We apply genomic approaches to support biodiversity conservation, with a particular focus on aquatic ecosystems. Our work includes generating reference genomes for understudied species, developing practical methods for DNA extraction and sampling, and applying population genomics to inform conservation and management. A central focus is on freshwater mussels (Unionidae), a highly threatened group that provides key ecosystem services yet remains genomically understudied.
We study the (epi)genomic mechanisms underlying genetic adaptation and adaptive phenotypic plasticity in aquatic invertebrates, with a particular focus on the invasive quagga mussel. By integrating population (epi)genomics, transcriptomics, phenomics together with experimental and field approaches, we investigate invasion pathways, depth-related differentiation, and responses to environmental stressors such as elevated temperature. This work aims to improve predictions of how invasive mussels and freshwater ecosystems will respond to ongoing and future environmental change.
We generate fundamental biological and ecological knowledge of the invasive quagga mussel to support evidence-based management in European lakes. Our research combines field monitoring, physiological and reproductive studies, and molecular approaches to understand how quagga mussel populations establish, spread, and function across environments. By linking organismal biology with population dynamics, ecosystem impacts, and detection methods, we aim to improve forecasts of invasion trajectories and support monitoring and mitigation strategies. In the longer term, this work also builds the biological foundations needed to evaluate future targeted and sustainable control approaches.