Cover Page

Related Titles

Jiang, S.P., Yan, Y.(eds.)

Materials for High-Temperature Fuel Cells

Series: Materials for Sustainable Energy and Development

Series edited by Lu, G. Q. M.

2013

ISBN: 978-3-527-33041-6

Stolten, D., Emonts, B. (eds.)

Fuel Cell Science and Engineering

Materials, Processes, Systems and Technology

2 Volumes

2012

ISBN: 978-3-527-33012-6

Park, J.-K. (ed.)

Principles and Applications of Lithium Secondary Batteries

2012

ISBN: 978-3-527-33151-2

Zhang, J., Zhang, L., Liu, H., Sun, A., Liu,

R.-S. (eds.)

Electrochemical Technologies for Energy Storage and Conversion

2011

ISBN: 978-3-527-32869-7

Daniel, C., Besenhard, J. O. (eds.)

Handbook of Battery Materials

Second, Completely Revised and Enlarged Edition

2 Volumes

2011

ISBN: 978-3-527-32695-2

Aifantis, K. E., Hackney, S. A., Kumar, R. V. (eds.)

High Energy Density Lithium Batteries

Materials, Engineering, Applications

2010

ISBN: 978-3-527-32407-1

Liu, H., Zhang, J. (eds.)

Electrocatalysis of Direct Methanol Fuel Cells

From Fundamentals to Applications

2009

ISBN: 978-3-527-32377-7

Non-Noble Metal Fuel Cell Catalysts

Edited by

Zhongwei Chen, Jean-Pol Dodelet, and Jiujun Zhang

 

 

 

 

 

Wiley Logo

Preface

In the context of economic development and improvement in human living conditions, developing advanced technologies for energy storage and conversion has become a hot topic today. Polymer electrolyte membrane (PEM) fuel cells are one kind of important clean energy-converting devices that have drawn a great deal of attention in recent years due to their high efficiency, high energy density, and low or zero emissions, as well as their several important areas of application such as transportation, stationary and portable power, and micro-power. However, two major technical challenges, namely, high cost and low reliability/durability, have been identified as the major obstacles hindering the commercialization of PEM fuel cells. Fuel cell catalysts, such as platinum (Pt)-based catalysts and their associated catalyst layers, are the major factors related to these challenges. To overcome the challenges, exploring new catalysts, improving catalyst activity and stability/durability, and reducing catalyst cost are currently the major approaches in fuel cell technology and commercialization.

Regarding the cost reduction of Pt-based catalysts, non-noble metal catalysts, the next generation PEM fuel cell catalysts slated to replace expensive Pt, have been recognized as the sustainable solution for the commercialization of PEM fuel cells. In more recent years, intensified research and development in this area has been carried out by the world fuel cell community. To facilitate this effort, a book specifically focusing on this area is definitely necessary. This book contains comprehensive and systematic information on non-noble metal electrocatalysts for oxygen reduction reactions in both acid and alkaline PEM fuel cells with emphasis on (i) the fundamentals of electrochemical oxygen reduction catalysis with non-noble metal catalysts within acid and alkaline PEM fuel cells; (ii) the synthesis, characterization, activity validation, and modeling of various kinds of non-noble metal electrocatalysts; and (iii) the integration of the non-noble metal electrocatalysts into fuel cells and validation of their performance.

This book is written by a group of top scientists in the field of fuel cell catalysts, who not only have excellent academic records but also industrial expertise in the use of fuel cells. The book contains the latest updated information on R&D achievements and understanding in electrocatalysts for oxygen reduction reactions in both acid and alkaline PEM fuel cells. Some important R&D directions toward commercialization of both types of fuel cells are also discussed. In order to help readers understand the science and technology of the fuel cell catalysis, some important and representative figures, tables, photographs, and a comprehensive list of reference papers are presented in this book.

We believe that this book should be extremely useful to researchers and engineers who are working in energy/fuel cell industries. We sincerely hope that through reading this book, the reader will easily be able to locate the latest information on the fundamentals and applications of the catalysis of the oxygen reduction reaction in the next generation of fuel cells. It is expected that this book could be used as a reference for college/university students including undergraduates and graduates, and scientists and engineers who work in the areas of energy, electrochemistry science/technology, fuel cells, and electrocatalysis.

We would like to acknowledge with deep appreciation all of the efforts of all the contributors in writing their chapters. We also wish to thank Dr. Heike Nöthe, Senior Project Editor at STMS Books for extensive help and support.

If technical errors are found in this book, we and all the contributors would deeply appreciate the readers’ constructive comments for correction and further improvement.

January 2014

Dr. Zhongwei Chen,
Waterloo, Ontario, Canada

Dr. Jean-Pol Dodelet
Montreal, Quebec, Canada

Dr. Jiujun Zhang
Vancouver, British Columbia,
Canada

List of Contributors

  1. Nicolas Alonso-Vante
  2. IC2MP-CNRS 7285
  3. University of Poitiers 4 Michel
  4. Brunet Street
  5. 86022 Poitiers
  6. France
  1. Koichiro Asazawa
  2. Daihatsu Motor Co., Ltd.
  3. Frontier technology R&D
  4. Department
  5. R&D Division
  6. 3000 Yamanoue
  7. Ryuo
  8. Gamo
  9. Shiga 520-2593
  10. Japan
  1. Michael Bron
  2. Martin Luther University
  3. Halle-Wittenberg
  4. Faculty of Natural Sciences II
  5. Department of Chemistry
  6. von-Danckelmann-Platz 4
  7. 06120 Halle
  8. Germany
  1. Rui Cai
  2. Chinese Academy of Sciences
  3. State Key Laboratory of Catalysis
  4. Dalian Institute of Chemical
  5. Physics
  6. 457 Zhongshan Road
  7. Dalian 116023
  8. China
  1. Chen Chen
  2. Wuhan University
  3. College of Chemistry and
  4. Molecular Sciences
  5. Luojia Hill Street
  6. Wu Chang
  7. Wuhan 430072
  8. China
  1. Zhongwei Chen
  2. University of Waterloo
  3. Department of Chemical
  4. Engineering
  5. Waterloo Institute for
  6. Nanotechnology
  7. Waterloo Institute for Sustainable
  8. Energy
  9. 200 University Avenue West.
  10. Waterloo
  11. Ontario
  12. N2L 3G1
  13. Canada
  1. Deryn Chu
  2. U.S. Army Research Laboratory
  3. Sensors and Electron Devices
  4. Directorate
  5. 2800 Powder Mill Road
  6. Adelphi
  7. MD 20783-1197
  8. USA
  1. Wenling Chu
  2. Chinese Academy of Sciences
  3. State Key Laboratory of Catalysis
  4. Dalian Institute of Chemical
  5. Physics
  6. 457 Zhongshan Road
  7. Dalian 116023
  8. China
  1. Eben Dy
  2. National Research Council
  3. Canada
  4. Institute for Fuel Cell Innovation
  5. 4250 Wesbrook Mall
  6. V6T 1W5
  7. Vancouver BC
  8. Canada
  1. Drew Higgins
  2. University of Waterloo
  3. Department of Chemical
  4. Engineering
  5. Waterloo Institute for
  6. Nanotechnology
  7. Waterloo Institute for Sustainable
  8. Energy
  9. 200 University Avenue West.
  10. Waterloo
  11. Ontario
  12. N2L 3G1
  13. Canada
  1. Hideto Imai
  2. NISSAN ARC Ltd.
  3. Energy-Device Analysis
  4. Department
  5. 1 Natsushima
  6. Yokosuka
  7. Japan
  1. Akimitsu Ishihara
  2. Yokohama National University
  3. Green Hydrogen Research Center
  4. 79-5 Tokiwadai
  5. Hodogaya-ku
  6. Yokohama
  7. Japan
  1. Frédéric Jaouen
  2. Université de Montpellier II
  3. Institut Charles Gerhardt
  4. Montpellier
  5. Laboratory of Aggregates,
  6. Interfaces and Materials for
  7. Energy
  8. CNRS-UMR 5253
  9. 2 Place Eugène Bataillon
  10. 34095 Montpellier
  11. France
  1. Rongzhong Jiang
  2. U.S. Army Research Laboratory
  3. Sensors and Electron Devices
  4. Directorate
  5. 2800 Powder Mill Road
  6. Adelphi
  7. MD 20783-1197
  8. USA
  1. Jesaiah King
  2. The Ohio State University
  3. Department of Chemical and
  4. Biomolecular Engineering
  5. Koffolt Laboratories
  6. 140 W. 19th Ave.
  7. Columbus
  8. OH 43210
  9. USA
  1. Kunchan Lee
  2. Showa Denko K.K.
  3. Institute for Advanced and Core
  4. Technology
  5. 1-1-1, Ohnodai
  6. Midori-ku, Chiba-shi
  7. Chiba 267-0056
  8. Japan
  1. Qing Li
  2. Materials Physics and
  3. Applications Division
  4. Los Alamos National Laboratory
  5. P.O. Box 1663
  6. Mailstop D429
  7. Los Alamos
  8. NM 87545
  9. USA
  1. Ken-ichiro Ota
  2. Yokohama National University
  3. Green Hydrogen Research Center
  4. 79-5 Tokiwadai
  5. Hodogaya-ku
  6. Yokohama
  7. Japan
  1. Umit S. Ozkan
  2. The Ohio State University
  3. Department of Chemical and
  4. Biomolecular Engineering
  5. Koffolt Laboratories
  6. 140 W. 19th Ave.
  7. Columbus
  8. OH 43210
  9. USA
  1. Jing Pan
  2. Wuhan University
  3. College of Chemistry and
  4. Molecular Sciences
  5. Luojia Hill Street
  6. Wu Chang
  7. Wuhan, 430072
  8. China
  1. Tomokazu Sakamoto
  2. Daihatsu Motor Co., Ltd.
  3. Frontier technology R&D
  4. Department
  5. R&D Division
  6. 3000 Yamanoue
  7. Ryuo
  8. Gamo
  9. Shiga 520-2593
  10. Japan
  1. Zheng Shi
  2. National Research Council
  3. Canada
  4. Institute for Fuel Cell Innovation
  5. 4250 Wesbrook Mall
  6. V6T 1W5
  7. Vancouver BC
  8. Canada
  1. Deepika Singh
  2. The Ohio State University
  3. Department of Chemical and
  4. Biomolecular Engineering
  5. Koffolt Laboratories
  6. 140 W. 19th Ave.
  7. Columbus
  8. OH 43210
  9. USA
  1. Hirohisa Tanaka
  2. Daihatsu Motor Co., Ltd.
  3. Frontier technology R&D
  4. Department
  5. R&D Division
  6. 3000 Yamanoue
  7. Ryuo
  8. Gamo
  9. Shiga 520-2593
  10. Japan
  1. Gang Wu
  2. Materials Physics and
  3. Applications Division
  4. Los Alamos National Laboratory
  5. P.O. Box 1663
  6. Mailstop D429
  7. Los Alamos
  8. NM 87545
  9. USA
  1. Jiujun Zhang
  2. National Research Council
  3. Canada
  4. Institute for Fuel Cell Innovation
  5. Westbrook Mall 4250
  6. Vancouver
  7. BC V6T 1W5
  8. Canada
  1. Lin Zhuang
  2. Wuhan University
  3. College of Chemistry and
  4. Molecular Sciences
  5. Luojia Hill Street
  6. Wu Chang
  7. Wuhan, 430072
  8. China