Feb 20, 2015: Three new post-doctoral positions are now open. See below for more details on the positions and how to apply.
Feb 20, 2015: A post-doctoral position is available for a computational biologist specializing in genome informatics. The research will involve development and utilization of computational approaches to analyze genomic datasets, with a particular emphasis on next generation DNA sequencing and its application to studying the epigenome and its role in genome regulation in human, mouse or plant systems. Further information is available here, and applications are open online.
Feb 20, 2015: A post-doctoral position is available to undertake research in the area of mammalian brain epigenomics. The research will involve the utilization of molecular, genetic and (epi)genomic techniques to investigate neural activity-dependent plasticity of genomic DNA methylation in the mammalian brain, cellular recognition and interpretation of epigenomic modifications in neural cell genomes, and perturbation of DNA methylation patterns in neurological disorders. Further information is available here, and applications are open online.
Feb 20, 2015: A post-doctoral position is available to lead the development and utilization of molecular tools for engineering the epigenome. The research will utilize molecular, genomic, biochemical, and genome editing techniques to develop molecular tools that enable precise targeted addition or removal of epigenomic modifications such as DNA methylation and post-translational histone modifications in the genome of human and other animal cells. Further information is available here, and applications are open online.
The long-term goals of our research are to understand how the information encoded in the DNA of plant and animal genomes is controlled by epigenetic processes, how the epigenome is altered by the surrounding environment, and to develop molecular tools for precision epigenome engineering.
By modulating accessibility to the information encoded in the genome, epigenetic modifications can affect gene activation and repression to execute distinct transcriptional programs and impart a heritable state of transcriptional activity. We use advanced DNA sequencing, molecular, genetic and computational techniques to generate whole-genome high resolution maps of epigenetic modifications in a diverse range of complex multicellular organisms, including plants, humans, mice, and eusocial insects. Through these studies we aim to elucidate the mechanistic underpinnings of how the epigenome is established and dynamically modified, and how it affects the cellular readout of the underlying genetic information.
Developing a comprehensive understanding of how the cell utilizes the epigenome is essential in order to both understand the critical roles it plays in eukaryotic development and stress response, and to develop effective strategies to remedy its disruption in disease states.
Our research is generously supported by funding from the Australian Research Council, the National Health and Medical Research Council, the National Institutes of Health, the Raine Medical Research Foundation, The University of Western Australia, and the Western Australian and Australian governments.