells
Cell Performance: Where Do Inefficiencies Come From?
Fuel Cell Electrocatalysts
Polymer Electrolyte Membrane Fuel Cells
Solid Oxide Fuel Cells
Microbial Fuel Cells
Fuel Cell Summary
Electrochemical Energy Storage
Solar PV Basics
Inorganic Solar Cells
Dye-Sensitized Solar Cells
Quantum Dot Solar Cells
Sustainability, Photovoltaics, and the CZTS Cell
Chemical Composition of Biomass
Reactivity and Conversion Options
Biomass Beginnings: Harvesting and Processing
Nuclear Chemistry Basics
Future of Nuclear Energy
Appendix I: SI Units and Prefixes
Appendix II: Unit Conversions
Appendix III: Electricity: Units and Equations
Appendix IV: Fossil Fuel Units and Abbreviations
Appendix V: Important Constants
Appendix VI: Acronyms
Professor Nancy E. Carpenter obtained her Ph.D. in organic chemistry from Northwestern University under the guidance of Professor Anthony G.M. Barrett. After a postdoctoral appointment with Professor Larry Overman at the University of California, Irvine, she came to the University of Minnesota, Morris, a four-year public liberal arts campus on the prairies of west-central Minnesota. Her research interests have spanned a diverse range of areas, from synthetic organometallic methodology to environmental remediation of chlorinated ethylenes and exploration of biodiesel from oilseeds and algae. She has been recognized with two teaching awards at the undergraduate level and was a co-recipient of the 2012 ACS-CEI Award for Incorporating Sustainability into Chemistry Education.
"… a useful resource for faculty teaching chemistry students who are unsure about what specialty they would like to explore more deeply or for specialty courses on the topic. … Summing Up: Recommended. Upper-division undergraduates through researchers/faculty."
—D. H. Stedman, University of Denver in CHOICE Magazine
"Overall, the book is concise and easy to follow for readers with an understanding of A-level chemistry or above. It will be a valuable and handy reference to various stakeholders of energy technologies, including policy makers, company managers, postgraduate students, school teachers and even some energy specialists."
—Reviewed by George Chen in Chemistry World