Active Genetics & Molecular Biology Cancer

Functional genomics and development of clinical genome editing strategies

In plain English

AI plain-English summary

Blood and bone marrow cells read their DNA like a complex instruction manual, and this lab is figuring out how to safely rewrite the faulty pages. Over 90% of disease-linked DNA variations do not change the protein a gene makes—they alter how the gene is switched on or off. The Davies lab uses its own techniques to map the physical 3D structure of DNA inside cells, which is key to understanding those control switches. They will apply this to identify the exact DNA sequences that govern gene activity in blood and bone marrow cells. The ultimate goal is to design safer genome editing strategies for bone marrow stem cells—cells that can be transplanted to cure blood disorders, immune diseases, and some cancers. This is fundamental science with a clear translational path: understanding the genome’s regulatory grammar is a prerequisite for editing it without causing unintended harm. If successful, the work could make stem-cell gene therapies more predictable and less risky, moving them from experimental treatments toward routine clinical options.

View original technical description
The Davies laboratory aims to understand how the genome is read by the cells of the blood and bone marrow and how the sequence can be edited to treat human disease. This is important because genetic variation in bloodcells alters the susceptibility to many different human diseases including infection, autoimmune disease and malignancy. Genome editing of these cells has the potential to cure many diseases but this technology can only be safely used if we understand the effects of altering the genome sequence. Over 90% of all DNA sequences that are associated with human disease alter how genes are controlled rather than in the protein produced by the gene. The laboratory has world class expertise in developing new techniques for determining the physical structure of DNA within cells, which is key to understanding how the genome functions. We will use this technology to investigate the fundamental principles that control genes. We will also use it to map the key DNA sequences that control genes in important blood and bone marrow cell types. We aim to translate this by developing new and safer ways of editing the genome of bone marrow stem cells which can be transplanted to treat human disease.

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Researchers

James Davies (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

Advanced Tools for Human Genomic Therapeutics
Switching mammalian genes on and off during development, lineage specification, and differentiation, and its impact on human genetic disease
Application of single cell genomics for precision medicine in myelodysplastic syndromes.
The regulation of transcriptional bursting by superenhancers
Single cell genomics for early diagnosis in myelodysplastic syndromes

Original classification

Intramural

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