The group include academics with proven tracked record of internationally leading research in the areas of nonlinear computational modelling and experimental testing of solids and structures.
In addition to using state-of-the-art simulation software, including but not limited to Abaqus, Ansys and LS Dyna, we routinely develop original models and methods and implement them within bespoke proprietary codes allowing advanced simulations not possible with current commercial software. Our codes are normally based on finite element analysis (FEA), computational fluid dynamics (CFD) or smooth particle hydrodynamics (SPH) and are generally developed both within publicly funded research and in research and consultancy projects with industrial partners.
An area of significant strength of the group is experimental characterisation and computational modelling of materials based on plasticity, viscoplasticity, viscoelasticity, damage, fracture and fatigue. Most group members are or have been involved in several current and past research projects in this area , with a significant track record of publications on highly ranked journals. Some example include rate-dependent modelling of debonding of layered structures, modelling of basalt-fibre-reinforced polymers, characterisation and modelling of hydrogen-induced stress cracking of duplex stainless steels.
Multi-scale and multi-physics modelling has also been a recurring theme, with research projects in this area including the development of multi-scale and multi-physics models of marine risers subject to vortex-induced vibrations and the geomechanics modelling of carbon capture and storage.
Another area of expertise of the group is the experimental testing and modelling of structures undergoing dynamic vibrations or impact. Projects in this area include but are not limited to the study of aerospace composite structures under extreme dynamic loadings.