Epigenetics and Chromatin
Most of the information that passes across generations is encoded in the DNA sequence. However, there is increasing appreciation that cells and organisms also receive inherited information through other mediums, known collectively as epigenetic. The Zilberman group studies cytosine DNA methylation, a key epigenetic mechanism in plant and animal cells.
Cytosine methylation can carry epigenetic information because it is precisely copied when the DNA is replicated. Methylation regulates gene expression, and accurate reproduction of DNA methylation patterns during cell division is therefore essential for plant and animal development, efficient agriculture, and human health.
The enzymes that maintain DNA methylation must work within chromatin, and particularly to contend with nucleosomes – tight complexes of DNA and histone proteins.
The Zilberman group combines genetic, genomic, biochemical, and evolutionary approaches to understand the maintenance and function of DNA methylation within chromatin using the flowering plant Arabidopsis thaliana as the primary model. They also study a variety of other species to understand the complex evolution of eukaryotic DNA methylation.
On this site:
Regulation of DNA methylation patterns by chromatin remodelers and linker histones | Influence of DNA methylation on nucleosome properties | Mathematical modeling of DNA methylation inheritance | Evolution of eukaryotic DNA methylation pathways | Epigenetic inheritance as a mechanism of phenotypic diversification in natural populations
since 2021 Professor, IST Austria
2017-2021 Group Leader, John Innes Centre, Norwich, UK
2013-2017 Associate Professor, University of California, Berkeley, USA
2007-2013 Assistant Professor, University of California, Berkeley, USA
2004-2007 Postdoc, Fred Hutchinson Cancer Research Center, Seattle, USA
2004 PhD, University of California, Los Angeles, USA
2017 ERC Consolidator Award
2016 HHMI-Simons Foundation Faculty Scholar
2009 Arnold and Mabel Beckman Young Investigator