PhD in Additively Manufactured Architected Metamaterials for High Temperatures University of Birmingham in United Kingdom

This PhD project at the University of Birmingham focuses on the design, fabrication, and testing of architected metamaterials made from high temperature nickel superalloys, which are essential for aerospace and nuclear applications due to their outstanding mechanical properties, thermal stability, and oxidation resistance. The research aims to overcome the challenge of high density in these alloys by developing ultra-lightweight, hollow architected structures using advanced additive manufacturing (3D printing) techniques. The successful candidate will join a dynamic and inclusive research group within the School of Metallurgy & Materials, collaborating with leading academic partners at UT Austin and industrial partners such as Siemens Energy, Rolls-Royce, Alloyed Ltd, and MTC. There is also the possibility of undertaking a research internship with one of these industrial partners during the PhD.

The project will involve testing the mechanical and oxidation behaviour of architected superalloys using bespoke multi-axial mechanical testing systems and advanced microscopy. The research will unravel the complexity of structural behaviour at multiple length scales, including phenomena such as creep, texture, rapid phase transformation, and will contribute to the development of predictive models for material behaviour. This interdisciplinary work sits at the intersection of materials science, mechanical engineering, and manufacturing technology, with direct relevance to space, aviation, and nuclear industries.

Applicants should be highly motivated and passionate about manufacturing and metallurgy, holding (or expecting to hold) a first-class or upper-second-class degree in materials science, mechanical engineering, condensed matter physics, or a closely related field. While prior experience in experimental or modelling work is not required, familiarity with characterisation techniques, additive manufacturing, powder metallurgy, or modelling will be advantageous. The position is open to home (UK) and international students, with funding available for home fees and a stipend for 3.5 years. International students will receive home fees and stipend, but not full overseas fees; self-funded students with external scholarships are also encouraged to apply.

To apply, candidates should send a covering email to Dr Yuanbo (Tony) Tang ([email protected]) explaining their motivation and attach a CV and academic transcripts. Applications are accepted year-round. For further details, visit the project page: FindAPhD Project Link.