I am a Researcher, Chartered Engineer and Chartered Scientist based in the Department of Materials at Imperial College London. My team and I work on understanding metals used in high-risk high-value applications, such as aerospace, oil & gas and nuclear power. I am a fellow of the Institute of Materials, Minerals and Mining (IOM3). I am Deputy Director of the Centre for Nuclear Engineering.
For research, I specialise in experimental micromechanical characterisation, focusing on understanding deformation at the small scale with electron microscopy, simulation and micro-mechanical testing. This is funded through my RAEng Research Fellowship on "Better understanding of materials to make safer reactors", as well as through the HexMat consortium. I also run the MSc in Advanced Nuclear Engineering at Imperial College and coordinate the MEng in Nuclear programmes (Mechanical Engineering, Chemical Engineering, and Materials). I am a member of the Engineering Alloys Group, the Centre for Nuclear Engineering and the Rolls-Royce Nuclear UTC.
My research focusses on understanding materials behaviour for energy, transport and the built environment. I aim to understand the science of behaviour at the micro-mechanical lengthscale to drive technology and innovation in engineering.
I have recently been awarded a Imperial College President's Award and Medal as an Outstanding Early Career Researcher (2017) and a member of the Engineering Alloys Outstanding Research team (2017). In 2016, I was lucky to be one of the the 2016 Engineers Trust Young Engineer of the Year awardees by the RAEng (Imperial news story). In 2014, I was awarded the IOM3 silver medal which is in "recognition of an outstanding contribution to the broad field of materials science, engineering and technology, including promotion of their subject on a national or international basis."
For more information, please visit my group website.
My research interests include techniques such as electron backscatter diffraction (EBSD), digital image correlation (DIC), micro-mechanical test (e.g. nanoindentation, micropillar compression) and in-situ methods. This work focusses on the behaviour of hexagonal and cubic metals (e.g. Zr, Ti, Cu, Ni, Fe).
Currently I lead a third year module called "MSE 307 Engineering Alloys" and I teach on a fourth year course "MSE 414 Nuclear Materials" on zirconium for nuclear power applications. I also lecture to post graduates on electron microscopy (SEM, EDX, EBSD, and FIB - notes are avaible on my group website). I used to teach dislocations and deformation in MSE 104.
I joined the Department of Materials as a Nuclear Metallurgy Fellow in 2012 and I started my RAEng fellowship in 2015. Previously I worked in the Department of Materials at the University of Oxford researching materials for fission and fusion power. My DPhil concerned the deformation behaviour of titanium alloys for aerospace applications and was completed in 2010 in Oxford.
For more information about Nuclear Degrees at Imperial, please see here.
et al., 2015, On the mechanistic basis of fatigue crack nucleation in Ni superalloy containing inclusions using high resolution electron backscatter diffraction, Acta Materialia, Vol:97, ISSN:1359-6454, Pages:367-379
et al., 2015, Measurements of stress fields near a grain boundary: Exploring blocked arrays of dislocations in 3D, Acta Materialia, Vol:96, ISSN:1359-6454, Pages:229-236
Guo Y, Britton TB, Wilkinson AJ, 2014, Slip band-grain boundary interactions in commercial-purity titanium, Acta Materialia, Vol:76, ISSN:1873-2453, Pages:1-12
et al., 2013, Probing Deformation and Revealing Microstructural Mechanisms with Cross-Correlation-Based, High-Resolution Electron Backscatter Diffraction, JOM, Vol:65, ISSN:1047-4838, Pages:1245-1253
et al., 2010, Electron backscatter diffraction study of dislocation content of a macrozone in hot-rolled Ti-6Al-4V alloy, Scripta Materialia, Vol:62, ISSN:1359-6462, Pages:639-642