STExplorer: Navigating the Micro-Geography of Spatial Omics Data
Eleftherios ZormpasiD, Nikolaos I. VlachogiannisiD, Anastasia ResteuiD, Adrienne A. UnsworthiD, Simon Tual‐ChalotiD, Birthe DorgauiD, Rachel A. QueeniD, Majlinda LakoiD, DINA G. TINIAKOSiD, Alexis ComberiD, Quentin Mark AnsteeiD, Antonis GiakountisiD, Simon CockelliD
Abstract
Spatial transcriptomics (ST) has the potential to provide unprecedented insights into gene expression across tissue architecture, but existing analytical methods often overlook the full complexity of the spatial dimension. We present STExplorer, an R package that adapts well-established computational geography (CG) methods to explore the micro-geography of spatial omics data. By incorporating techniques like Geographically Weighted Principal Component Analysis (GWPCA), Fuzzy Geographically Weighted Clustering (FGWC), Geographically Weighted Regression (GWR), and analyses of observation Spatial Autocorrelation (SA), STExplorer enables the uncovering of spatially resolved patterns that capture the spatial heterogeneity of biological data. STExplorer provides a complete suite of functions for spatial analyses and visualisations, supporting deeper biological understanding and inference. Built on the Bioconductor ecosystem, the package integrates with SpatialFeatureExperiment objects, ensuring compatibility with existing pipelines. It includes preprocessing capabilities such as data import, quality control, gene count normalisation, and variable gene selection, alongside tools for downstream analysis and detailed visualisations that quantify and map spatial heterogeneity and relationships. We demonstrate the utility of STExplorer through applications to spatial transcriptomics datasets, revealing that spatially varying gene expression and relationships are often masked by standard analyses. By bridging bioinformatics and CG, STExplorer provides a novel and informed approach to spatial transcriptomics analysis, with robust tools to address spatial heterogeneity and its associated underlying biology, thereby advancing our understanding of complex tissue biology without reinventing the wheel.
02 /Specification & Classification
Click any tag to browse matching papers- Citations
- 1
- Assay
- Research Focus
- Approach
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Next generation statistical framework for next generation spatial transcriptomics data
Fatoumata Mangane, Pierre Bost·BMC MethodsPeer-reviewed·Mar 1, 2026
- spatialGE: A user-friendly web application to democratize spatial transcriptomics analysis
Oscar E. Ospina, Roberto Manjarres-Betancur, … Brooke L. Fridley·bioRxiv·Jun 27, 2024
- SpotGraphs: Graph-based analysis of spatially resolved transcriptional data in R
Alex J. Lee, David E. Sanin·bioRxiv·Mar 16, 2026
- SpaceExpress enables differential spatial transcriptomics with natural coordinate systems
Yeojin Kim, Abhishek Ojha, … Saurabh Sinha·bioRxiv·Dec 19, 2024
- Unraveling Spatial Gene Associations with SEAGAL: a Python Package for Spatial Transcriptomics Data Analysis and Visualization
Linhua Wang, Chaozhong Liu, Zhandong Liu·bioRxiv·Feb 13, 2023
- spatialGE: Quantification and visualization of the tumor microenvironment heterogeneity using spatial transcriptomics
Oscar E. Ospina, Christopher M. Wilson, … Brooke L. Fridley·BioinformaticsPeer-reviewed·Mar 7, 2022