Summer research in School of Metallurgy and Materials
Research experience in Materials for a sustainable future
Research experience in Materials for a sustainable future
School of Metallurgy and Materials research projects in Materials for a sustainable future focuses on technologically relevant energy materials, their modelling, characterisation and recyclability.
Project
First-Principles Quantum Mechanical Understanding of Next-Generation of Transparent Conducting Materials.
Research lead
Prof Andrew J. Morris
Research objective
Transparent conducting materials (TCMs) are a class of materials critical for optoelectronic applications such as solar cells, touchscreens and displays. Based on preliminary results early in 2025, this project explores the potential of metal-organic frameworks (MOFs) as TCMs. We will use cutting edge density-functional theory (DFT) calculations to model the electronic structure of selected MOFs followed by electronic transport property predictions using the BoltzTraP2 code. Optical spectra will be computed to assess transparency, using the OptaDOS code developed in Birmingham or if time permits many-body perturbation theory methods (such as the GW method). We will initially focus on non-d-electron band materials (e.g., ZnO) to ensure wide band gaps and transparency. Simple doping strategies will be explored to enhance conductivity. We will collaborate with experimental groups who will try to make the best materials we find.
Research prerequisites
Some familiarity with quantum mechanics is required. Interest in computational methods; prior coding experience (e.g., Python) is helpful but not essential.
Research experience with the Space Research group
Research experience with the Space Research group
Project
Instrumentation for improved space situational awareness
Research lead
Dr Leah-Nani Alconcel & Dr Lily Beesley
Research objective
The objective of this project is to develop and test optical techniques and instrumentation to monitor, image, track, and identify satellites in the crowded Low Earth Orbit (LEO) environment, working towards a more accurate picture of the current state of our space environment. It aims to achieve this through experimental work on optical satellite-tracking systems, including testing and refining hardware in realistic observing conditions, and using the resulting data to improve monitoring and identification capabilities.
Research prerequisites
- strong background in physics, engineering or a related field
- experience working with programming languages such as Python for data analysis and simulations
- strong analytical and problem-solving skills