Ceramic fuel cells, commonly known as solid oxide fuel cells (SOFCs), have been under development for a broad range of electric power generation applications. The most attractive feature of the SOFC is its clean and efficient production of electricity from a variety of fuels. The SOFC has the potential to be manufactured and operated cost-effectively. The widening interest in this technology, thus, arises from the continuing need to develop cleaner and more efficient means of converting energy sources into useful forms.
This topical book provides a comprehensive treatise on solid oxide fuel cells and succeeds successfully in filling the gap in the market for a reference book in this field. Directed towards scientists, engineers, and technical managers working with SOFCs as well as ceramic devices based on conducting materials, and in related fields, the book will also be invaluable as a textbook for science and engineering courses.
Introduction. Scope. General Characteristics of Ceramic Fuel Cells. Types of ceramic fuel cells. Cell components. Comparison with other types of fuel cells. Historical Background of Ceramic Fuel Cells. References. Principles of Operation. General. Thermodynamic Principles. Fuel Cell Efficiency. Electrochemical efficiency. Other efficiencies. Power Generation. Characteristics of Ceramic Fuel Cells. Features. Effect of electronic conduction in electrolyte. Types of Fuel and Oxidant. Fuel. Oxidant. Fuel-Processing System. Power-Conditioning System. References. Electrical Conduction in Ceramics. General. Defects in Fluoride-Type Oxides. Defect structure of doped MO2. Conductivities of oxygen ions, electrons, and electron holes. Defect domains. Defect associations and clusters. Defects in Perovskite-Type Oxides. Conduction Processes and Transference Numbers. General transport equations. Electronic, ionic and total current. Transference number measurements. References. Electrolyte. Requirements. Stabilized Zirconia. Preparation. General properties and phase transformation. Stability. Electrical conductivity. Chemical interaction. Thermal expansion. Mechanical properties. Doped Ceria. Stabilized Bismuthsesquioxide. Other Oxygen-Ion Conductors. Protonic Conductors. References. Cathode. Requirements. Lanthanum Manganite. Preparation. General properties, phase transformation and stoichiometry. Stability. Electrical conductivity. Chemical interaction. Thermal expansion. Other properties. Lanthanum Cobaltite. Other Materials. References. Anode. Requirements. Nickel/Yttria-Stabilized Zirconia Cermet. Preparation. Stability. Electrical conductivity. Chemical interaction. Thermal expansion. Other Materials. References. Interconnect. Requirements. Lanthanum Chromite. Preparation. General properties, phase transformation and stoichiometry. Stability. Ele
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- © Elsevier Science 1995
- 15th August 1995
- Elsevier Science
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AlliedSignal, Inc., Aerospace Equipment Systems, Torrance, CA, USA
Nagoya University, Japan