Abstract Scope |
Economies around the globe have released aggressive greenhouse gas emission reduction targets with many of these focused on Net-Zero economy-wide emissions by 2050. The electric sector has led the way in comparison to other industries (buildings, transportation, etc.) for CO2 reduction in the past 20 years, and increased electrification will increase the need for net-zero power generation technologies. Currently, there are many advanced energy systems being evaluated with the potential to contribute to the future grid including: advanced nuclear reactors (molten salts, advanced gas cooled reactors, etc.), concentrating solar power, and transformational fossil power (e.g. supercritical CO2 cycles or hydrogen fired gas turbines) combined with carbon capture and storage (CCS). A common theme among these diverse technologies is the application of advanced high-temperature materials. The traditional supply chain for components made from these materials is limited due to significant industry contraction, especially in the U.S. However, the rapid acceleration of advanced manufacturing methods (including powder-metallurgy hot-isostatic pressing, additive manufacturing, and advanced welding technologies) opens up new possibilities for the supply chain. To realize the full potential of advanced manufacturing methods and materials (AM3) for the future energy landscape, a collaborative approach focused on engaging the entire supply chain with a clear focus on codes & standards, specifications, testing, and demonstrations is urgently needed. Successful collaboration will help enable cost effective solutions for the energy transformation society is beginning to undertake today. |