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Dr David Kent

107-Kent-2017Dr David Kent

Single cell fate choice in normal and malignant stem cells

Email: dgk23@cam.ac.uk

Laboratory: Cambridge Stem Cell Institute, Clifford Allbutt Building, Cambridge Biomedical Campus.

Departmental Affiliation: Haematology

 

Biography

David Kent earned a B.Sc. in Genetics and English Literature at the University of Western Ontario, Canada (1999-2003) and obtained his Ph.D. in normal adult blood stem cell biology at the University of British Columbia, Canada (2003-2009).  His postdoctoral research was at the University of Cambridge where he primarily studied malignant blood stem cell biology.  His research group studies fate choice in single blood stem cells and how changes in their regulation lead to cancers.

David is currently the Cambridge Stem Cell Institute’s Public Engagement Champion and has a long history of public engagement and outreach including the creation of The Black Hole, a website and blog that provides information on and analysis of issues related to the education and training of scientists. 

Funding

  • Research: Bloodwise, European Haematology Association, Rosetrees Trust, European Research Council 
  • Studentships: Welcome Trust, MRC, BBSRC/GSK
  • Public Engagement: Royal Society 

Opportunities

We are currently searching for a postdoctoral fellow in the field of computational biology or mathematics in collaboration with the EBI.  Potential applicants are encouraged to contact Dr Kent (dgk23@cam.ac.uk) or Dr Gerstung (moritz.gerstung@ebi.ac.uk) directly. Deadline is 01 July 2017. For project details and application procedure, please visit:  http://www.ebi.ac.uk/research/postdocs/ebpods/2017-project-3-kent-gerstung 

External links

ORCID

Hematology 101 (online lectures for those new to blood stem cells)

Twitter

LinkedIn

ResearchGate

The Black Hole blog (on the education and training of young scientists)

Signals blog (on stem cells and regenerative medicine)

 

A small colony of cells derived from a single blood stem cell. Hundreds of such colonies can be assessed for their proliferation kinetics and blood cell types produced

 

Research

One of the simplest and most provocative concepts in all of stem cell biology is how a single stem cell can give rise to any of the highly specialised cell types of a given tissue while also having the capacity to make a new stem cell. At a population level, this decision-making process must exist in a tightly regulated balance in order to avoid tissue degeneration (too few stem cells) or progression to cancer (too many stem cells).

Our lab focuses on how cell fate decisions are made on a single cell level in an effort to understand how to expand stem cell populations outside the body (for cell replacement or as a cell source for gene therapy) and how subversion of this process leads to cancer.

The lab is currently focused on understanding:

1) The molecular drivers of stem cell heterogeneity (self-renewal durability, lineage commitment)

2) The physical and quantitative biology of stem cells (mechanical signalling, mathematical modelling)

3) The early stages of cancer evolution from single cells (myeloproliferative neoplasms and myelodysplastic syndromes)

4) The role of the immune cell microenvironment in disease evolution

Areas of particular interest include normal stem cell fate choice, clonal evolution of myeloid malignancies, physical biology of stem cells, and tools/approaches for expanding blood stem cells outside the body.  

 

 

 

Group Members

Miriam Belmonte, James Che, Nina Friesgaard Oebro, Caroline Oedekoven, Mairi Shepherd.

Plain English

Adult stem cells must balance the types of cells they create in order to provide enough mature cells in the body while also maintaining the stem cell population. These decisions are made on an individual cell-by-cell basis, but as a population, stem cell fate choice must be balanced. Our lab studies how such decisions are made on a single cell level and how poor regulation of these processes leads to cancer. 

Key Publications