Software
We develop open-source computational methods to understand biological heterogeneity in disease, using single-cell, spatial and multi-omics data. Everything we release is open source, documented and free to use.
Software
This software is part of the approved de.NBI service Spatial Transcriptomics Toolbox. Please help us improve by taking our short user survey.
Tools we lead
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SSAM
Segmentation-free cell-type mapping for imaging-based spatial transcriptomics. Park et al., Nature Communications (2021).
AGPL-3.0
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SSAM-lite
Lightweight SSAM implementation that runs in the browser (ssam-lite.netlify.app). Tiesmeyer et al., Frontiers in Genetics (2022).
MIT
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Sainsc
Segmentation-free spatial analysis at scale for sequencing- and imaging-based spatial transcriptomics. Müller-Bötticher et al., Small Methods (2025).
MIT
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SpatialLeiden
Spatially-aware clustering via multiplex modularity optimisation. Müller-Bötticher et al., Genome Biology (2025).
GPL-3.0
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multiSPAETI
Dimensionality reduction that maximises the product of variance and Moran's I. Müller-Bötticher et al., Genome Biology (2025).
MIT
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ovrl.py
Detection of cell overlap and vertical signal integrity in imaging-based SRT. Tiesmeyer et al., Nature Biotechnology (2026).
MIT
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clrmappy
Automatically colours high-dimensional data using dimensionality reduction.
MIT
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SACCELERATOR
Framework to run and compare spatial clustering tools. Sun et al., Nature Methods (2026).
MIT-0
Tools we contribute to
This software is part of the approved de.NBI service Spatial Transcriptomics Toolbox. Please help us improve by taking our short user survey.