Mechanical characterisation of materials for compact fusion energy

Fusion energy is a promising solution for reliable and sustainable low-cost power while simultaneously providing energy with a positive environmental impact. A critical and limiting factor in fusion reactors, however, is the first wall “shielding” material, which provides containment of the high-energy fusion reaction particles. Together with our industry partner, Tokamak Energy, and a team of international researchers, we have developed advanced materials for the “shield” component of compact fusion reactors and seek to understand how deformation and failure of these materials will evolve when exposed to high-energy radiation and frequent thermal cycling to high temperatures.

In this project, you will develop specialised skills in characterising and understanding structure- property relationships in these materials and how mechanisms across multiple length scales, from the sub-nanometre to the macroscopic structure range, impact their mechanical performance. Our international research team has extensive experience utilising state-of-the-art characterisation techniques which together with access to world-leading facilities will help you learn evaluating properties such as hardness, strength, fracture toughness, and/or fatigue, all with the aim to improve damage-tolerance in these materials and, ultimately, provide a stronger and longer-lasting shield.

The project is open for both domestic and international candidates and would be suitable for student backgrounds within Materials Science and Engineering, Mechanical Engineering, Chemistry/Chemical Engineering, Physics, or Nuclear Energy related fields. For qualified candidates the project might be offering a stipend up to A$50,000 per year.

How to Apply

Express your interest in this project by emailing Associate Professor Bernd Gludovatz at b.gludovatz@unsw.edu.au. Include a copy of your CV and your academic transcript(s).