After graduating in Genetics from Cambridge University in 1977,
I did research for my D.Phil (PhD) in Developmental Genetics
at Sussex University followed by postdoctoral work in Strasbourg,
France and the ICRF in Mill Hill, London. In 1986, I took a Research
Scientist position at the MRC LMB, Cambridge before moving to
a similar appointment at the ICRF Developmental Biology Unit
in Oxford. I became a Principal Scientist at the ICRF in 1994,
relocating my group to the Lincoln's Inn Fields laboratories
in London. In 1996, I was appointed Professor of Developmental
Genetics at the University of Sheffield and subsequently became
Director of the MRC Centre. Since 2006 I have been on part-time
secondment to the Institute of Molecular and Cell Biology in
Singapore where I am Deputy Director.
The transmission of signals between cells is a key process, both during the development of an organism and throughout its subsequent life. Such cell-cell signalling controls, for instance, the formation of specific nerve cells and muscles in the developing embryo as well as the maintenance of stem cells that continually replenish our skin or the linings of our gut. Not surprisingly, the break down of such signalling can have disasterous effects, causing both birth defects in the newborn child as well as cancers during later life. To understand how these signalling processes work, we study the genes that control them in organisms such as the fruitfly or the tropical zebrafish.
We study these organisms because they are easy to maintain in the laboratory, their embryos are readily obtained without any surgical intervention and their genomes show remarkable levels of similarity to our own. The knowledge generated by our studies should help in the design of drugs to modulate signalling pathways in cancerous cells as well as the manipulation of the differentiation of stem cells for therapeutic use.
Fibres
and dystrophin localized to the vertical myosepta in a wild type embryo.
A long standing interest of my research group has been the role of secreted signaling molecules in pattern formation and organogenesis. We have focused in particular on the Hedgehog (Hh) protein family, using genetic analysis in Drosophila to elucidate the pathway by which these proteins signal to the nucleus and using the zebrafish as a model in which to study their roles in vertebrate development.
One process that we have studied in some detail is the allocation of cells to distinct myogenic fates. We have found that Hh signaling plays a key role in specifying muscle fibre type and have identified the transcription factor Prdm1 as a critical target of Hh signaling in this cell fate decision. Using Chromatin immune precipitation combined with microarray analysis (ChIP on chip) we have identified multiple targets of Prdm1 in myoblasts.
A second area of investigation is the mechanisms by which Hh pathway components function. The unique properties of the zebrafish embryo make it very well suited to the in vivo analysis of signaling processes at the cellular and sub-cellular. We are particularly interested in the trafficking of the transmembrane proteins Patched and Smoothened and the nuclear cytoplasmic shuttling of the Gli transcription factors.
We are also interested in the use of the zebrafish as a system in which to model human disease related processes. We have collaborated with clinician scientists in the establishment of models of Parkinson's disease, the inflammatory response and arteriogenesis and are exploring the use of these and other models as the basis for chemical genetic screens.
Professor Philip W. Ingham FRS
MRC Centre for Developmental and Biomedical Genetics
The University of Sheffield
Firth Court, Western Bank
Sheffield S10 2TN
United Kingdom
Room: D32a Firth Court
Office: +44 (0) 114 222 2710
Lab: +44 (0) 114 222 2769
Fax: +44 (0) 114 276 5413
email : p.w.ingham@sheffield.ac.uk