Machine Learning for Scientific Data
Scientific observations often provide only indirect evidence of the physical or functional properties we want to study. My work uses machine learning to make those latent properties accessible while keeping the method tied to the structure of each scientific problem.
The representation and evaluation therefore vary by domain: graph models and explainability for functional connectomes, perceptual and saliency-based evaluation for visual brain decoding, and deep neural models for supernova light curves. Applications include identifying discriminative brain sub-systems, evaluating fMRI-based visual reconstructions, and characterising the progenitors of astrophysical transients from simulated and observed data.
Selected publications
(2026).
Machine-enhanced reconstruction of functional connectomes unravels discriminative brain sub-systems in health and disease.
SciRep.
(2026).
Brain-Grasp: Graph-Based Saliency Priors for Improved FMRI-Based Visual Brain Decoding.
ICASSP 2026 - 2026 IEEE International Conference on Acoustics, Speech and Signal Processing (ICASSP).
(2025).
How Well is Human Attention Preserved in fMRI-Based Visual Brain Decoding?.
CHItaly 2025 - Proceedings of the 16th Biannual Conference of the Italian SIGCHI Chapter.
(2025).
Machine Learning Supernovae’s Progenitor Characterization.
2025 33rd Euromicro International Conference on Parallel, Distributed, and Network-Based Processing (PDP).
(2025).
Saliency Matters: From Nodes to Objects.
Graph-Based Representations in Pattern Recognition.
(2025).
What is Wrong with Visual Brain Decoding? A Saliency-based Investigation.
Proceedings of the International Joint Conference on Neural Networks.