Neural Dynamics| Behaviour | Computational modelling
My research focuses on understanding how adaptive behaviour emerges from neural dynamics. My work combines neural recordings, behavioural analysis and computational methods to understand how internal states and environmental context shape goal-directed actions. With a background spanning neurophysiology, neuroethology, and modelling, my approach involves extracting structure from complex neural and behavioural data to uncover the mechanisms underlying flexible action control. I am particularly interested in how neural dynamics support adaptive actions in social and interactive contexts.Research
Combining neural recordings during behaviour & computational modelling to understand how neural dynamics shape adaptive behaviour.
Neural circuits & dynamics
I use large-scale neural recordings to study how neural circuit dynamics evolve during behaviour. My work has focussed on identifying neural coding principles underlying learning and plasticity, addressing this at different scales from single neurons to large neuronal population activity. This includes applying signal processing and dynamical systems approaches to understand how internal states and task context shape ongoing neural activity.Behaviour & goal-directed actions
My work is motivated by understanding how behaviour adapts to changing environmental demands and internal needs. I study both naturalistic and task-based behaviours to investigate how goal-directed actions are shaped by different contexts. My experience across songbird and rodent systems informs a broader interest in how behavioural structure emerges and how it can be experimentally probed.Computational modelling & theory
My work includes computational modelling to study how neural systems encode behaviourally relevant features. My earlier work focused on how single neurons develop feature selectivity, showing how interactions between intrinsic cellular mechanisms give rise to efficient coding of synaptic inputs. This led to a mathematical framework for capturing neuronal biophysics through a tractable closed-form transfer function, enabling its integration into larger network models. Building on this, I am increasingly interested in using dynamical systems approaches to understand how distributed neural circuits shape behaviour.