|Salary:||£37,099 to £45,585 per annum (Grade 7)|
|Placed On:||17th November 2023|
|Closes:||17th December 2023|
Contract type: Fixed-term from January 1st 2024, for 12 months
We have an exciting opportunity in the Materials Science and Engineering department for someone to join the Multiscale Materials Informatics and Innovation (M2i2) group.
You will develop physics-based computational methods for industrial applications focusing on simulating the evolution of microstructure and mechanical fields during solid-state joining of advanced nickel-based superalloys. The computational framework to be developed will couple statistical models of solid-state transitions (i.e., dissolution/precipitation of gamma prime in superalloys) to microstructure-sensitive constitutive flow stress descriptions. Full field simulations of the micromechanical fields and texture evolution based on representative volume element analysis will be carried to derive correlations between process-induced microstructures and process parameters.
Experience in numerical methods is essential as well as in the implementation of constitutive models within commercial finite element schemes. You are expected to work closely with academic and industrial partners during the project.
You will have a PhD (or be close to completion) in metallurgy, manufacturing, and process modelling.
We’re one of the best not-for-profit organisations to work for in the UK. The University’s Total Reward Package includes a competitive salary, a generous Pension Scheme and annual leave entitlement, as well as access to a range of learning and development courses to support your personal and professional development.
We build teams of people from different heritages and lifestyles from across the world, whose talent and contributions complement each other to greatest effect. We believe diversity in all its forms delivers greater impact through research, teaching and student experience.
Apply now by clicking on the Apply button located near the top of your screen.
Type / Role: