The intersection of machine learning and neuroscience is one of the most exciting frontiers in AI research. My work in this area involves developing and applying machine learning methods to understand brain function, decode brain states, and design neurofeedback systems. This research is conducted primarily in collaboration with the Basque Center on Cognition, Brain and Language (BCBL).

Brain Decoding

Domain Adaptation for Brain Decoding

Development of domain adaptation methods to enable brain decoding across different imaging paradigms. Our work on domain adaptation-enhanced searchlight analysis allows classification of brain states to transfer from visual perception paradigms to mental imagery paradigms.

This research addresses a fundamental challenge in neuroscience: brain decoding models trained on data from one experimental paradigm (e.g., visual perception) often fail to generalize to related but different paradigms (e.g., mental imagery). Domain adaptation provides a principled solution.

Decoded Neurofeedback (DecNef)

DecNefLab: A Simulation Framework for Decoded Neurofeedback
Development of DecNefLab, a modular and interpretable simulation framework for decoded neurofeedback research. The framework enables researchers to simulate DecNef experiments, evaluate different decoder designs, and study the impact of various parameters on neurofeedback efficacy before running costly real experiments.
What is Decoded Neurofeedback?
Decoded neurofeedback (DecNef) is a technique that uses real-time brain decoding to provide individuals with feedback about their own neural patterns, enabling targeted modification of brain representations without explicit instructions. It has potential applications in neuroscience research, neurorehabilitation, and mental health treatment.

Unconscious Visual Processing

Investigation of Unconscious Visual Information Processing

Investigation of the properties of unconscious visual information processing in the human brain. Research addresses fundamental questions about what visual information can be processed unconsciously and how it influences subsequent conscious perception and behavior.

This work is part of the PhD research of Ning Mei at BCBL, co-supervised with David Soto.

Neuronal Morphometry

Computational Tools for Neuronal Morphometric Analysis
Systematic search and review of computational tools for analyzing the morphological properties of neurons. This review covers methods for quantifying neuronal structure from microscopy images, including branching patterns, soma size, and dendritic arborization.
Neural Networks for Phase Transitions
Application of neural networks to identify phase transitions in physical systems (e.g., the Ising model). Research on the capabilities of different neural architectures for detecting phase transitions from simulated data, with connections to statistical physics and computational neuroscience.

Brain-Computer Interfaces

MEG/EEG Analysis with Machine Learning
Early work (2010–2015) on applying machine learning to the analysis of MEG and EEG brain signals. Development of classification methods for brain-computer interface (BCI) applications, including the decoding of motor imagery and cognitive states from electrophysiological recordings.
Collaborating Institutions
Neuroscience research is conducted in collaboration with:

Selected Publications