Dr Paul Hurd
- Room: 5.01B, Fogg building
- Telephone: +44 (0)20 7882 7008
- Email: firstname.lastname@example.org
The analysis and elucidation of the biological functions of epigenetic mechanisms at the cellular, whole organism and population level, using both genomic and non-genomic approaches.
Epigenetics, phenotype and the environment
How the environment interacts and alters the epigenome to determine phenotype. Using next-generation sequencing techniques to study the epigenomes and transcriptomes of genetically identical, but phenotypically different, organisms.
In particular, non-shared environment effects in human monozygotic twins, such as disease discordance (particularly allergy) and phenotypic, developmental and behavioural differences between genetically identical female honeybees as a result of diet (queen bee vs. worker bee).
This work is funded by a grant from the Royal Society.
The potential for epigenetic mechanisms to control how individual organisms and populations adapt to changing environmental conditions.
Using Tetrahymena thermophilia and next-generation sequencing technologies to follow dynamic changes in the epigenome and transcriptome under controlled conditions of nutrient depletion, pollution and climate change (temperature change).
This work is funded by a grant from the BBSRC TGAC.
Epigenetic basis of disease
Mechanistic aspects of histone modifications and DNA methylation in the regulation of haematopoietic stem cell differentiation. The post-translational modification of non-histone proteins, in particular the methyl-CpG binding protein MeCP2 and implications for Rett Syndrome in humans.
The identification and characterisation of novel histone modifications. Elucidating the biological function of histone modifications using genomic and non-genomic approaches in a variety of model organisms (humans, bees, Tetrahymena thermophila and yeast). The post-translational modification of non-histone proteins as a regulator of protein function.
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