Our research aims to understand how readout of the information encoded in the DNA of plant and animal genomes can be influenced by the epigenome, the extent to which epigenomic modifications such as DNA methylation can be altered by the environment and in disease states, and to develop molecular tools for precision epigenome engineering.

By modulating accessibility to the information encoded in the genome, chemical modifications of the DNA and associated proteins can affect gene activation and repression to execute distinct transcriptional programs and impart a stable 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 diverse vertebrates. 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 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 Raine Medical Research Foundation, The Sylvia and Charles Viertel Charitable Foundation, The University of Western Australia, and the Australian government.
  • Epigenomics We're interested in understanding how complex multicellular organisms use chemical modifications of the DNA to control the readout of the information in their genome. Through our research we hope to understand the mechanistic role of these "epigenomic" chemical modifications, and their role in regulating growth and survival in animals and plants. By understanding these processes, we hope to develop advanced molecular tools to precisely engineer the epigenome.

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  • Advanced technologies Using advanced DNA sequencing technologies, the epigenome and transcriptional activity can be accurately profiled throughout entire plant and animal genomes. Combined with intensive computational and informatic analyses, highly integrated pictures of the epigenetic landscape can be constructed to investigate its effect upon the regulation of genomic information. In combination with a variety of molecular, genetic, biochemical and proteomic technologies for more targeted mechanistic studies, we aim to understand these transcriptional regulatory processes at the molecular level, at the whole-genome scale.
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  • Opportunities Interested in this research? We're currently looking for highly motivated post-docs, PhD students, Honours and undergraduate students to join the lab to conduct research into fundamental questions in epigenomics. Please contact us to enquire about joining the Lister Lab.
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