Biography
Ed is a UKAEA / Royal Academy of Engineering Senior Research Fellow in Materials Modelling for Fusion Energy, an Associate Professor in the Solid Mechanics and Materials Engineering Group and a Supernumerary Fellow at St Anne's College. He develops computational models of engineering materials specialising in crystal plasticity. Previous awards include an EPSRC early career Fellowship (2015-2021) and the Rising Star in Computational Materials Science Prize in 2019. He completed his DPhil in Materials Science and MSc in Mathematical Modelling & Scientific Computing at Oriel College, Oxford.
Most Recent Publications
A finite element framework for cohesive zone modeling of interface fracture
A finite element framework for cohesive zone modeling of interface fracture
The interplay between thermomigration and stress-driven hydrogen transport in metals
The interplay between thermomigration and stress-driven hydrogen transport in metals
Thermodynamic Model for Thermomigration in Metals
Thermodynamic Model for Thermomigration in Metals
Source-controlled Crystal Plasticity: A Unified Description of Size-dependent Strength and Micromechanical Test Behaviour
Source-controlled Crystal Plasticity: A Unified Description of Size-dependent Strength and Micromechanical Test Behaviour
Direct Imaging of Hydrogen-Driven Dislocation and Strain Field Evolution in a Stainless Steel Grain.
Direct Imaging of Hydrogen-Driven Dislocation and Strain Field Evolution in a Stainless Steel Grain.
Research Interests
- Discrete dislocation plasticity
- Crystal plasticity
- Coupled mechanical/diffusion models
- Cohesive zone modelling
HEms Project
The Hydrogen Embrittlement of Steels (HEMS) project was a consortium funded by the Engineering and Physical Science Research Council to study the damage caused to steels by exposure to hydrogen. Upon exposure to hydrogen steels demonstrate a dramatic decrease in their tensile strength and instead of bending and stretching, the steel "cracks" in a brittle fashion. The HEMS consortium was a collaboration between a number of UK universities to study this phenomenon and elucidate the physical mechanisms underpinning it. If steels could be manufactured which are resistant to this effect it would enable a range of new technologies in the fields of energy and transport, and would be an essential step towards transforming to a hydrogen based energy economy.
Most Recent Publications
A finite element framework for cohesive zone modeling of interface fracture
A finite element framework for cohesive zone modeling of interface fracture
The interplay between thermomigration and stress-driven hydrogen transport in metals
The interplay between thermomigration and stress-driven hydrogen transport in metals
Thermodynamic Model for Thermomigration in Metals
Thermodynamic Model for Thermomigration in Metals
Source-controlled Crystal Plasticity: A Unified Description of Size-dependent Strength and Micromechanical Test Behaviour
Source-controlled Crystal Plasticity: A Unified Description of Size-dependent Strength and Micromechanical Test Behaviour
Direct Imaging of Hydrogen-Driven Dislocation and Strain Field Evolution in a Stainless Steel Grain.
Direct Imaging of Hydrogen-Driven Dislocation and Strain Field Evolution in a Stainless Steel Grain.
DPhil studentship
Please email me to discuss DPhil opportunities.
Most Recent Publications
A finite element framework for cohesive zone modeling of interface fracture
A finite element framework for cohesive zone modeling of interface fracture
The interplay between thermomigration and stress-driven hydrogen transport in metals
The interplay between thermomigration and stress-driven hydrogen transport in metals
Thermodynamic Model for Thermomigration in Metals
Thermodynamic Model for Thermomigration in Metals
Source-controlled Crystal Plasticity: A Unified Description of Size-dependent Strength and Micromechanical Test Behaviour
Source-controlled Crystal Plasticity: A Unified Description of Size-dependent Strength and Micromechanical Test Behaviour
Direct Imaging of Hydrogen-Driven Dislocation and Strain Field Evolution in a Stainless Steel Grain.
Direct Imaging of Hydrogen-Driven Dislocation and Strain Field Evolution in a Stainless Steel Grain.