The laboratory's research themes, from control theory to artificial vision.
Neural networks, fuzzy inference, evolutionary optimization and learning-based classification applied to control and energy problems.
Manipulators, mobile robots, quadrotors and autonomous vehicles, with a focus on trajectory tracking and cooperative control.
Observer design, fault detection and isolation, and fault-tolerant control for keeping industrial and energy systems dependable.
Sliding mode, backstepping, adaptive and Lyapunov-based design for systems that are uncertain, constrained or strongly nonlinear.
Distribution networks, microgrids, optimal power flow and voltage stability for medium-voltage and smart grid infrastructure.
Modelling, stability analysis and control of fractional-order dynamics — a sustained line of work for the lab.
Photovoltaic and wind conversion chains, maximum power point tracking, and the integration of renewable sources into the grid.
Segmentation, recognition and artificial vision, including applications to inspection and to medical imaging.
Induction and synchronous machine drives, converters and inverters, and the control strategies that run them efficiently.
Energy optimization, storage and demand-side management — the "energy management" half of the laboratory's remit.