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About this Symposium

Meeting MS&T25: Materials Science & Technology
Symposium Advances in Materials and Systems for a Hydrogen Economy
Sponsorship ACerS Manufacturing Division
ACerS Refractory Ceramics Division
Organizer(s) Manoj K. Mahapatra, University of Alabama-Birmingham
James Hemrick, Oak Ridge National Laboratory
John S. Hardy, Pacific Northwest National Laboratory
Jorgen Rufner, Idaho National Laboratory
Scope This symposium aims to address the new hydrogen economy and its positive impacts on both climate change and environmental sustainability issues. Despite tremendous progress in innovation of new materials, systems, and technologies for hydrogen production, separation, storage, utilization, and integration with hybrid technologies, many challenges are yet to be addressed. This symposium aims to bring together relevant technical communities to share advances in materials (ceramics, metals and alloys, polymers, and composites), processing, components integration, and systems for various technologies which are relevant to the overall hydrogen economy. The obstacles hindering the full exploitation of a hydrogen economy for zero anthropogenic carbon emissions will also be discussed along with future research and development directions.

- General perspectives of hydrogen economy and environmental sustainability.
- Advances in materials and systems for hydrogen production, separation, storage, transport, and utilization.
- Hydrogen fuel in aerospace and nuclear sectors: technical advances and obstacles.
- Hydrogen fuel for industrial decarbonatization: technical advances and obstacles.
- Degradation of materials, components, and systems for hydrogen production, separation, storage, transport, and utilization.
- Advances in mitigation of hydrogen induced degradation of materials, components, and systems.
- Materials innovation, novel processing, innovative integration of components to overcome the technical challenges in hydrogen production, separation, storage, and utilization.
- Advances in characterization tools and property evaluation techniques for materials, components, and systems relevant to hydrogen economy.
- Advances in computational methods and approaches, data science, and theoretical approaches for predictive design of novel high performance stable materials and components for overall hydrogen energy systems including production, storage, and utilization.
- Safety issues, codes, and standards for the hydrogen economy.
- Perspectives for future R&D directions.

Abstracts Due 05/15/2025

PRESENTATIONS APPROVED FOR THIS SYMPOSIUM INCLUDE


Advanced Materials for Low-Temperature Oxygen-Ion Conducting Solid Oxide Electrolysis Cell for Hydrogen Production
Chemical Modulation of Grain Boundaries and Electrochemical Interfaces for Enhanced Performance
Computer simulation for hydrogen reaction with materials
Data-enabled and materials computations for designing materials for a hydrogen economy
Debunking generalizations regarding interactions of hydrogen with Fe- and Ni-based alloys at temperatures > 400°C
Degradation of stoichiometric and non-stoichiometric mullites in dry (Ar - 10% H2) and humid hydrogen (Ar - 10% H2-3% H2O) environment
Effect of Compressive Residual Stress on Hydrogen Permeability in Shot-Peened Steel Under Cathodic Charging
Evaluating Hydrogen Embrittlement Resistance in Line Pipe Steels using Double Cantilever Beam Test
Friction and Wear Characteristics of Hydrogen-Aged DLC and MoS2 Coatings
High temperature steam corrosion of single component and high entropy rare-earth phosphates
Hydrogen - Hydrocarbon Fuel Blends for Turbine Engines: High Temperature Material Issues
Hydrogen embrittlement of a high-strength Ni-based superalloy with varying Ti/Al ratio and Ta content
Initiatives in steel products to achieve carbon-neutrality
La0.6Sr0.4Co0.2Fe0.8O3 Degradation Under SOEC Conditions and Its Effects on Operational Lifetimes
Materials development for Protonic Ceramic Electrolysis Cells
Modeling and Analysis of SOFC Performance Degradation Under Steady and Dynamic Load Conditions.
Performance and Durability of Solid Oxide Fuel Cells Operated on Cleaned Coal-Derived Syngas
Polyoxometalate-metal organic framework derived transition metal-based sulfides for electrocatalytic hydrogen evolution reaction
Research Advancement of Proton Conducting Solid Oxide Electrolysis Cells (p-SOEC) for Hydrogen Production at Idaho National Laboratory
Role of hydrogen in iron and steel production
Solar Thermoelectrochemical Hydrogen Production Using Reversible Electrolysis and Its Immediate Impact in AI Data Centers, Automotive, and Space Technology


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