Innovating Advanced Materials for a Hydrogen-Powered Future
Key Ideas
  • Hydrogen emerges as a critical energy carrier for achieving net-zero emissions, but faces material limitations in land-based utility turbines due to high adiabatic temperatures.
  • Development of ceramic matrix composites (CMCs) and environmental barrier coatings (EBCs) are essential to enable higher firing temperatures and increased turbine efficiency.
  • Challenges in material availability, coating durability, and system integration highlight the need for an innovation strategy to support a hydrogen economy.
  • Opportunities exist in digital design and modeling for precise optimization, as well as in processing techniques to minimize waste and enhance component durability in advanced material development.
The United States aims to achieve net-zero emissions by 2050, requiring technological advancements in the energy sector. Hydrogen is seen as a key element to decarbonize heavy-emitting sectors and power generation, but faces challenges due to material limitations in land-based utility turbines. The development of ceramic matrix composites (CMCs) and environmental barrier coatings (EBCs) is crucial to enable higher firing temperatures and efficiency in turbines. While these materials have been primarily used in aerospace, efforts are being made to commercialize them for hydrogen power generation. The National Energy Technology Laboratory (NETL) has identified challenges and opportunities in CMC and EBC development, emphasizing the need for material availability, coating durability, system integration, and optimization. Innovations in digital design tools and processing techniques are highlighted as key areas for advancement to support the transition to a hydrogen-powered future.
ADVANCEH2

Our vision is to be the world's leading online platform for advancing the use of hydrogen as a critical piece needed to deliver net-zero initiatives and the promise of a clean H2 energy future.

© 2024 AdvanceH2, LLC. All rights reserved.