Completed Cells, Biochemistry & Physiology Brain & Nervous System

UK human iPS cell consortium: genotype to phenotype.

In plain English

AI plain-English summary

A national biobank of reprogrammed human cells will link genetic variation to cellular behaviour, using cells from hundreds of healthy volunteers and patients with known genetic conditions. This matters because most genetic studies stop at DNA sequences, leaving a gap between a person’s genome and how their cells actually function. Without cellular data, researchers cannot easily tell which genetic differences are harmless and which cause disease, nor can they study how the same mutation produces different symptoms in different people. If the project succeeds, it will create an open-access platform where scientists can compare cellular traits—such as how cells divide, die, or respond to signals—across hundreds of genetic backgrounds. This could transform how researchers validate drug targets, test gene therapies, and distinguish disease-causing mutations from normal variation. The resource would also allow precise engineering of mutations into otherwise healthy cells, enabling controlled experiments on how specific genetic changes alter cell behaviour. The work is primarily a fundamental science infrastructure project. It does not promise an immediate treatment, but similar cell banks have underpinned breakthroughs in understanding inherited disorders, cancer biology, and drug toxicity screening.

View original technical description
We will exploit the opportunities of the UK National Health Service to generate a national resource of human iPS cells and associated data. We will generate and bank lines from 700 healthy and 800 disease-associated individuals, optimising techniques for iPS cell production and quality control. Cells will be subjected to extensive analysis of genome, epigenome, gene expression and proteome. For cells from healthy individuals, in-depth analysis of inter-individual variability will provide an open access platform for association studies of cellular function, and for distinguishing pathological from physiological variation. Patient collections will be selected via an open call, focusing initially on well-characterised conditions, where a single genetic lesion underlies a pleiotropic clinical phenotype. To characterise cellular phenotype we will construct high throughput artificial microenvironments. We will evaluate cell death, differentiation, morphology and division and specific signall ing pathways. We will collaborate to produce protocols to differentiate iPS cells into disease-relevant cell types. These approaches will provide in vitro readouts of inter-individual variation and disease and a platform for gene correction and engineering specific mutations into different genetic backgrounds. Our proposal will give researchers in the UK and beyond access to iPS cells and technology linked to extensive genetic, cellular and clinical information.

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Researchers

Ewan Birney (EPMC Awardee)Fiona Watt (EPMC Awardee)Richard Durbin (EPMC Awardee)Willem Hendrik Ouwehand (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

Wellcome Trust MRC Human Inducible Pluripotent Stem Cell Initiative
Using human IPS cells to identify genetic variants that inluence cellular differentiation
Automated Cell Culture Solutions to Accelerate Rare Disease Treatment Development
MICA: Development of Metrics and Quality Standards for Scale up of Human Pluripotent Stem Cells
Establishment of a cryo-bank of lineage-committed neural progenitor cells produced from engineered human pluripotent stem cells

Original classification

Strategic Award - Science

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