#37 · Single-cell
Persistent homology and Grassmann geometry recover multiscale structure in omics data
The common thread is scale-dependent organization in high-dimensional biological data, addressed through topology and geometry rather than a single shared method. PHD-MS applies persistent homology to identify multiscale spatial domains in spatial transcriptomics and reports outperformance over clustering. The multiscale Grassmann manifold framework for single-cell RNA-seq combines embeddings across scales and reports stable clustering. The published comparison The topology of synergy contrasts topological data analysis with multivariate information theory for higher-order interactions, using toy shapes and human fMRI data; it is methodological rather than biological and is not an omics study. What is new is the use of persistent homology and Grassmann geometry to recover multiscale domains and cell-level structure in omics data, although the current evidence base is limited to two preprints and one methodological comparison.
Published papers
The topology of synergy: Linking topological and information-theoretic approaches to higher-order interactions in complex systems.
Compares topological data analysis and multivariate information theory for higher-order interactions, using toy shapes and human fMRI data.
Preprints
PHD-MS: Multiscale Domain Identification for Spatial Transcriptomics via Persistent Homology
PHD-MS uses persistent homology from topological data analysis to identify multiscale spatial domains in spatial transcriptomics, outperforming clustering on…
Multiscale Grassmann Manifolds for Single-Cell Data Analysis
Proposes a multiscale Grassmann manifold framework for single-cell RNA-seq analysis, combining embeddings across scales; reports stable clustering on nine…
Topic history
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| #37 | |
| #36 | |
| #30 | |
| #28 |