Nature Communications · 2022 · 80 citations · 61 references
Life SciencesBioinformaticsCell BiologyComputational BiologyGene ExpressionTranscriptomicsCell Type AnnotationCell-type-specific TranscriptomicsSingle-cell Rna Sequencing AnalysisSingle-cell TranscriptomicsSpatial Gene ExpressionSpatial TranscriptomicsSingle-cell Resolution Spatial ProfilingSingle-cell Rna SequencingSingle-cell Spatial ProfilingSpatial ContextSpatial Context AnalysisSpatial Gene Expression AnalysisSpatial Information ExtractionSpatially Resolved Transcriptomics
Spatially resolved transcriptomics provides the opportunity to investigate the gene expression profiles and the spatial context of cells in naive state, but at low transcript detection sensitivity or with limited gene throughput. Comprehensive annotating of cell types in spatially resolved transcriptomics to understand biological processes at the single cell level remains challenging. Here we propose Spatial-ID, a supervision-based cell typing method, that combines the existing knowledge of reference single-cell RNA-seq data and the spatial information of spatially resolved transcriptomics data. We present a series of benchmarking analyses on publicly available spatially resolved transcriptomics datasets, that demonstrate the superiority of Spatial-ID compared with state-of-the-art methods. Besides, we apply Spatial-ID on a self-collected mouse brain hemisphere dataset measured by Stereo-seq, that shows the scalability of Spatial-ID to three-dimensional large field tissues with subcellular spatial resolution.
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