bioRxivBioinformaticsPreprint
SpatialAgent: An Autonomous AI Agent for Spatial Biology
Hanchen WangiD, Yichun HeiD, Paula Pinto CoelhoiD, Matthew Bucci, Abbas NaziriD, Bob CheniD, Linh T. TrinhiD, Serena ZhangiD, Ziyu LuiD, Kexin HuangiD, Vineethkrishna ChandrasekariD, Douglas C. Chung, Minsheng HaoiD, Ana Carolina LeoteiD, Yong‐Ju LeeiD, Tianyu LiuiD, Tianyu Liu, Jin Liu, Romain LopeziD, Tawaun A. LucasiD, Nikita Makarov, Nikita Makarov, Lisa M. McGinnisiD, Linna PengiD, Stephen RaiD, , Aviv RegeviD
Abstract summary
Claude Opus 5.5 · xhigh effort · 2 Nov 2026 · from the abstract · CC BY-NC 4.0
SpatialAgent integrates large language models with dynamic tool retrieval, multimodal interpretation, and claim verification to automate end-to-end spatial biology workflows from gene-panel design to tissue annotation and hypothesis generation.
Spatial biology workflows for deciphering tissue molecular organization remain labor-intensive. SpatialAgent addresses this by combining large language models, a Plan-Act-Conclude design, on-demand tool and skill retrieval, multimodal analysis, and claim-verification modules across tasks from panel design to hypothesis generation.
Key results
ShownIn a prospective mouse prostate cancer Xenium experiment, SpatialAgent designed an add-on gene panel that improved cell-type and malignant-state prediction and resolved spatial tumor and microenvironment programs.
Designed a 100-gene add-on panel used to profile 4.2 million cells across 21 mouse prostate cancer samples. · Abstract
ShownAcross diverse human and mouse tissue datasets, SpatialAgent outperformed computational baselines, matched or exceeded human experts on core spatial analysis tasks, and recovered known tissue organization in open-ended studies.
Evaluated on human and mouse brain, heart, tonsil, colon, and prostate datasets; specific numerical performance metrics are not provided in the abstract. · Abstract
Methods, data and reproducibility
Built an autonomous spatial biology agent (SpatialAgent) that uses large language models within a Plan-Act-Conclude loop alongside on-demand tool retrieval, multimodal data interpretation, and claim-auditing modules.
- Human and mouse brain, heart, tonsil, colon, and prostate spatial datasets · human, mouse
- Prospective mouse prostate cancer Xenium study with a 100-gene add-on panel · mouse · n = 4.2 million cells across 21 samples
- Methods & tools
- SpatialAgent, Xenium
Limitations (1)
- Quantitative benchmark scores comparing SpatialAgent against computational baselines and expert scientists are not reported in the abstract. · noted in this summary
Read this if you analyze spatial transcriptomics datasets, design targeted panels such as Xenium add-on sets, or build LLM-based agents for biological data analysis.
- Citations
- 50
Abstract
Advances in AI are transforming scientific discovery, yet spatial biology, a field that deciphers the molecular organization within tissues, remains constrained by labor-intensive workflows. Here, we present SpatialAgent, an autonomous AI agent for spatial biology research. SpatialAgent couples large language models with a Plan-Act-Conclude architecture, dynamic tool and skill retrieval, multimodal interpretation, and verification modules that audit generated claims. It supports the full discovery loop, from gene-panel design and multimodal annotation to trajectory inference, cell-cell communication analysis, imputation, and hypothesis generation. Across human and mouse brain, heart, tonsil, colon, and prostate datasets, SpatialAgent outperformed established computational baselines and matched or surpassed expert scientists in key tasks. In open-ended case studies, it recovered known tissue organization and generated spatially grounded hypotheses. In a prospective mouse prostate cancer Xenium study, it designed a compact 100-gene add-on panel that profiled 4.2 million cells across 21 samples, improved cell-type and malignant-state prediction, and captured spatially structured tumor and microenvironment programs. SpatialAgent establishes a framework for autonomous and collaborative discovery in spatial biology.
- organism: human
- organism: mouse
- assay: spatial transcriptomics
- research focus: trajectory inference
- research focus: cell-cell communication
- research focus: imputation
- research focus: gene regulatory network inference
- approach: deep learning
- approach: large language model
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