Innovations in Fuel Cell Technologies
By: Robert Steinberger-Wilckens (Editor), Werner Lehnert (Editor)
Hardcover | 18 October 2010
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350 Pages
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Innovations in Fuel Cell Technologies provides a state-of-the-art review on new fields of research that have high potential and interest for the fuel cell community. The main technology problems are discussed and current gaps to market success identified. The innovations covered in the book deliver new answers to pertinent problems and/or offer new opportunities, be it in operating conditions, application area, extension of lifetime, new fuels, exciting new diagnosis or analysis methods.
Key issues discussed are the prospects for miniaturising fuel cells, high-temperature polymer membrane fuel cells and their application as an on-board electricity supply in large vehicles, non-standard fuels like pure carbon and the handling of fuel impurities, degradation issues and accelerated lifetime testing, the prospects of reversing the fuel cell reactions towards producing instead of consuming hydrogen and the pitfalls in bringing a technology from demonstration to technical maturity.
Innovations in Fuel Cell Technologies directs the reader's attention to the developments of tomorrow. The chapter serve as an early warning to technology developers of the rewarding prospects on the horizon as well as orientation to students and young researchers in guiding their future studies.
Energy lies at the heart of modern society, and it is critical that we make informed choices of the methods by which we convert and manage energy. The RSC Energy and Environment Series is a suite of professional reference books that will provide an up-to-date and critical perspective on the various options available.
Micro-applications and Micro-systems | |
Printed Enzymatic Current Sources | p. 5 |
Introduction | p. 5 |
Enzyme Catalysts in Fuel Cells | p. 6 |
Enzyme-based Microsystems for Power Production | p. 8 |
Biofuel Cells Constructed in a Liquid Chamber | p. 8 |
Miniature Membraneless Biofuel Cells | p. 11 |
Biofuel Cell Constructions Suitable for Large-scale Production | p. 11 |
Printing Processes as Manufacturing Methods for Power Sources | p. 15 |
Types of Thin and Printable Power Sources | p. 17 |
Enzymes in Mass-production Applications | p. 17 |
Printing and Coating of Enzymes | p. 19 |
Screen Printing | p. 19 |
Inkjet Printing | p. 20 |
Printed Biofuel Cells | p. 21 |
Conclusions | p. 24 |
References | p. 25 |
Potential of Multilayer Ceramics for Micro Fuel Cells | p. 28 |
Challenges of Micro Fuel Cell System Development | p. 28 |
Cost of Assembly | p. 29 |
Component Failures | p. 29 |
Introduction to Multilayer Ceramics | p. 29 |
Fuel Cell Relevant Subsystems and Geometries | p. 30 |
Geometrical Shaping | p. 30 |
Relevant Features of Fuel Cells | p. 32 |
Examples | p. 36 |
Conclusion | p. 38 |
High-Temperature Polymer Electrolyte Fuel Cells | |
Trends in High-Temperature Polymer Electrolyte Fuel Cells | p. 45 |
Introduction | p. 45 |
The Oxygen Reduction Reaction | p. 46 |
Tafel Slope and Reaction Pathway | p. 46 |
The Adsorption of Phosphoric Acid Molecules and Phosphate Anions on Platinum | p. 49 |
Enhanced ORR Activity: Platinum Alloy Catalysts and Alternative Electrolytes | p. 53 |
Membrane Polymers | p. 54 |
Catalyst and Diffusion Layer Development and Membrane Electrode Assembly Manufacture | p. 58 |
Fuel Cell Performance and Durability | p. 61 |
Stacks | p. 66 |
Perspectives | p. 69 |
References | p. 70 |
Large Auxiliary Power Units for Vessels and Airplanes | p. 76 |
Introduction | p. 76 |
Motivation | p. 77 |
Conditions for Auxiliary Power Unit Operation | p. 82 |
Aeronautical Applications | p. 82 |
Maritime Applications | p. 86 |
Fuel Cell Technologies | p. 87 |
Fuel Cell Types and their Applicability for Large Auxiliary Power Unit Systems | p. 87 |
Fuels for Large Auxiliary Power Units | p. 93 |
Fuel Processors | p. 100 |
Fuel Cell Systems | p. 101 |
System Evaluation | p. 112 |
Focus on Aeronautical Systems | p. 113 |
Focus on Maritime Systems | p. 136 |
Conclusions | p. 140 |
Acknowledgement | p. 143 |
References | p. 143 |
Novel Fuels | |
Going Beyond Hydrogen: Non-hydrogen Fuels, Re-oxidation and Impurity Effects on Solid Oxide Fuel Cell Anodes | p. 153 |
Introduction | p. 153 |
Carbonaceous Fuels | p. 157 |
Fuel Resources and Processing Options | p. 157 |
Conventional Solid Oxide Fuel Cell Anodes | p. 159 |
Improved Anodes | p. 168 |
Other Alternatives to Hydrogen | p. 177 |
Ammonia | p. 177 |
Hydrogen sulfide | p. 178 |
References | p. 179 |
Direct Carbon Fuel Cells | p. 190 |
Electrochemical Oxidation of Carbon | p. 190 |
Thermodynamics | p. 191 |
Mechanism | p. 192 |
Boudouard Reaction | p. 193 |
Different Types of Direct Carbon Fuel Cells | p. 193 |
Molten Carbonate Electrolyte | p. 194 |
Molten Hydroxide Electrolyte | p. 196 |
Solid Oxide Electrolyte | p. 198 |
Other Concepts | p. 200 |
Comparison of Different Carbon Fuels | p. 207 |
Conclusions | p. 209 |
References | p. 210 |
Modelling and Lifetime Prediction | |
Integrating Degradation into Fuel Cell Models and Lifetime Prediction | p. 217 |
Introduction | p. 217 |
Background | p. 218 |
Basic Solid Oxide Fuel Cell Modelling Theory | p. 220 |
Calculations and Results | p. 227 |
Determining the Area Specific Resistance | p. 227 |
Experimental Validation | p. 228 |
Simulation of the Current-Voltage Behaviour | p. 231 |
Degradation Monitoring by Area Specific Resistance Simulation | p. 234 |
Extensions of the Model | p. 236 |
A Simple Lifetime Prediction Model | p. 237 |
Some Literature Results | p. 237 |
Development of a Non-linear Area Specific Resistance Over Time Behaviour | p. 238 |
Calculations | p. 241 |
Constant Current Density | p. 241 |
Varying Local Current Density and Fuel Utilisation Influence | p. 242 |
Change of Local Current Density and Area Specific Resistance Profile over Time | p. 244 |
Conclusions | p. 245 |
List of Symbols Used in this Chapter | p. 245 |
Acknowledgements | p. 247 |
References | p. 247 |
Accelerated Lifetime Testing for Phosphoric Acid Fuel Cells | p. 249 |
Introduction | p. 249 |
Background | p. 249 |
Experimental Design | p. 253 |
Testing | p. 254 |
First Generation Testing: Pot Tests and Corrosion Potential Measurement | p. 254 |
Second Generation Testing: Potential Control and Monitor Current | p. 256 |
Third Generation Testing: Inter-cell Effects | p. 258 |
Conclusions | p. 260 |
Acknowledgements | p. 261 |
References | p. 261 |
Hydrogen Generation and Reversible Fuel Cells | |
Electrolysis Using Fuel Cell Technology | p. 267 |
Introduction | p. 267 |
Low-temperature Electrolysis | p. 269 |
Introduction | p. 269 |
Commercial Systems | p. 270 |
Performance | p. 270 |
Development Issues | p. 271 |
High-temperature Steam Electrolysis | p. 271 |
Introduction | p. 271 |
Solid Oxide Electrolyser Cells | p. 273 |
High-temperature Electrolyser Stacks | p. 279 |
System Development | p. 280 |
Summary | p. 282 |
References | p. 283 |
Hydrogen Production by Internal Reforming Fuel Cells | p. 287 |
Introduction | p. 287 |
International Developments Reported in Literature | p. 289 |
Co-production of Hydrogen and Power | p. 290 |
Mode 1: High-efficiency Mode | p. 293 |
Mode 2: Constant-current Mode | p. 294 |
Mode 3: High-power Mode or Constant (Low) Voltage Mode | p. 295 |
The 'Superwind Concept' | p. 298 |
Hydrogen Production from Carbon Using a Direct Carbon Fuel Cell | p. 300 |
Conclusions | p. 303 |
References | p. 304 |
Outlook | |
Products, not Technology: Some Thoughts on Market Introduction Processes | p. 311 |
Introduction | p. 311 |
Background | p. 312 |
Technology Phasing-in versus Disruptive Development | p. 312 |
Battling Incumbent Technology | p. 317 |
Paradigm Shifts and Succession of Generations | p. 318 |
Transforming Technology into Products | p. 320 |
Added Value, Special Markets and Allowable Cost | p. 323 |
Outlook | p. 330 |
Acknowledgements | p. 331 |
References | p. 331 |
Subject Index | p. 333 |
Table of Contents provided by Ingram. All Rights Reserved. |
ISBN: 9781849730334
ISBN-10: 1849730334
Series: RSC Energy and Environment
Published: 18th October 2010
Format: Hardcover
Language: English
Number of Pages: 350
Audience: Professional and Scholarly
Publisher: Royal Society Of Chemistry
Country of Publication: GB
Dimensions (cm): 24.77 x 16.51 x 1.91
Weight (kg): 0.67
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