Professor Marion MacFarlane
- Deputy Director
- MRC Investigator
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Marion MacFarlane is Deputy Director of the MRC Toxicology Unit and Programme lead for the Molecular mechanisms of cell death Programme and the cross-Unit Fibre Toxicity Programme
Biography:
2011-Present Deputy Director, MRC Toxicology Unit
2004-Present Programme Leader, MRC Toxicology Unit
2011-Present Honorary Chair, Dept. of Molecular & Cell Biology, University of Leicester
1998-2004 MRC Programme Leader-Track Scientist, MRC Toxicology Unit
1998-2004 MRC Visiting Research Fellow, Kimmel Cancer Centre, Philadelphia, USA
1992-1997 Senior Postdoctoral Research Fellow, MRC Toxicology Unit
1989-1992 Wellcome Trust Advanced Training Fellowship Award, University of Surrey
1989 PhD (University of Surrey) Biochemistry – BBSRC-funded iCASE with AstraZeneca
1985 BSc Hons (University of Glasgow) Pharmacology
Research Interests:
Unit Programme: Molecular Mechanisms of Cell Death
Cell death is a fundamental cellular response that plays a crucial role both during development and in the removal of unwanted or damaged cells following stress, injury or infection. Inappropriate cell death regulation contributes to many human diseases, including cancer and autoimmune and neurodegenerative disorders. Proteins/pathways that control cell death have also been identified as defined nodes that form key decision points to regulate the response to toxic insult.
Our Programme is aimed at understanding the fundamental mechanisms of cell death that regulate life/death decisions at the cellular level. By understanding the underlying molecular and cell biology of these processes, we aim to deliver field-changing mechanistic insights into toxicology and disease.
Our research Objectives are to develop a number of strategies including develop a number of strategies including novel ‘in vitro’ reconstituted models which, combined with an integrated molecular, cell biological and proteomics-based approach, place us in a prime position to examine the molecular determinants of cell death.
In particular, we will employ cutting-edge technologies to:
1. Obtain novel insights on the regulation and molecular architecture of multiprotein signalling complexes that direct cell fate
2. Define signalling networks conferring drug-induced mitochondrial toxicity or cell survival in translational models of hepatotoxicity
3. Selectively target nodes of resistance to cell death in patient-relevant 3D tumour models.
The data generated through these integrated approaches will provide novel insights into the fundamental mechanisms of cell death that underlie the response to toxic injury, thus informing strategies to mitigate toxicity of existing therapies as well as newer agents currently under development.