Article-Journal

A pan-cancer immunogenomic atlas for immune checkpoint blockade immunotherapy
A pan-cancer immunogenomic atlas for immune checkpoint blockade immunotherapy

A pan-cancer immunogenomic atlas for immune checkpoint blockade immunotherapy

Dec 15, 2021

scMRMA: single cell multiresolution marker-based annotation
scMRMA: single cell multiresolution marker-based annotation

cell identities prediction for single-cell data

Oct 15, 2021

scRNABatchQC: multi-samples quality control for single cell RNA-seq data
scRNABatchQC: multi-samples quality control for single cell RNA-seq data

batch quality control for single-cell transcriptome

Aug 3, 2019

Quantitative assessment of cell population diversity in single-cell landscapes
Quantitative assessment of cell population diversity in single-cell landscapes

Abstract Single-cell RNA sequencing (scRNA-seq) has become a powerful tool for the systematic investigation of cellular diversity. As a number of computational tools have been developed to identify and visualize cell populations within a single scRNA-seq dataset, there is a need for methods to quantitatively and statistically define proportional shifts in cell population structures across datasets, such as expansion or shrinkage or emergence or disappearance of cell populations. Here we present sc-UniFrac, a framework to statistically quantify compositional diversity in cell populations between single-cell transcriptome landscapes. sc-UniFrac enables sensitive and robust quantification in simulated and experimental datasets in terms of both population identity and quantity. We have demonstrated the utility of sc-UniFrac in multiple applications, including assessment of biological and technical replicates, classification of tissue phenotypes and regional specification, identification and definition of altered cell infiltrates in tumorigenesis, and benchmarking batch-correction tools. sc-UniFrac provides a framework for quantifying diversity or alterations in cell populations across conditions and has broad utility for gaining insight into tissue-level perturbations at the single-cell resolution.

Oct 23, 2018

HACER: an atlas of human active enhancers to interpret regulatory variants
HACER: an atlas of human active enhancers to interpret regulatory variants

human enhancer database to interpret regulatory variants

Sep 25, 2018