Telomere Biology Group

Dr Max Douglas's group is using reconstitution biochemistry and genetics to understand how telomeres are inherited from one generation of cells to the next.

Research, projects and publications in this group

Our lab studies telomere replication using a multidisciplinary approach that combines biochemistry, biophysics and genetics. The molecular insights we gain will help us better understand, and ideally treat, human diseases such as cancer.

Dr Max Douglas

Group Leader:

Telomere Biology Max Douglas

Dr Max Douglas leads the Telomere Biology Group at the ICR. He is the holder of the CRUK Career Development Fellowship and his research focuses on the replication and processing of telomeres.

Researchers in this group

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Phone: +44 20 7153 5318

Email: [email protected]

Location: Chelsea

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Phone: +44 20 3437 6042

Email: [email protected]

Location: Chelsea

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Email: [email protected]

Location: Chelsea

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Email: [email protected]

Location: Chelsea

Dr Max Douglas's group have written 12 publications

Most recent new publication 12/2024

See all their publications

Telomeres are nucleoprotein caps that protect the ends of eukaryotic chromosomes from repair processes and DNA damage. Each cell cycle, these complex, dynamic structures are copied and reassembled through a process called telomere replication, which ensures that all chromosome ends remain properly protected each time a cell divides. Defects in this process are associated with a range of human diseases including bone marrow failure, and essentially all incidents of cancer.

Decades of genetic studies have identified the key players in telomere replication, but an integrated, molecular view of this process is currently lacking.

Our lab studies telomere replication using a multidisciplinary approach that combines biochemistry, biophysics and genetics (see for example, Douglas et al, Nature, 2018).

We use reconstituted telomeric templates in combination with in vitro assays for DNA replication and telomere processing steps to examine:

  • How telomeres are copied semi-conservatively and DNA replication terminates at the chromosome end.
  • How replicated telomeres are processed and extended, reforming structured caps of the appropriate length.

The molecular insights we gain will help us better understand, and ideally treat, human diseases such as cancer.

Closed: Examining the mechanism of chromatin telomere replication

Primary supervisor: Dr Max Douglas Primary site: Sutton Funded by Medical Research Council - Doctoral Training Partnership (MRC DTP)

Recent discoveries from this group