Our Research

The Applied Dynamics Research Group is focused on (i) modelling and analysis of engineering systems exhibiting non-linear responses, and practical applications of dynamics, control and condition monitoring; (ii) impact and explosion mechanics, including fundamental understanding of energy absorption and deformation characteristics of materials and sandwich structures with metal foams and truss cores subjected to blast, shock or ballistic loading.

The Power Systems, Communications and Optics Research Group enjoys an international reputation and profile for its activities in holographic imaging, power systems analysis, and network protocols. Research spans the development of new techniques, advanced modelling algorithms, new semiconductor devices and the development of standards working with industry.

The Environmental and Industrial Fluid Mechanics Research Group studies two major interconnected areas: (i) hydrodynamics of free-surface flows, and (ii) mechanics of fluid-particle interactions and transport. Both areas cover natural and industrial flows at multiple scales, from sub-mm to kilometres. Studies of the free-surface flows focus on open-channel flows, coastal processes, eco-hydraulics, flow-porous-bed interfaces, and liquid-solid impacts. Research on fluid-particle interactions concentrates on sediment transport in unidirectional and oscillatory flows, low Reynolds number multiphase flows, and molecular fluids.

The Solid and Granular Mechanics Research Group models real-world problems that require a precise mathematical description of the mechanical behaviour of materials, such as advanced new materials (functionally graded materials, micro- and nano-composites), ceramics, and elastomers. This is achieved through analytical and numerical methods, with experimental verification, to generate models whose predictions are tested against the behaviour of real components or structures. Two main areas are studied (i) the statics and dynamics of materials and components with pronounced internal heterogeneity, (ii) the constitutive modelling of granular materials. Features at a nano- or micro-scale (e.g. fibres, thin layers, fractures, grains, holes, and contact) are modelled with a view to elucidating and enhancing the macroscopic linear, non-linear and fracture behaviour.

The Materials and Chemical Engineering Research Group has an international profile in many aspects of activity in the area of functional materials (preparation, characterisation and application) and includes research in the areas of: cementitious materials, biomaterials, magnetic/electronic materials and materials for catalysis and photocatalysis.