Research Area: Neuroinformatics
Our research is focused on understanding how information processing and cognitive phenomena can arise from the collective self-organization of elements interacting across many spatial and temporal scales. In particular, we study (1) synchronization of neuronal activity in delay-coupled systems, (2) information processing in self-organized complex systems in different dynamical states, i.e. self-organized criticality, and (3) the use of time series analysis for understanding how information flow can take place between neural activity occurring at different spatial and temporal scales. The long term goal of our research is to identify principles that shape neuronal activity and are used to process information in a multi-scale system such as the brain.
We firmly believe that understanding the principles of neuronal information processing requires the combination of theoretical, computational and experimental approaches. Therefore our research is multidisciplinary and is composed of two tracks. The first track develops and uses analytical and computational models to identify and understand principles. The second track is data-driven and aims to characterize neuronal activity and collective behavior based upon the experimental work of our group and also upon that of international collaborators.
Examples of our research projects:
- Reservoir computing for quadcopter flight
- Reservoir computing with delay-coupled systems
- Virtual reality and mobile EEG
You can find demos of these projects here.