Completed Genetics & Molecular Biology Diabetes, Hormones & Metabolism

Statistics for Stratified Medicine and Analysis of Complex Phenotypes

In plain English

AI plain-English summary

Doctors are sorting patients into ever-finer subgroups based on their genes, proteins, and scans, but the statistical tools needed to make those groupings reliable and useful have not kept pace. This programme tackles a fundamental gap: complex diseases like cancer, dementia, and arthritis do not affect everyone the same way, yet most medical decisions still rely on averages from large, mixed populations. Even rare diseases caused by single gene mutations produce wildly different symptoms and treatment responses. Without better statistical methods, the promise of stratified medicine—matching the right treatment to the right patient group—remains theoretical. The researchers will develop new models to predict disease risk, forecast how a condition will progress, estimate which patients will respond to a therapy, and flag those likely to suffer adverse effects. If successful, these tools could transform how clinicians use biomarker data to make decisions, shifting medicine from one-size-fits-all guidelines toward genuinely tailored prevention and treatment. The work is fundamentally methodological—it does not test a specific drug or device—but it provides the statistical infrastructure that makes personalised medicine possible.

View original technical description
Many diseases and conditions, such as cancers, dementia and rheumatic disorders, are multi-factorial; exhibiting a range of biological manifestations that reflect the contribution of genetic and environmental factors. Even across individuals with rare diseases, which may result from single gene mutations, varying symptoms, health outcomes and treatment responses are seen. The complexity of diseases leads to many challenges ranging from understanding disease mechanisms and susceptibility to risk prediction and development and application of treatments. Stratified medicine, where "homogeneous" groups of people likely to respond similarly to treatment or have similar underlying disease mechanism or risk are sought based on biomarker information, is aimed at targeting therapies and optimal decision making for groups of patients who have shared biological characteristics. That genetic, molecular and imaging technologies have transformed biology has meant the need for those trained in analysing complex data, accounting for uncertainty and making evidence-based conclusions is paramount. Our programme will address statistical issues arising from using complex biological and clinical data for further understanding of diseases and to develop models aimed at risk prediction, stratified prevention, projection of disease course, treatment response, safety and the likelihood of adverse events and the tailoring of therapeutics to individuals.

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Researchers

Brian Tom (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

Managing and exploiting high dimensionality in genetic epidemiology
Quantitative Traits in Health and Disease
Genetic variation, disease prediction and causation
Matching the right medicine(s) to the right patient -quantitative prediction of single- or dual therapies using genetics and proteomics
HSM Polygenic score methodology in the emerging field of Polygenic Epidemiology

Original classification

Intramural

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