Production of Clean Hydrogen by Electrochemical Reforming of Oxygenated Organic Compounds provides a comprehensive overview of the thermodynamics and experimental results that allow the decomposition process of organic compounds leading to hydrogen to be carried out at working cell voltages much lower than those encountered in water electrolysis. The authors review different methods of synthesis and characterization of the catalysts needed to activate the electro-oxidation reaction and describe different electrolysis experiments that produce hydrogen in a Proton Exchange Membrane Electrolysis Cell (PEMEC). Other sections investigate the effect of the nature of the reactive molecules, the nature and structure of the catalysts, and more.

By exploring the link between organic oxidation/conversion to hydrogen production, this book fills a gap in the existing literature and provides researchers in the field with an authoritative and comprehensive reference they can use when developing new sustainable processes and systems for hydrogen production.

Auteur
Claude Lamy is a Professor at the European Institute of Membranes of Montepellier University. Before taking on his current position, Professor Lamy was a research scientist in CNRS (Laboratoire d'Electrochimie Interfaciale) and full Professor at the University of Poitiers. His main research interests include interfacial electrochemistry, mechanisms of reactions, electrocatalysis, electro-synthesis in aqueous media from biomass compounds and hydrogen production by electrochemical reforming of alcohols. His research activity has led to more than 250 published original papers (among them about 220 in International Journals with Referee), 65 papers in proceedings, 18 chapters in scientific books, 80 invited lectures and more than 300 oral presentations. He has also received the Christian Schönbein Prize at the European Fuel Cell Forum, Lucerne (Switzerland) and is a Fellow of the International Society of Electrochemistry. Christophe Coutanceau obtained his Ph.D. degree in electrochemistry in 1994 at the University of Poitiers, France. He then worked as Assistant Professor at the Laboratory of Catalysis in Organic Chemistry (LACCO) in that same institution, before being promoted in 2008. At present, he is Professor in Physical Chemistry at IC2MP and Director of the Catalysis and Unconventional Media group of the Institute of Chemistry of Poitiers. He is also chair of the Low Temperature and Fuel and Electrolysis Cells axis of the Hydrogen-Systems-Fuel Cells Research Grouping from the French National Council of Scientific Research (CNRS). For more than twenty years, his research interests include development of synthesis methods for nanostructured supported metals using green processes (microwave activation, electrochemical methods, etc.) and solvents (polyols, water) and their application as electrocatalysts in fuel cells, electrolysis cells and electrosynthesis reactors. He is also interested in the valorisation of agroresources using electrochemical methods. He has presented or published over a hundred articles in reviewed international journals, as well as several book chapters, invited lectures and world patents related to fuel cells, electrolysis cells and biomass conversion. Stève Baranton obtained his Ph.D. degree in electrochemistry in 2004. He worked conducted research in Canada and Japan before joining IC2MP as Assistant Professor. His current research interests include the development of synthesis methods for nanostructured supported metals using green processes (microwave activation, electrochemical methods, etc.) and solvents (polyols, water) and their application as electrocatalysts in fuel cells, electrolysis cells and electrosynthesis reactors. He also develops in situ spectroscopic methods. He has presented or published over 90 documents related to fuel cells, electrolysis cells and biomass conversion, including articles in reviewed international journals, book chapters, invited lectures and world patents.

Contenu

Introduction2. Principle of hydrogen production by the electrocatalytic oxidation of organic compounds in a Proton Exchange Membrane Electrolysis Cell3. Experimental part4. Production of hydrogen by the electrocatalytic oxidation of low weight compounds (HCOOH, MeOH, EtOH)5. Production of hydrogen by the electrocatalytic oxidation of compounds derived from the biomass (glycerol, glucose)6. Conclusions