Title: A whole genome perspective on genetic variation and rapid adaptation Speaker: Dr Katarina Stuart (University of Auckland) Abstract: Evolutionary theory tells us that the immense diversity that exists on this planet does so through a complex combination of factors, in which genetic variation plays a central role. It is on this genetic variation that selection may act, enabling adaptation. Ongoing developments in sequencing and analytical tools are enabling more comprehensive characterization of diverse components of genomic variation present in the natural world. Invasive species are often used as eco-evolutionary model species in such studies, as the rapid evolutionary shifts they undergo post introduction allows study of how molecular mechanisms and genomic variation underly adaptive processes. Amongst these invasive species is the globally invasive European (or common) starling. Their global success presents us an invaluable opportunity to test predictions about the how different aspects of genetic variation may influence a populationsâ ability to rapidly adapt to a novel environment. My research covers a range of different genomic approaches, incorporating single nucleotide polymorphisms, structural variants, transposable elements, museum genomics, as well as environmental and phenotypic data to better understand mechanisms and patterns of rapid adaptation within this species. More broadly, this evolutionary research into the starling provides an important perspective on the role of rapid evolution in invasive species persistence, and how different aspects of genetic variation may contribute to population resilience under a shifting climate. About the speaker: Katarina Stuart’s research interests are in evolutionary genomics and exploring how local adaptation is facilitated in invasive populations. She completed her PhD in 2022 at the University of New South Wales, looking at the genomic mechanisms underpinning rapid adaptation in the globally invasive European starling. Katarina is now a Research Fellow at the University of Auckland, where she is extending her research to focus primarily on the role of transposable elements in rapid adaption, using both the starling and the common myna as model systems.