Active Lungs & Breathing

Applying a multidisciplinary approach to defining molecular pathways in lung function impairment

In plain English

AI plain-English summary

A faulty gene can leave someone gasping for breath after climbing a single flight of stairs, but scientists still cannot explain exactly why. This project tackles a fundamental gap in respiratory medicine: researchers know that certain genetic variants are linked to poor lung function and chronic obstructive pulmonary disease (COPD), but they do not understand which specific genes cause the problem or how they do it. Without that knowledge, drug development remains a game of guesswork. The team will combine genomic data from thousands of people across multiple ancestries with new molecular profiling techniques. They will use CRISPR to systematically test which genes matter, map gene activity in lung tissue at microscopic scale, and confirm findings in mouse models. If successful, this work will identify the precise biological pathways that control lung function. That could reveal new drug targets, highlight existing drugs that might be repurposed for respiratory disease, and produce biomarkers for earlier diagnosis. The research is fundamental science—it will not produce a treatment tomorrow—but understanding the molecular machinery of the lung is the necessary first step toward therapies that work for the millions of people whose breathing is impaired.

View original technical description
We have led advances in the genetic epidemiology of lung function, but the causal genetic variants and causal genes, and the mechanisms by which they influence lung function, chronic obstructive pulmonary disease (COPD) and other respiratory diseases remain incompletely understood. Through a new collaborative interdisciplinary endeavour, we will accelerate discovery of genetic risk factors for lung function impairment, and define the mechanisms and biological pathways underpinning the observed associations. To achieve this, we will use new genomic data from population studies, building on the cross-ancestry studies of the SpiroMeta consortium, and integrate with new multi-omic datasets using improved statistical genetic methodologies. To prioritise pathways we will undertake high-throughput functional genomic screens using CRISPR, perform lung digital spatial transcriptomic profiling and utilise informative mouse models. This will inform in-depth mechanistic assays at the cell, tissue and organ scales to identify the key mechanisms underpinning regulation of lung function in health and disease. The complementary strengths in each contributing centre will enable a co-ordinated approach for efficient prioritisation of key pathways. This programme of research will improve the diagnosis, treatment and prevention of respiratory disease through mechanistic discoveries that identify new drug targets and biomarkers, and that highlight drug re-purposing opportunities.

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Researchers

Anna Guyatt (EPMC Awardee)Emma RAWLINS (EPMC Awardee)Ian Hall (EPMC Awardee)Ian Sayers (EPMC Awardee)Louise Wain (EPMC Awardee)Martin Tobin (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

Large-scale genomic epidemiology approaches to study the natural history of lung function and COPD
Applying multi-omics to understand the functional role genetic variants play in the biology of lung function and COPD
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Functional and epigenomic characterisation of genetic associations in pulmonary arterial hypertension
Enhancing the characterisation of early respiratory disease to improve population health

Original classification

Discovery Award

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