Symposium FC
Materials and Process Innovation for Hydrogen Production and Storage
Convener:
Brandon WOOD, Lawrence Livermore National Laboratory, USA
Members:
Marcello BARICCO, Università di Torino, Italy
Andreas BORGSCHULTE, EMPA, Switzerland
Hanna BREUNIG, Lawrence Berkeley National Laboratory, USA
Petra E. DE JONGH, Utrecht University, Netherlands
Umit B. DEMIRCI, University of Montpellier, France
Kazunari DOMEN, Shinshu University, Japan
Martin DORNHEIM, University of Nottingham, UK
Bjorn HAUBACK, Institute for Energy Technology, Norway
Michael HIRSCHER, Max Planck Institute for Intelligent Systems, Germany
Jacques HUOT, University of Quebec at Trois-Rivieres, Canada
Adolfo IULIANELLI, CNR-ITM, Italy
Nazim Z. MURADOV, University of Central Florida, USA
Shin-ichi ORIMO, Tohoku University, Japan
Ned STETSON, US Department of Energy, USA
Peter STRASSER, TU Berlin, Germany
Francesca TOMA, Helmholtz-Zentrum Hereon, Germany
Andreas ZUETTEL, EPFL, Switzerland
Brandon WOOD, Lawrence Livermore National Laboratory, USA
Members:
Marcello BARICCO, Università di Torino, Italy
Andreas BORGSCHULTE, EMPA, Switzerland
Hanna BREUNIG, Lawrence Berkeley National Laboratory, USA
Petra E. DE JONGH, Utrecht University, Netherlands
Umit B. DEMIRCI, University of Montpellier, France
Kazunari DOMEN, Shinshu University, Japan
Martin DORNHEIM, University of Nottingham, UK
Bjorn HAUBACK, Institute for Energy Technology, Norway
Michael HIRSCHER, Max Planck Institute for Intelligent Systems, Germany
Jacques HUOT, University of Quebec at Trois-Rivieres, Canada
Adolfo IULIANELLI, CNR-ITM, Italy
Nazim Z. MURADOV, University of Central Florida, USA
Shin-ichi ORIMO, Tohoku University, Japan
Ned STETSON, US Department of Energy, USA
Peter STRASSER, TU Berlin, Germany
Francesca TOMA, Helmholtz-Zentrum Hereon, Germany
Andreas ZUETTEL, EPFL, Switzerland
The list of Invited Speakers will be available at the end of July 2025
Hydrogen represents a promising solution as a clean, abundant, safe, and cost-effective energy carrier for grid, transportation, and industrial use. It is also highly versatile can be produced from either renewable or baseload energy sources. Moreover, coupling with the carbon or nitrogen cycles, hydrogen can be readily thermo-chemically processed to generate fuels and chemical products. Despite its potential, practical implementation of a competitive hydrogen infrastructure has often been limited by key challenges in cost-effective production, distribution, and storage. Breakthroughs at all levels of implementation—from materials research to device design to system engineering—are a priority. In addition, there are many fundamental aspects of hydrogen-materials interactions that remain poorly understood. Opportunities abound to exploit the enormous potential of novel synthesis approaches, multiscale modelling and simulation, data science and machine learning, characterization tools, and manufacturing advances to design new hydrogen materials and processes.
“Materials and Process Innovation in Hydrogen Production and Storage” will bring together researchers from physics, chemistry, materials science, and engineering disciplines to share scientific and technical advances and to highlight outstanding problems and guidelines for future research. Topics will span both fundamentals and applications, including (but not limited to) (photo) electrochemistry, catalysis, membranes, separation and purification; hydrogen compression and liquefaction; gas, liquid, and solid-state storage; and system engineering, scale-up, and performance evaluation, including safety, durability, and economic issues. Contributions covering multiscale modelling, in situ and operando characterization, materials synthesis, processing and manufacturing, and systems design will be featured.
“Materials and Process Innovation in Hydrogen Production and Storage” will bring together researchers from physics, chemistry, materials science, and engineering disciplines to share scientific and technical advances and to highlight outstanding problems and guidelines for future research. Topics will span both fundamentals and applications, including (but not limited to) (photo) electrochemistry, catalysis, membranes, separation and purification; hydrogen compression and liquefaction; gas, liquid, and solid-state storage; and system engineering, scale-up, and performance evaluation, including safety, durability, and economic issues. Contributions covering multiscale modelling, in situ and operando characterization, materials synthesis, processing and manufacturing, and systems design will be featured.
Session Topics
HYDROGEN PRODUCTION
FC-1 Fossil fuel reforming
FC-2 Biomass gasification
FC-3 Advanced coal gasification
FC-4 Photocatalysis and photoelectrochemistry
FC-5 Thermochemical water splitting
FC-6 Renewable electrolysis
FC-7 High-temperature electrolysis and hybrid cycles
FC-8 Photobiological and photo-biomimetic
FC-9 System design and market/environmental considerations
HYDROGEN STORAGE AND DISTRIBUTION
FC-10 Gaseous and cryogenic storage
FC-11 Compression and liquefaction
FC-12 Metal hydrides
FC-13 Complex hydrides
FC-14 Chemical hydrides and liquid carriers
FC-15 High surface-area sorbent materials
FC-16 Tank design, safety and market considerations