Extensive theoretical work has explained how and why complex societies evolve. However, only little is known about the genes and molecular mechanisms responsible for social phenotypes.
We have been identifying genes and mechanisms involved in the evolution of insect societies using modern genomics approaches, combining comparative genomics and transcriptomics with population genomics and behavioral experiments.
We are interested in themes including the genetics of behavior, the interplay between social evolution and genome evolution, and the molecular mechanisms responsible for differences between castes.
For example we:
The recent 10,000-fold drop in the cost of DNA sequencing means that any lab can sequence anything - and lots of it. This brings exciting opportunities but also new challenges: the bottlenecks are now data handling and visualization.
We develop innovative tools and approaches to facilitate modern biological work on established and emerging model organisms. We pay special attention to visualization and user expereince.
Pollinators (bess in particular) are essential pollinators for preserving biodiversity and ensuring agricultural yields, thus their worldwide decline poses important risks. Taking inspiration from biomedical approaches for understanding cancer biology, we are using modern molecular tools to determine how pollinators are affected by changing environments (e.g., pesticide exposure, habitat loss, changing climates) and their ability to cope with such changes.
We are grateful for support from our funders: