Ballistic impact on textiles
Multi-resolution finite element models of woven and laminated composite structures, validated by ballistic testing.
Professor in the Applied Informatics Department. Numerical modelling, finite element methods, and research into wave propagation and the mechanics of textile materials.
The work covers ballistic impact on textile structures, heat and moisture exchange in multilayer packages, ultrasonic wave propagation, damping in MEMS resonators and problems in biomechanics. This site collects the publications, research projects, textbooks and taught modules.

Multi-resolution finite element models of woven and laminated composite structures, validated by ballistic testing.
Structural models of heat and water vapour exchange between multilayer textile packages and the human body.
Low-dispersion finite elements for short ultrasonic pulse propagation in solids and waveguides.
Thermo-elastic damping in MEMS resonators; dynamics and thermal error analysis of precision length measurement systems.
Radiofrequency ablation of liver tissue, computational models of human posture and of the masticatory system.
Model reduction, parameter identification and explicit integration algorithms for large-scale dynamic problems.