The University of Sheffield
Department of Oncology

Group Leaders and Projects

Professor Mark Meuth, Head of Institute

DNA damage response and the regulation of cell death in tumour and stem cells

Professor Angela Cox

The role of common variants of genes involved in the DNA damage response and apoptosis pathways in susceptibility to common cancers

Dr. Cyril Sanders

Early events in DNA replication (initiation) using papillomavirus (bovine papillomavirus) as a model system

Dr. Jim Catto

Translational epigenomics in bladder and prostate cancer: Discovery of prognostic epigenetic molecular detail for application in clinical care. Epigenetic instability in cancer

Dr. Thierry Nouspikel

Regulation of Nucleotide Excision Repair in terminally differentiated and quiescent cells: consequences for mutagenesis (e.g. cancer) and cell survival (e.g. neurodegeneration)

Dr. Helen Bryant

Response of tumour cells to DNA replication stress. Exploitation of alterations in these responses to develop new therapies

Dr. Pat Eyers

The regulation and function of therapeutically important protein kinases

My laboratory uses state-of-the-art approaches to answer two critical biological questions. Firstly, we employ biochemical and biophysical techniques to understand how distinct members of the human kinome are regulated. Secondly, we use small molecule inhibitors of protein kinases to investigate the cell biology of this protein superfamily. By coupling mechanistic insights with drug resistance profiles, we have discovered that these compounds represent powerful mechanistic probes for understanding proliferative diseases such as cancer.

Dr. Spencer Collis

The identification and characterisation of novel genome maintenance factors and their involvement in genetically unstable human disorders

The work of the lab aims to understand the complex mechanisms of DNA repair pathways in order to expand our knowledge of cancer development and progression. We are discovering new proteins that are involved in the detection and subsequent repair of DNA damage, and we are particularly interested in determining if mutations in these proteins lead to the development of genetically unstable human diseases such as cancer. The study of such proteins will not only give us insight into how these DNA repair pathways work, but also tell us how they go wrong in the development of human disease. It is hoped that this work could lead to the development of new or improved anti-cancer treatments and/or clinically useful biomarkers.