Microbiome single cell atlases generated with a commercial instrument.
Adam AbateXiangpeng LiLinfeng XuBenjamin DemareeCecilia NoeckerJordan BisanzDaniel WeisgerberCyrus ModaviPeter J TurnbaughPublished in: Research square (2023)
Single cell sequencing is useful for resolving complex systems into their composite cell types and computationally mining them for unique features that are masked in pooled sequencing. However, while commercial instruments have made single cell analysis widespread for mammalian cells, analogous tools for microbes are limited. Here, we present EASi-seq (Easily Accessible Single microbe sequencing). By adapting the single cell workflow of the commercial Mission Bio Tapestri instrument, this method allows for efficient sequencing of individual microbes' genomes. EASi-seq allows thousands of microbes to be sequenced per run and, as we show, can generate detailed atlases of human and environmental microbiomes. The ability to capture large shotgun genome datasets from thousands of single microbes provides new opportunities in discovering and analyzing species subpopulations. To facilitate this, we develop a companion bioinformatic pipeline that clusters microbes by similarity, improving whole genome assembly, strain identification, taxonomic classification, and gene annotation. In addition, we demonstrate integration of metagenomic contigs with the EASi-seq datasets to reduce capture bias and increase coverage. Overall, EASi-seq enables high quality single cell genomic data for microbiome samples using an accessible workflow that can be run on a commercially available platform.
Keyphrases
- single cell
- rna seq
- high throughput
- electronic health record
- endothelial cells
- machine learning
- genome wide
- copy number
- deep learning
- healthcare
- mesenchymal stem cells
- gene expression
- risk assessment
- transcription factor
- antibiotic resistance genes
- health insurance
- human health
- climate change
- artificial intelligence
- life cycle