Active Genetics & Molecular Biology Cells, Biochemistry & Physiology

Enhancer function and dysfunction: molecular mechanisms, genome context, and disease

In plain English

AI plain-English summary

Our genes are controlled by genetic switches embedded in the 95% of our genome that does not contain genes. Mutations in these switches can cause severe disease, but scientists do not understand how. This programme investigates how the three-dimensional folding of the genome underpins how these switches work. It aims to improve understanding of how genetic changes in these elements contribute to disease and disease risk. This is fundamental science: it addresses a basic gap in knowledge about gene regulation. A deeper understanding of how these switches operate and fail could, in the long term, help explain why certain genetic mutations lead to illness, potentially guiding future research into diagnostics or treatments for conditions caused by non-coding genome errors.

View original technical description
The complexity of our development, health and disease is dependent on the precise way that our genes are controlled. This is driven by genetic switches embedded in the 95% of our genome that does not contain genes – the so-called non-coding genome. Mutations in these switches can cause severe disease but we do not understand how. This programme aims to investigate how the three-dimensional folding of the genome underpins how these genetic switches work and to improve our understanding of how genetic changes in these genetic elements contributes to disease and disease risk.

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Researchers

Wendy Bickmore (Principal Investigator)

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Original classification

Intramural

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