Completed Genetics & Molecular Biology Bones, Joints & Muscles

Statistical ‘omics approaches to understanding autoimmune diseases

In plain English

AI plain-English summary

A DNA spelling mistake that raises the risk of juvenile arthritis or type 1 diabetes often leaves no clue about which gene or cell type it actually harms. Researchers have mapped hundreds of these risk variants across the genome, but the chain of cause and effect from a single letter change to a malfunctioning immune system remains mostly invisible. This project uses statistical methods to bridge that gap. By combining genetic data from ten different autoimmune diseases with maps of gene activity in specific cell types, the researcher aims to pinpoint which genes and which cells are the real drivers of disease. The same approach will then group risk variants into the biological pathways they disrupt, and test whether patients can be sorted into subgroups based on which pathways are most affected. If such subgroups exist, they open the door to stratified medicine—matching a patient to a drug based on the specific genetic pathway driving their disease, rather than treating all patients with the same diagnosis identically. This is fundamental science with a clear translational target: turning statistical signals into clinically actionable patient categories.

View original technical description
Genetic association studies have identified many positions on the human genome where a change in DNA sequence influences the risk of autoimmune diseases such as juvenile idiopathic arthritis and type 1 diabetes. However, we do not often understand how the sequence change affects disease risk: through which gene, in which cells, and how these risk variants combine in biological pathways. I will use statistical techniques to combine information on genetic association with ten different autoimmune diseases and genetic association of cell specific gene expression variation to identify causal genes and cells in these diseases. I will use the joint disease association datasets to identify and partition disease risk across the cell specific pathways within which these disease causal genes act, and look for partitions of patients corresponding to greater risk in some subset of these pathways which also correlates with clinical or phenotypic data. The existence of such partitions will identify opportunities for genetically supported stratified medicine, targeting the right drug to the right patient according to phenotypes measurable in the clinic.

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Original classification

Intramural

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