Project description:Our team utilized single-cell RNA sequencing and spatial multi-omics to explore the spatial landscape of kidney in mice with hyperuricemia at single-cell level
Project description:Single cell sequencing technologies are powerful tools for the dissection of large regulatory networks and their role in directing developmental trajectories. The goal of this project is to profile the transcriptional landscape of germ cell development in the mouse male embryo at single cell resolution, and to examine the dynamic regulation of the molecular networks directing epigenetic reprogramming in these cells.
Project description:Our team utilized single-cell RNA sequencing and spatial multi-omics to explore the spatial landscape of kidney in mice with hyperuricemia at single-cell level
Project description:The assay for transposase-accessible chromatin using sequencing (ATAC-seq) at single-cell level can provide different perspectives of regulatory patterns based on cell type-specific accessible regions. While human genomic elements have been well studied, understanding how nuclear acid sequence regulates the expression of target genes in a genome-wide level in other organisms remains a major challenge. Batch effects, expensive machines are still constraints nowadays to build a cross-species landscape for further analysis, a platform with high throughput and low cost will be extremely required.Here, we constructed a cross-species accessible chromatin landscape by combinatorial-hybridization-based single-cell ATAC-seq, a single-cell ATAC-seq platform with high throughput and signal-noise ratio using fresh nuclei as input.
Project description:The assay for transposase-accessible chromatin using sequencing (ATAC-seq) at single-cell level can provide different perspectives of regulatory patterns based on cell type-specific accessible regions. While human genomic elements have been well studied, understanding how nuclear acid sequence regulates the expression of target genes in a genome-wide level in other organisms remains a major challenge. Batch effects, expensive machines are still constraints nowadays to build a cross-species landscape for further analysis, a platform with high throughput and low cost will be extremely required.Here, we constructed a cross-species accessible chromatin landscape by combinatorial-hybridization-based single-cell ATAC-seq, a single-cell ATAC-seq platform with high throughput and signal-noise ratio using fresh nuclei as input.