Aug 2026· BioData Mining· Vol 19· 0 citations· 33 references
Medicine
TL;DR
CELLIA employs an integrative evidence-knowledge marker selection strategy that combines statistical differential expression criteria with curated tissue-specific marker resources to identify informative marker genes and improves the reliability of LLM-cell type annotation.
Abstract
Cell type annotation is essential for gaining biological insight from single-cell RNA sequencing data, yet manual labeling remains time-consuming and difficult to reproduce. Various computational approaches have been developed to automate this process, and recent studies suggest that large language models can infer cell types with promising accuracy in single-cell analysis. However, most workflows still rely on cluster-specific markers derived from gene expression alone or manual curation. As a result, marker selection can be sensitive to statistical criteria and dataset-dependent bias, which may lead to the selection of less informative genes or missing important markers, while providing limited biological context. To address this limitation, we introduce CELLIA, an LLM-based workflow for automated and robust cell type annotation. CELLIA employs an integrative evidence-knowledge marker selection strategy that combines statistical differential expression criteria with curated tissue-specific marker resources to identify informative marker genes. In benchmarking analyses of 102 cell types, this approach improved agreement with manual annotations. In addition, CELLIA achieved higher agreement in subtype-level analyses of closely related immune populations and was further evaluated in a non-immune stromal subtype setting, covering 25 cell types in total. By integrating evidence-knowledge from gene expression with curated biological prior knowledge, CELLIA provides a more stable marker selection and improves the reliability of LLM-cell type annotation.
CARA is introduced, a cross-omics Bayesian framework that transfers cell type knowledge from scRNA-seq to scATAC-seq and detects novel cell types in single-cell DNA methylation data, demonstrating seamless extensibility to new modalities.
Lan Cao, Wenhao Zhang, Feng Zhou et al.· Genome Research· 0 citations
The integrated Plant single-cell Database (iPscDB), an integrated and multifunctional platform that facilitates the integration and analysis of plant single-cell data, is presented, offering a practical and accessible resource for researchers with diverse technical backgrounds.
Peng Lu, Jing-Jing Jin, Jie-Meng Tao et al.· Nucleic Acids Research· 0 citations
Abstract Accurate cell annotation is a primary challenge in spatial transcriptomics (ST). Current approaches primarily rely on label transfer from single-cell RNA sequencing (scRNA-seq) reference or marker-based clustering. While these methods are widely used, they have critical limitations. Label transfer approaches d...
Hong-Hao Bi, Wenjie Cai, Pan Wang et al.· Nucleic Acids Research· 0 citations
Accurate identification of cell types and states is essential for reliable single-cell RNA-sequencing analyses, yet current methods remain sensitive to continuous biological states, data preprocessing choices, and reference selection. Here we present ClustoCell, a reference-free method that resolves cell identity using...
Abbas Salavaty, M. Foroutan, N. Pretel et al.· bioRxiv· 0 citations
A comprehensive, context-specific guide to current annotation strategies for spatial transcriptomics is presented and open-set recognition of reference-absent cell states, adaptive incorporation of spatial context, and improved resolution of rare and transitional cell identities are identified as central priorities for...
Yu-Ling Zhu, Yunfei Hu, M. Xie et al.· Research Square· 0 citations
Motivation Single-cell RNA sequencing (scRNA-seq) cluster annotation is a critical step in data analysis. Current methods are time-consuming, difficult to reproduce, or limited in tissue or species coverage. Results We developed celltypeEnrich, a cluster-level annotation tool that uses a hypergeometric test to identify...
Samuel D. Rutledge, G. Tuteja· bioRxiv· 0 citations
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