current research
My main research is in the area of interactive evolutionary computation which was the focus of my PhD - An Interactive Evolutionary Approach for Configuring Machine Vision Systems
An increasingly frequent application of machine vision technologies is in automated surface inspection for the detection of defects in manufactured products. Such systems offer significant benefits in terms of cost, detection rates, and user-satisfaction over conventional human inspection systems. However they usually require significant investment of expert time to set up, are “brittle” in the sense of being highly specialised to the task for which they are tuned, and consequently are sensitive to changes in operating conditions or product specifications. This raises problems within an industrial setting, where operating conditions or requirements may change, and the end-users are experts in the manufacturing field, but not in image processing.
My PhD was aimed at the development of a methodology for rapidly reconfigurable systems. In these systems, the users’ tacit knowledge and requirements are elicited via a process of Interactive Evolution, tuning the image processing parameters to achieve the required goals without any need for specialised knowledge of the machine vision system.
My focus now is on enhancing user experience and ease of interaction which are vital to ensure the applicability of these algorithms in real-world scenarios.
My research has also included the application of adaptive non-linear learning algorithms to a range of medically related problems.