Research

Computational models of behaviour, search, and information

The research programme combines data-driven modelling with interpretable dynamical descriptions. Its central focus is eye movement as a structured time series, with related work in stochastic search, evolutionary dynamics, and quantum computation.

01

Eye-tracking

Eye-tracking and gaze dynamics

This work analyses gaze position and velocity, fixations, saccades, pupil dynamics, and task-dependent changes in visual behaviour. Methods include threshold-based event detection, feature-based analysis, time-series representations, and applications to behavioural and clinical datasets.

Eye-tracking Gaze velocity Fixations and saccades Behavioural time series
Eye-tracking visualization showing gaze trajectories and event structure
Example eye-tracking representation used across gaze-dynamics studies.
02

Generative modelling

Synthetic behavioural trajectories

This programme develops and evaluates generative models for eye-gaze time series, including GAN-based and diffusion-based approaches. A recurring question is whether synthetic trajectories reproduce marginal distributions together with temporal, directional, and dynamical structure.

GANs Diffusion models Spectral loss Distributional evaluation
Generative-model visualization for structured time-series dynamics
Generative modelling is evaluated against statistical and dynamical properties of measured gaze.
03

Stochastic dynamics

Search, Lévy processes, and trajectory statistics

Related work studies intermittent search, Lévy-like motion, return intervals, jump-diffusion models, and evolutionary foraging. Mechanistic stochastic models are connected with empirical and simulated trajectories through statistical moments and distributional structure.

Intermittent search Lévy walks Foraging Jump diffusion
Evolutionary foraging agents moving through a depletable resource landscape
Evolutionary foraging in a finite, depletable stochastic landscape.
04

Quantum computation

Quantum and evolutionary computation

A second research line uses evolutionary algorithms to construct quantum circuits for Boolean operations, cellular automata, and highly entangled states. The emphasis is on circuit structure, robustness, compact representations, and the relation between evolutionary search and computational design.

Quantum circuits Evolutionary algorithms Entanglement Cellular automata
Quantum circuit and Bell-state entanglement visualization
Bell-state construction and entanglement evolution in a two-qubit circuit.

Projects and software

Selected computational work

Research code, simulation frameworks, and scientific software.

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Research output

Publications and preprints

The complete publication list is maintained from the BibTeX record used by this site.

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