What will the materials powering tomorrow's clean energy systems, quantum computers, and deep-space missions actually be made of — and how do we design them? We are thrilled to share our latest featured article in The European magazine, where we explore how cutting-edge research is engineering matter at the atomic scale. From the nanolaminated MAX … Continue reading Atom-by-atom materials shaping future technology
We are happy to share the discovery of the ZIP phases, a brand-new family of compounds that could mark a revolution in materials science. These materials reveal atomic structures unlike anything seen before, opening exciting opportunities for future research and applications. 📄 A New Family of Ternary Intermetallic Compounds with Dualistic Atomic Ordering – The … Continue reading A revolution in materials science
MAX radiation protection for next-generation nuclear power plants, by Jonathon Foreman, Ceramic Tech Today. "The radiation tolerance of MAX phases is of particular interest to researchers because it makes these materials ideal candidates for use in next-generation nuclear power technologies. Studies that exposed various MAX compositions to low and high doses of high-energy ions found … Continue reading ACerS highlights Cr2AlC MAX Phases pathway to extreme environments
Ceramics are known to amorphise under energetic particle irradiation. We show Cr2AlC MAX phase -- even in its non-pure semi-crystalline form -- can resist to amorphisation when in its grain-size falls into the nanocrystalline regime (10-100 nm)! Free access at: https://doi.org/10.1126/sciadv.abf6771
How #nanocrystalline #materials are a potential class of #nuclear #materials? We show that a non-pure Cr-based MAX phase has high radiation resistance. Collab. between @HuddersfieldUni@HudCompEng@unileoben@metallurgie_mul Now at @ScienceAdvances https://bit.ly/3f8JzQc
Materials at Extremes 