Mathematical Optimization
Mathematical foundations of machine learning and imaging, with expertise in convex optimization, proximal algorithms, variational methods, inverse problems, and algorithmic optimization.
I develop machine learning and computational imaging methods for biomedical discovery, clinical decision support, and trusted AI in healthcare.
I am a Data Scientist at DEEMEA, where I design and validate AI-driven solutions for the structuring and analysis of medical data across multi-modal healthcare workflows. My work sits at the intersection of machine learning, medical imaging, and clinical data science where i turn complex biomedical data into interpretable, reliable, and actionable insights for research and patient care.
I am particularly interested in trustworthy AI systems that support collaborative, multi-centric clinical studies while ensuring privacy, robustness, and scientific rigor. My research and engineering work combine deep learning, optimization, and uncertainty-aware modeling to address real clinical needs.
Mathematical foundations of machine learning and imaging, with expertise in convex optimization, proximal algorithms, variational methods, inverse problems, and algorithmic optimization.
Machine learning and deep learning for medical image analysis, with a focus on robust representation learning, image reconstruction, quantitative imaging, and computer-assisted diagnosis.
AI-driven analysis of histopathology and whole-slide images, including tissue and tumor characterization, architectural pattern recognition, quantitative biomarkers, and clinical outcome prediction.
Design and development of machine learning and deep learning models for biomedical applications, including representation learning, few-shot learning, weak supervision, and generalization under limited annotations.
Integration of mathematical optimization and deep learning through algorithm unrolling, learned iterative schemes, and model-based architectures for interpretable and robust image processing.
Development of reliable AI methods for biomedical imaging, bridging mathematical modeling, computational imaging, and clinical challenges in diagnosis, prognosis, and quantitative pathology.
I completed my PhD, AI-Driven Methods in Histopathology for the Diagnosis and Prognosis of Hepatocellular Carcinoma, at CentraleSupélec, Université Paris-Saclay, in collaboration with the Center for Visual Computing Laboratory and Kremlin-Bicêtre Hospital. My work was supervised by Prof. Jean-Christophe Pesquet and Prof. Catherine Guettier, with additional supervision from Prof. Mounir Kaaniche and Prof. Amel Benazza-Benyahia.
Developed multi-scale, few-shot, and transductive deep learning frameworks to improve performance in histopathology under limited labels.
Integrated AI-derived pathology phenotypes with clinical variables to support interpretable risk stratification.
Explored convex optimization and algorithm unrolling to improve stain consistency and feature stability in histopathological images.
Working on AI-driven medical data structuring and clinical AI systems for healthcare research and translational studies.
Defended doctoral work on AI for computational pathology and hepatocellular carcinoma diagnosis/prognosis.
Thesis contribution
IEEE ISBI 2026
CVPR 2025
The American Journal of Pathology
IEEE ISBI 2024
IEEE ICIP 2024
1st place out of 256 teams in the DigiLut Data Challenge for Lung Transplant Rejection, organized by Hôpital Foch and Bpifrance. This work was carried out in collaboration with CentraleSupélec, Université Paris-Saclay, Inria, and OPIS.
I welcome opportunities in research collaboration, applied AI, and interdisciplinary work at the interface of healthcare, imaging, and data science.