Rethinking copper metallurgy for the future of fusion reactors

We are delighted to share a new preprint that takes on one of fusion energy's most stubborn materials problems: building a heat sink that can survive inside a reactor. Commercial fusion demands components that withstand intense neutron bombardment while extracting punishing heat loads for conversion to electricity, and CuCrZr — a copper alloy strengthened by … Continue reading Rethinking copper metallurgy for the future of fusion reactors

How much radiation damage can you do in seconds?

Qualifying materials for future fission and fusion reactors is painfully slow. Neutron irradiation is costly, time-consuming and leaves samples radioactive, while ion-beam alternatives require competitive proposals and scheduled beam time at oversubscribed accelerator facilities. In a new preprint, we ask whether an instrument already sitting in many microscopy labs — the plasma focused ion beam … Continue reading How much radiation damage can you do in seconds?

Atom-by-atom materials shaping future technology

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

Leoben makes waves in fusion materials research

The [X-MAT] team at the Chair of Nonferrous Metallurgy, Montanuniversität Leoben, has drawn global attention with a groundbreaking study published in Advanced Science (DOI: 10.1002/advs.202417659). With more than 1k views and reads in the journal's first month after publication, our work challenges the prevailing high-entropy alloy (HEA) paradigm by proving that even simpler alloy systems can outperform their … Continue reading Leoben makes waves in fusion materials research