Research focuses on signal transduction networks and gene regulation in nutrient-limited non-growing, but highly stress-resilient bacteria and bacterial biofilms. In particular, molecular functions of second messengers such as cyclic-di-GMP in orchestrating bacterial multicellularity and its emergent properties are studied. Furthermore, we collaborate with designers, material scientists and cultural historians in interdisciplinary projects.

We are investigating the genetic and molecular basis of nuclear-organellar interactions in plants and apicomplexan parasites. Specifically, we study novel eukaryotic RNA binding proteins used by the cell to manipulate chloroplast and mitochondrial RNAs - essential processes for setting up the respiratory chain and the photosynthetic machinery.

We study interactions between plant parasites, their hosts, and the abiotic environment using experimental-genetic and evolutionary-ecological methods to understand the feedback loops driving parasite-host-environment adaptation. The lab develops resources to identify pests from environmental samples and engages in forest genetics research. We also actively commit to the conservation of native plants through citizen science projects.