Associate Professor and researcher in machine learning and bioinformatics, working at the intersection of data science, systems biology, and explainable AI.
I collaborate with research institutions, biotech organizations, and data-driven teams to design and apply machine learning models for complex scientific and biological systems. My work focuses on transforming data into interpretable models and actionable insights.
Award-winning researcher with distinctions from INSA Lyon and Best Paper awards at leading international conferences (GECCO, SAC).
Modeling complex biological systems and gene regulatory networks.
Applied machine learning and explainable AI for scientific data analysis.
Data-driven approaches for extracting insights from high-dimensional datasets.
Full academic profile available (Download CV)
Structured learning materials in mathematics, computer science, and data-driven modeling.
Foundations of statistical learning, signal analysis, and optimization methods for modeling and extracting information from complex datasets.
Access materialsVectors, matrices, eigenvalues, and applications in data science and AI.
Access materialsComputational methods for analyzing biological data, including genomes and gene networks.
Access materialsSoftware engineering principles, version control, and deployment pipelines.
Access materialsApplied Python for data analysis, machine learning, and computational modeling in complex systems and biological networks.
Explore courseEssential skills for scientific research, including critical thinking, academic writing, and effective communication of technical and scientific work.
Explore courseUpcoming events and access to recorded sessions covering key topics and applied insights.
I offer academic and industry-oriented training programs in AI, data science, and computational biology, tailored to students, research teams, and organizations.
Request training informationMy research focuses on the intersection of machine learning, explainable AI, and computational biology, with applications ranging from gene regulatory network inference to complex biological system modeling.
I develop data-driven and interpretable machine learning methods to extract meaningful structure from high-dimensional biological and ecological systems, combining statistical learning, network science, and evolutionary computation.
More recently, my work has expanded into explainable AI for complex models and cross-domain applications of machine learning in biological and environmental systems.
30+ peer-reviewed publications in machine learning, bioinformatics, and computational biology · 350+ citations · International collaborations · AI applied to biological systems
Cell · 2025
High-impact study on metabolic exchange mechanisms in insect–bacteria symbiosis.
View paperMachine Learning · 2025
Explainable AI methods for interpreting ensemble models using structured feature importance analysis.
View paperIndustrial Crops and Products · 2023
Data-driven analysis of biological activity in complex natural systems for identifying effective plant-based pest control agents.
View paperGenes · 2023
Computational framework for inferring gene regulatory networks using data-driven machine learning
View paperInternational Journal on Artificial Intelligence Tools · 2023
Application of ensemble machine learning techniques to reconstruct gene regulatory networks from high-dimensional biological data
View paperInternational Journal of Molecular Sciences · 2022
SVM approach to enable early detection of plant diseases from hyperspectral imagery.
View paperInternational Journal on Artificial Intelligence Tools · 2021
Machine learning-based framework using classification models to infer gene interactions in complex biological systems.
View paperPNAS · 2020
Evolutionary analysis of apoptotic gene families revealing diversification patterns and functional innovation in insect genomes.
View paperGenetic and Evolutionary Computation Conference · 2015
Evolutionary computation approach for subspace clustering based on genome-inspired representations of solution spaces.
View paperA collection of research software and computational tools for machine learning, bioinformatics, and complex systems modeling. These projects bridge theoretical developments with practical implementations used in scientific and applied contexts.
Bio-inspired clustering algorithm based on evolvable genome structures, featuring variable-length representations, functional and non-functional elements, and mutation operators including chromosomal rearrangements.
Download packageSubspace clustering algorithm extending the K-medians paradigm, based on stochastic local exploration and efficient optimization in high-dimensional data spaces.
Download (JAR)Framework for learning generalizable gene regulatory representations using self-expressive network models for biological data analysis.
View repositoryData-driven framework for gene regulatory network inference from gene expression data, integrating machine learning and statistical modeling approaches.
View repositoryGene set analysis tool for single-cell RNA-seq data using Random Forest models and SHAP-based explainability techniques.
View repositoryComputational framework for studying gene regulatory programs associated with Alzheimer's disease using data-driven and explainable AI approaches.
View repositoryPractical books on data science, machine learning, and computational methods designed for students, researchers, and professionals.
A practical and applied guide to machine learning and hyperspectral imaging, focused on real-world agricultural systems, from data acquisition to predictive modeling.
Book in preparation (forthcoming on Amazon)
Coming soon (Pre-release access available upon request)I collaborate with research groups, companies, and institutions to apply machine learning and computational modeling to complex biological and data-driven problems.
Design and implementation of interpretable models for biological data.
Advanced analysis of complex datasets and system modeling.
Custom sessions for teams and organizations.