An epigenome atlas of neural progenitors within the embryonic mouse forebrain.
Christopher T RhodesJoyce J ThompsonApratim MitraDhanya AsokumarDongjin R LeeDaniel J LeeYajun ZhangEva JasonRyan K DalePedro P RochaTimothy J PetrosPublished in: Nature communications (2022)
A comprehensive characterization of epigenomic organization in the embryonic mouse forebrain will enhance our understanding of neurodevelopment and provide insight into mechanisms of neurological disease. Here we collected single-cell chromatin accessibility profiles from four distinct neurogenic regions of the embryonic mouse forebrain using single nuclei ATAC-Seq (snATAC-Seq). We identified thousands of differentially accessible peaks, many restricted to distinct progenitor cell types or brain regions. We integrated snATAC-Seq and single cell transcriptome data to characterize changes of chromatin accessibility at enhancers and promoters with associated transcript abundance. Multi-modal integration of histone modifications (CUT&Tag and CUT&RUN), promoter-enhancer interactions (Capture-C) and high-order chromatin structure (Hi-C) extended these initial observations. This dataset reveals a diverse chromatin landscape with region-specific regulatory mechanisms and genomic interactions in distinct neurogenic regions of the embryonic mouse brain and represents an extensive public resource of a 'ground truth' epigenomic landscape at this critical stage of neurogenesis.
Keyphrases
- single cell
- rna seq
- transcription factor
- genome wide
- dna methylation
- gene expression
- dna damage
- high throughput
- spinal cord injury
- healthcare
- copy number
- cerebral ischemia
- resting state
- binding protein
- emergency department
- white matter
- deep learning
- multiple sclerosis
- electronic health record
- brain injury
- artificial intelligence
- drug induced