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Nuffield Professor of Pathology
- Honorary Consultant in Clinical Genetics
Skulls, limbs, and sperm: common themes in malformation
I've been employed as an Honorary Consultant in Clinical Genetics in Oxford since 1993, and my work has always been driven by the desire to give patients and families better answers to the questions they ask me in clinic. Working with plastic surgeons, my primary interest is in craniofacial malformations in children especially craniosynostosis, the premature fusion of the cranial sutures of the skull. By identifying the molecular genetic basis of these conditions, not only can we give families the answers they seek, we also gain fundamental knowledge about the details by which a human skull is built. A key early discovery (1995) was that Apert syndrome, in which the craniosynostosis occurs together with fusions of the fingers and toes, is caused by highly localised, recurrent mutations in the fibroblast growth factor receptor type 2 (FGFR2) gene. From this, two major research themes developed discovering other genetic causes of craniosynostosis, and finding out why certain genetic misprints such as the Apert FGFR2 mutations occur up to a thousand times more frequently than they should. The work on craniosynostosis has led to many important disease gene discoveries, for which genetic testing has been translated into the NHS. Work on the origins of the mutations led to the recognition of a novel process occurring in the testes, which we termed 'selfish spermatogonial selection', that provides a link between the origins of germline and somatic mutation. Current efforts focus on harnessing the technological revolution provided by next generation sequencing to identify even more new genetic causes of craniosynostosis. Using this information, we can explore the complex mechanisms by which a population of stem cells is maintained within the sutures to keep the suture open, yet continuously turns over to promote continued growth of the skull.
A Genetic-Pathophysiological Framework for Craniosynostosis.
Twigg SRF. and Wilkie AOM., (2015), Am J Hum Genet, 97, 359 - 377
New insights into craniofacial malformations.
Twigg SRF. and Wilkie AOM., (2015), Hum Mol Genet, 24, R50 - R59
Johnson D. and Wilkie AOM., (2011), Eur J Hum Genet, 19, 369 - 376
A genome-wide association study implicates BMP7 as a risk factor for nonsyndromic metopic craniosynostosis
Justice CM. et al, (2019), EUROPEAN JOURNAL OF HUMAN GENETICS, 27, 1276 - 1277
BMP2 or not BMP2? A SMAD6-related question in craniosynostosis
Calpena E. et al, (2019), EUROPEAN JOURNAL OF HUMAN GENETICS, 27, 1277 - 1278
The PREGCARE study: precision genetic counselling via personalised evaluation of recurrence risk for families with a child affected by a disorder caused by a de novo mutation
Abdullah UB. et al, (2019), EUROPEAN JOURNAL OF HUMAN GENETICS, 27, 1101 - 1102
amplimap: a versatile tool to process and analyze targeted NGS data.
Koelling N. et al, (2019), Bioinformatics
The impact of chemo- and radiotherapy treatments on selfish de novo FGFR2 mutations in sperm of cancer survivors.
Maher GJ. et al, (2019), Hum Reprod