TB scRNA-seq Immunogenetic Analysis

Leading the first-ever single-cell RNA sequencing analysis of a TB case-control cohort using 10X Genomics. Profiling gene expression and cell surface protein markers in PBMCs to identify novel genetic variants and immune mechanisms driving TB progression.

Project Overview

This groundbreaking research represents the first comprehensive single-cell RNA sequencing analysis of tuberculosis patients and controls. Using cutting-edge 10X Genomics technology, we're profiling gene expression patterns in peripheral blood mononuclear cells (PBMCs) to uncover the molecular mechanisms underlying TB susceptibility.

Our multi-omic approach combines scRNA-seq data with genetic variant information, clinical phenotypes, and immune cell surface protein markers to build a comprehensive picture of TB immunogenetics in genetically diverse populations.

Technologies & Methods

Core Technologies

scRNA-seq10X GenomicsPythonRImmunogeneticsSingle Cell

Analysis Pipeline

  • • Cell quality control and filtering
  • • Dimensionality reduction (UMAP/t-SNE)
  • • Cell type identification and annotation
  • • Differential gene expression analysis
  • • Pathway enrichment and functional analysis
  • • Integration with genomic data

Research Visualizations

UMAP of PBMCs from TB case–control CITE-seq

UMAP of PBMCs from TB case–control CITE-seq

RNA marker gene expression across annotated immune populations

Protein expression validation on PBMC subsets

Additional Analysis 1
Additional Analysis 2
Additional Analysis 3

Research Impact & Future Directions

This research has the potential to revolutionize our understanding of tuberculosis immunogenetics. By identifying cell-type-specific gene expression patterns and genetic variants associated with TB susceptibility, we aim to develop more effective diagnostic tools and personalized treatment strategies.

The findings from this study will contribute to the broader field of precision medicine, particularly for infectious diseases affecting underrepresented populations. Our multi-omic approach provides a template for future research in complex disease genetics and immune system function.