The expected end of the "oil age" will lead to increasing focus and reliance on alternative energy conversion devices, among which fuel cells have the potential to play an important role. Not only can phosphoric acid and solid oxide fuel cells already efficiently convert today's fossil fuels, including methane, into electricity, but other types of fuel cells, such as polymer electrolyte membrane fuel cells, have the potential to become the cornerstones of a possible future hydrogen economy. This handbook offers concise yet comprehensive coverage of the current state of fuel cell research and…mehr
The expected end of the "oil age" will lead to increasing focus and reliance on alternative energy conversion devices, among which fuel cells have the potential to play an important role. Not only can phosphoric acid and solid oxide fuel cells already efficiently convert today's fossil fuels, including methane, into electricity, but other types of fuel cells, such as polymer electrolyte membrane fuel cells, have the potential to become the cornerstones of a possible future hydrogen economy. This handbook offers concise yet comprehensive coverage of the current state of fuel cell research and identifies key areas for future investigation. Internationally renowned specialists provide authoritative introductions to a wide variety of fuel cell types and hydrogen production technologies, and discuss materials and components for these systems. Sustainability and marketing considerations are also covered, including comparisons of fuel cells with alternative technologies.
Timothy E. Lipman is an energy and environmental technology, economics, and policy researcher and lecturer with the University of California - Berkeley. He is serving as Co-Director for the campus' Transportation Sustainability Research Center (TSRC), based at the Institute of Transportation Studies, and also as Director of the Northern California Center for Alternative Transportation Fuels and Advanced Vehicle Technologies (NorthCAT -- see "northcat.org") effort. Tim's research focuses on electric-drive vehicles, fuel cell technology, combined heat and power systems, biofuels, renewable energy, and electricity and hydrogen energy systems infrastructure. Lipman received his Ph.D. degree in Environmental Policy Analysis with the Graduate Group in Ecology at UC Davis (1999). He also has received an M.S. degree in the technology track of the Graduate Group in Transportation Technology and Policy, also at UC Davis (1998), and a B.A. from Stanford University (1990). His Ph.D. dissertation titled "Zero-Emission Vehicle Scenario Cost Analysis Using A Fuzzy Set-Based Framework" received the University of California Transportation Center's 'Charlie Wootan' Ph.D. dissertation award for 1999. He is also a 2005 Climate Change Fellow with the Woods Institute at Stanford University, and he also received a 2004 Institute of Transportation Engineers service award, a 1998 NSF IGERT teaching fellowship, a 1997 University of California Transportation Center Dissertation Grant, a 1996 ENO Foundation Fellowship, a 1995 University of California Transportation Center Dissertation Grant, and a 1994 Chevron Foundation Fellowship. A native of Golden, Colorado, he graduated Cum Laude from Colorado Academy in 1986. Most of his research projects are related to the transformation of energy systems to support motor vehicles and buildings, examining how both incremental and "leap frog" technologies can be applied to reduce greenhouse gas emissions and other negative environmental and social impacts of energy use. A central concept for his research is that the electrification of the transportation sector can realize synergy with a concentrated effort to reduce the carbon intensity of the electrical grid, yielding benefit for the electricity sector as well as the expanded use of electricity, hydrogen, and biofuels. Adam Z. Weber holds B.S. and M.S. degrees from Tufts University, the latter under the guidance of Professor Maria Flytzani-Stephanopoulos. Next, he earned his Ph.D. at University of California, Berkeley, in Chemical Engineering under the guidance of John Newman. His dissertation work focused on the fundamental investigation and mathematical modeling of water management in polymer-electrolyte fuel cells. Dr. Weber continued his study of water and thermal management in polymer-electrolyte fuel cells at Lawrence Berkeley National Laboratory, where he is now a staff scientist and program manager for Hydrogen and Fuel Cell Technologies. His current research involves understanding and optimizing fuel-cell performance and lifetime including component and ionomer structure/function studies using advanced modeling and diagnostics, understanding flow batteries for grid-scale energy storage, and analysis of solar-fuel generators where he is a Thrust coordinator at the Joint Center for Artificial Photosynthesis (JCAP). Dr. Weber has coauthored over 110 peer-reviewed articles and 10 book chapters on fuel cells, flow batteries, and related electrochemical devices; developed many widely used models for fuel cells and their components; and has been invited to present his work at various international and national meetings. He is the recipient of a number of awards including a Fulbright scholarship to Australia, the 2008 Oronzio and Niccolò De Nora Foundation Prize on Applied Electrochemistry of the International Society of Electrochemistry, the 2012 Supramaniam Srinivasan Young Investigator Award of the Energy Technology Division of the Electrochemical Society, a 2012 Presidential Early Career Award for Scientists and Engineers (PECASE), the 2014 CharlesW. Tobias Young Investigator Award of the Electrochemical Society, a Kavli Fellow in 2014, and the 2016 Sir William Grove Award from the International Association for Hydrogen Energy. He is a Fellow of The Electrochemical Society.
Inhaltsangabe
Part I: Fuel Cells 1. Fuel Cells, Introduction 2. Alkaline Membrane Fuel Cells 3. Direct Hydrocarbon Solid Oxide Fuel Cells 4. Fuel Cell Comparison to Alternate Technologies 5. Fuel Cell Types and Their Electrochemistry 6. Fuel Cells (SOFC): Alternative Approaches (Electroytes, Electrodes, Fuels) 7. Membrane Electrolytes, from Perfluoro Sulfonic Acid (PFSA) to Hydrocarbon Ionomers 8. Molten Carbonate Fuel Cells 9. PEM Fuel Cell Materials: Costs, Performance and Durability 10. PEM Fuel Cells and Platinum-Based Electrocatalysts 11. PEM Fuel Cells, Materials and Design Development Challenges 12. Phosphoric Acid Fuel Cells for Stationary Applications 13. Polybenzimidazole Fuel Cell Technology 14. Polymer Electrolyte (PE) Fuel Cell Systems 15. Polymer Electrolyte Membrane (PEM) Fuel Cells, Automotive Applications 16. Polymer Electrolyte Membrane Fuel Cells (PEM-FC) and Non-noble Metal Catalysts for Oxygen Reduction 17. Proton Exchange Membrane Fuel Cells: High-Temperature, Low-Humidity Operation 18. Solid Oxide Fuel Cell Materials: Durability, Reliability and Cost 19. Solid Oxide Fuel Cells 20. Solid Oxide Fuel Cells, Marketing Issues 21. Solid Oxide Fuel Cells, Sustainability Aspects Part II: Hydrogen Production Science and Technology 22. Advances on Inorganic Membrane Reactors for Production of Hydrogen 24. Biohydrogen Production 25. Biohydrogen Production from Agricultural Residues 26. Electrochemical Hydrogen Production 27. Genetic Optimization of Microalgae for Hydrogen Production 28. Hydrogen Production from Biological Sources 29. Hydrogen Production from High-Temperature Fuel Cells 30. Hydrogen Production Science and Technology 31. Hydrogen Production through Pyrolysis 32. Hydrogen via Direct Solar Production 33. Hydrogen Production through Electrolysis 34. Photo-catalytic Hydrogen Production Index
