About the workshop
We are at a pivotal moment in cell biology. Massive single-cell and spatial omics datasets, analyzed with increasingly powerful AI methods, provide data-driven, unbiased definitions of cell phenotypes at unprecedented scale. To date, relating these cell phenotypes to the vast store of prior knowledge about cell structure, function and dysfunction in health and disease has required painstaking manual effort.
Advances in agentic AI are beginning to change this — dissolving the boundaries between literature, curated knowledge and data. Deep research tools can query and interpret the literature at scale, extracting information about cell types and their phenotypes to generate and extend ontologies and knowledge bases. They can gather and assess evidence to map omics-based definitions of cell types to classical types, find relevant datasets, and run bioinformatic analyses to support or refute proposed mappings. Importantly, they can do this at scales no human team can match.
This work can feed back into the construction and use of machine learning models. Structured knowledge in ontologies and knowledge bases provides a scaffold for interpreting the outputs of ML models and a training corpus for building more sophisticated, more interpretable models with richer predictive capacity.
Agentic AI is also transforming the way that humans interact with knowledge bases and ontologies — supporting queries with natural language, making this accumulated knowledge accessible and actionable in ways that were previously impossible.
This workshop brings together researchers from the communities who need to collaborate to realize this vision: biologists and bioinformaticians working with single-cell and spatial omics data; computational biologists and machine learning researchers developing foundation models and interpretability tools; ontology and knowledge base developers; literature mining and NLP researchers; and agentic AI researchers and practitioners.
Program draft agenda — timings may change
| Time | Session |
|---|---|
| 09:00 | Welcome & scene-setting — David Osumi-Sutherland & Richard Scheuermann |
| 09:15 | David Osumi-Sutherland — Agentic Workflows for Cell Ontology Curation: Evidence at Scale |
| 09:45 | Hanchen Wang — Recipes for Building Agents for Biomedical Discovery |
| 10:15 | Harry Caufield — Interchangeable Parts: Agentic AI for Data Modeling, Curation, and Validation |
| 10:45 | Coffee break |
| 11:15 | W. Jim Zheng — From Ontology Fingerprints to BRAINCELL-AID: Literature-Driven Genome and Cell Annotation |
| 11:45 | Tom Gillespie — The Neuron Phenotype Ontology in the Peripheral Nervous System |
| 12:15 | Lunch |
| 13:30 | Richard Scheuermann — NLM Cell Ontology Knowledge Graph |
| 14:00 | Sourav Sarkar — Pan-human Azimuth for organism-scale annotation (virtual) |
| 14:30 | Coffee break |
| 14:50 | Panel discussion — reconciling data-driven vs curated types · humans in the loop · rigor at scale |
| 15:50 | Closing remarks |
Panel discussion Key questions
- What role does curated, structured knowledge about cell types have as input to ML models, and in making ML models more interpretable and useful?
- How do we reconcile data/ML-driven cell type clusters with curated classical cell types?
- Keeping humans in the loop: how can we use agentic workflows to construct cell type knowledge bases and ontologies that support rapid human review of assertions, evidence, supporting literature and data?
- Can agentic AI scale cell ontology and knowledge-graph curation without sacrificing rigor?
- How can ontologies and knowledge graphs improve the performance of LLM-based natural language processing and knowledge extraction?
This is a draft agenda and timings may change. Each talk is 30 minutes including questions.
Confirmed speakers
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David Osumi-Sutherland — Wellcome Sanger Institute
#### Agentic Workflows for Cell Ontology Curation: Evidence at Scale
Cell Ontology as a use case — grounding cell-type knowledge for interpretable ML and agentic workflows.
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Hanchen Wang — Stanford University & Genentech (Leskovec & Regev labs)
#### Recipes for Building Agents for Biomedical Discovery
This talk will share our experience building AI agents for biomedical discovery, focusing on integrating language models with biological knowledge and domain-specific tools to support research workflows. I will discuss what worked, what failed, what we learned about reliability, evaluation, and human-agent collaboration, and where the field may be heading in the near future.
Bio. Hanchen Wang is a postdoc at Stanford University and Genentech, working with Jure Leskovec and Aviv Regev. His research develops computational methods to understand biological systems and advance discovery. His leading work has appeared in Nature, Science, Nature Biotechnology, and NeurIPS. He received his CS Ph.D. from Cambridge, UK, working with Joan Lasenby at Trinity College, and his Physics B.S. from Nanjing.
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Harry Caufield — Berkeley Lab (Mungall group)
#### Dismech: agentic literature-to-knowledge-graph curation at scale (provisional)
Agentic workflows for literature curation; OntoGPT / OpenScientist — extracting structured knowledge to build and extend ontologies.
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W. Jim Zheng — McWilliams School of Biomedical Informatics, University of Texas Health Science Center at Houston
#### From Ontology Fingerprints to BRAINCELL-AID: Literature-Driven Genome and Cell Annotation
Biomedical literature contains a vast and rapidly expanding body of knowledge, making it both a valuable resource and a challenge to systematically extract information relevant to gene function and cellular identity. Our early works introduced Ontology Fingerprints, a framework that represents genes as interpretable embeddings derived from Gene Ontology terms enriched in literature. This approach captures gene functions through statistical associations while preserving interpretability, enabling applications such as gene prioritization and pathway discovery through a self-attention-like mechanism. Building on this foundation, we extend literature-driven annotation to the cellular level using modern deep learning and large language models. We developed BRAINCELL-AID, an agentic AI framework that integrates fine-tuned LLMs, literature mining, and retrieval-augmented generation to annotate brain cell marker gene sets and cell types at scale. BRAINCELL-AID provides literature-grounded annotations for more than 20,000 gene sets and over 5,300 brain cell types, demonstrating strong cross-species performance and enabling biologically meaningful hypothesis generation. Together, this work establishes a continuum from knowledge-based embeddings to agentic AI systems, highlighting the role of literature-integrated representations in advancing gene function characterization, pathway discovery, and large-scale brain cell annotation.
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Tom Gillespie — UC San Diego (Martone group)
#### The Neuron Phenotype Ontology in the Peripheral Nervous System
SPARC peripheral nervous system atlas resources and the Neuron Phenotype Ontology — structured representation of neuron phenotypes.
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Richard Scheuermann — National Library of Medicine, NIH
#### NLM Cell Ontology Knowledge Graph
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Sourav Sarkar — New York Genome Center (Satija Lab)
#### Pan Human Azimuth
BIO. Sourav is a physicist turned Machine Learning and genomics researcher, working as a post-doc in the Satija Lab at the New York Genome Center. He did his PhD in Theoretical High Energy Physics from Humboldt University in Berlin. His current research interests are in Quantitative and Systems biology and applications of Machine Learning, in particular to single-cell and spatial genomics.
Organisers
- David Osumi-Sutherland Wellcome Sanger Institute
- Richard Scheuermann National Library of Medicine, NIH
Part of ICBO 2026 — Semantic Awareness in the Age of Generative AI — co-located with ISMB 2026 at the Washington Hilton, Washington DC.