Active Lungs & Breathing Genetics & Molecular Biology

Translational genomics in critical care medicine.

In plain English

AI plain-English summary

A patient’s genetic makeup can determine whether a drug for critical illness will help or harm them, and this fellowship aims to turn that insight into a rapid, routine part of intensive care. During the COVID-19 pandemic, the researcher showed that genetic variants linked to severe illness can point directly to which drugs are worth testing. The problem is that most genetic discoveries never reach the bedside. This project builds a bridge between the two. Using genome-wide association studies on 20,000 COVID-19 cases and 3,000 influenza cases, the team will identify host genes that drive critical illness in viral pneumonia. Computational tools—including functional genomics and Mendelian randomisation—will then pinpoint which of those genes are viable drug targets. The work also tests whether different patient subgroups respond differently to the same genetic variant, which could explain why some drugs work only in a subset of patients. If successful, this programme will create a pipeline that goes from genetic discovery to experimental medicine in humans within a single fellowship. That could transform how new treatments for respiratory critical illness are identified and tested—replacing slow, trial-and-error approaches with genetically guided, rapid drug assessment.

View original technical description
My work during the Covid outbreak has shown that genetic associations with critical illness can predict therapeutic targets, and that therapies targeting the host response improve outcome in carefully-defined subgroups of critically ill patients. I propose to extend this work to bridge the gap between genetic discovery and therapeutic application. In doing so I will build on established infrastructure and lay the foundations of a system for rapid identification and assessment of candidate drugs for respiratory critical illness. To achieve this I will: - - Use genome-wide association studies to identify host genes associated with critical illness in viral pneumonia (Covid-19: 20,000 cases; influenza: 3000 cases). - - Identify targets using computational approaches including integrated functional genomics and Mendelian randomisation. - Complete proof-of-principle analysis to test for differential genetic effects in new patient subgroups. - - Refine and test candidate causal variants in vitro. - Establish technology for distal lung regional microdosing to validate targets in vivo in critically ill humans. At the end of this fellowship I will have established a programme of translational genomics in critical care medicine going from genomic discovery to experimental medicine in humans.

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Researchers

John Kenneth Baillie (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

Exploring the Genetic Architecture of Clinical Clusters of COVID-19 Patients.
An integrated metagenomic approach to understanding disease heterogeneity in severe sepsis due to community acquired pneumonia
Identification of novel phenotypes of acute lung injury using multimodal longitudinal data
Development of metagenomics-based diagnostics of infectious diseases
Multi-omic approaches to understand the medium and long-term effects of COVID-19 and identify novel therapeutic opportunities

Original classification

Senior Research Fellowship

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