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About this Symposium

Meeting

MS&T24: Materials Science & Technology

Symposium

Advances in Materials and Systems for a Hydrogen Economy

Sponsorship

ACerS Manufacturing Division
ACerS Refractory Ceramics Division
TMS: Refractory Metals & Materials Committee

Organizer(s)

Manoj K. Mahapatra, University of Alabama-Birmingham
James Hemrick, Oak Ridge National Laboratory
John Hardy, Pacific Northwest 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, 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, and utilization
- Degradation of materials, components, and systems for hydrogen production, separation, and storage
- Hydrogen fuel for industrial decarbonatization – technical advances and obstacles
- 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 relevant to hydrogen energy materials, components, and systems
- 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

05/15/2024

PRESENTATIONS APPROVED FOR THIS SYMPOSIUM INCLUDE

Adsorption and Dissociation of Hydrogen on Iron and Iron Oxide Surfaces Under Supercritical Conditions

Advanced Electrochemical Systems for Hydrogen Economy: Technology Status and Development Needs

Advances in Hydrogen Barrier Coatings – An Overview.

Analysis of Integrated Wind-Hydrogen Systems for Industrial Decarbonization

Application of Local Strain Theory for Predicting Notch Fatigue Testing in Hydrogen-Charged Austenitic Stainless Steel

Compatibility of Existing Natural Gas Pipeline Materials with Hydrogen

Computational Simulation of Hydrogen DRI (HDRI) Pellets Immersed in Molten Steel and Slag

Degradation of Spinel Refractories in Dry (Ar - 10% H2) and Humid Hydrogen (Ar - 10% H2-3% H2O) Environment

Dynamic Nano and Microscale Processes in Hydrogen Charged Metals and Alloys

Effect of Additives on Hydrogen Equilibrium Pressure and Absorption Rates in Yttrium Hydride

Effect of Chemically Heterogeneous Microstructure on Hydrogen Embrittlement in Martensitic Steel

Effects of Oxygen Impurities on Long-Term Gaseous Hydrogen Embrittlement of Structural Steels

Efficient Hydrogen Production from Recycled Aluminum and Seawater

Fatigue and Fracture of Structural Steels in Gaseous Hydrogen Environments

Ferritic Interconnect Materials in SOEC – Challenges and Degradation from Ambient Temperature to 900°C

Fundamental Atomistic Study of H-Defect Interactions to Predict H Segregation Energy Spectra

Hydrogen Embrittlement in Micro-Alloyed Ultra High Strength Press Hardening Steel (PHS)

Imaging the Nanoscale Hydrogen Distribution in an Austenitic Stainless Steel (347H) Using Atom Probe Tomography

Insights into Hydrogen Embrittlement of AA7075 Aluminum Alloy Fabricated by Additive Friction Stir Deposition

Insights into Hydrogen Separation from Simulations

Investigations in Hydrogen Ironmaking

Material Discovery and Design Principles of Perovskite Oxides for Reversible Solid Oxide Cells

Modeling and Experimental Studies of Hydrogen Effects on the Materials Used for Storage and Transport

Modeling and Valuation of Hydrogen Toward Multiple Energy Pathways and Grid Applications

Multi-Layer, Multi-Functional Thermal and Environmental Barrier Coatings for Heat Engines

Multiscale Simulations of Materials Degradation for Hydrogen Production and Storage

N-6: Effect of Cyclic Hydrogen Charging on Shot-Peening Steel with Surface Compressive Residual Stresses

Overview of U.S. DOE’s Reversible Solid Oxide Fuel Cell (R-SOFC) Program

Refractory Ceramic Interactions with Medium Temperature Hydrogen-Containing Atmospheres

The Less Discussed Impact of High Temperature (> 500 °C) Hydrogen Induced Degradation of Austenitic Ni- and Fe-Based Alloys

Understanding the Creep Properties of 347H Austenitic Stainless Steels under Hydrogen-Containing Environments

Unraveling the Influence of Hydrogen and Blended Gas on Polymer Performance in Infrastructure Systems

Zero-Electricity Electrolytic Reactor Produces Hydrogen and Syngas for Onsite Energy, Fuel, and Feedstocks

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