Daniel Racoceanu

AI for Computational & Integrative Pathology
Biomedical Imaging · Spatial Omics · Trustworthy AI

Professor at Sorbonne University and Principal Investigator at the Paris Brain Institute, developing artificial intelligence methods that bridge histopathology, spatial omics, biomedical imaging and clinical interpretation for next-generation precision medicine.

Portrait of Daniel Racoceanu

My research focuses on the development of trustworthy and clinically meaningful AI systems for biomedical imaging, computational pathology and multimodal medicine. The central goal is to connect tissue morphology with molecular, spatial and clinical information in order to better understand disease mechanisms and support precision medicine.

AI → Medicine

Interdisciplinary Research

22

PhD Students Supervised

MICCAI

Board Member & General Chair

20+

Years of AI Research

Recent Highlights

Spatial Transcriptomics

New work linking tissue morphology and gene expression at MICCAI 2026 (COMPAYL workshop), MIDL 2026 and ECDP 2026.

Virtual Staining

Generative model producing eight IHC markers from a single H&E slide, published in PLOS Computational Biology (2025), with two international patent applications.

AI in Neuro-Ophthalmology

Best Scientific Platform Presentation Prize at EUNOS 2026, following work on early retinal artery occlusion detection in JAHA (2025).

Invited Talks

SIPAIM 2026 keynote in Lima, AAAI-26 SPARTA workshop, CVPR 2025 Computer Vision for Drug Discovery workshop and JOBIM 2025.

Research Vision

From Microscopy to Molecular Insight

Histopathology is being transformed by digital pathology, whole-slide imaging, spatial omics and modern artificial intelligence. My research develops computational methods that make tissue data more measurable, interpretable and clinically actionable.

We study how to analyze and model complex biomedical images across scales, from microscopy to tissue architecture, and how to bridge morphology with molecular information such as spatial transcriptomics and spatial proteomics. A central goal is to build robust, explainable and human-centered AI systems that can assist clinicians and biomedical researchers while remaining scientifically grounded and ethically responsible.

Computational Pathology Spatial Transcriptomics Virtual Staining Multimodal Learning Explainable AI

Core Research Areas

Computational Pathology

AI methods for detection, segmentation, quantification and interpretation in whole-slide images.

Omics Imaging

Integration of histology with spatial transcriptomics, spatial proteomics and multimodal tissue data.

Virtual Staining

Computational generation of molecular and immunohistochemical contrasts from standard H&E images.

Trustworthy AI

Human-centered models with interpretability, uncertainty estimation and responsible decision support.

Whole-slide imaging and computational pathology logo