Completed Infection & Immunity Genetics & Molecular Biology

WTSI costs associated with "Immune function and pathology dissected by high throughput analysis of mice with targeted gene disruptions - an investigation by the Infection and Immunity Immunophenotyping (3I) consortium"

In plain English

AI plain-English summary

A thousand genetically altered mice will be put through a battery of immune system tests to reveal what each of their disrupted genes actually does. Immunology has become central to understanding not just infections, but also autoimmune diseases, allergies, and the chronic inflammation linked to heart disease, obesity, and neurodegeneration. Yet many genes suspected of playing immune roles have never been systematically tested. This project fills that gap by screening 1000 mouse strains, each missing a single defined gene, through practical and economical immune function assays. The results will show which genes are essential for frontline defences, which trigger harmful inflammation when dysregulated, and which have unexpected roles beyond immunology. This is fundamental science. The immediate output is a public database of gene–immune function links, released openly so researchers worldwide can mine it. In the longer term, knowing which genes control specific immune pathways could guide vaccine design, identify targets for drugs that dampen autoimmune attacks, or reveal why some people develop chronic inflammation while others do not. Past systematic screens of this kind have uncovered entirely new biological mechanisms—and the occasional surprise that became a therapy.

View original technical description
In innate immunity, germline-encoded gene-products provide essential frontline generic defenses against pathogens. In vertebrates, innate immunity also initiates adaptive immunity that provides highly pathogen-specific protection; anticipatory reactivities to emerging pathogens; memory responses that pre-empt symptoms upon re-infection; and immunoprotection passively transferred to neonates. While such proficiencies are the goal of vaccine development, their dysregulation provokes autoimmune d iseases, allergies and tissue inflammation associated with pathologies as diverse as cardiovascular disease, obesity, and neurodegeneration. Reflecting this, immunology is more deeply and more broadly studied than ever before. Nonetheless, fundamental mechanisms remain to be discovered. To this end, 1000 mouse strains with mutations in defined genes will be subjected to practical, economical, immunological screens. The results will deepen our understanding of genes implicated in immunology; wil l expose novel immunological roles for genes being studied for other reasons such as disease-association; will be germane to cell, developmental, and systems biology; and by correlation with phenotypes in other areas of physiology, will provide new perspectives on complex human disease. The strain mutations will be prioritised by the immunology community, thereby enhancing unbiased screening with hypothesis-testing. Importantly, community involvement via open-access data-releases and bulletins will maximize the interpretation and the prompt, in-depth follow-up of our findings.

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Researchers

Adrian Hayday (EPMC Awardee)Mike Stratton (EPMC Awardee)

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Original classification

Strategic Award - Science

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