Evolutionary biology

We are interested in understanding the genetic basis for bacterial interactions with other organisms (be they plants, insects, fungi, other bacteria), and on how evolution shapes these interactions. By better understanding the rules and molecules that structure such relationships, we hope to develop new ways to manipulate these interactions (e.g. through the development of specific antimicrobial compounds) or shape their evolutionary dynamics through time.

Unravel the phylodynamics and transmission-specific determinants of emerging plant virus/fastidious bacteria-insect vector complexes, and translate new knowledge to abate pathogen spread in food systems.

We learn history from the genomes of humans, tumors, and other species. Our studies reveal how evolution works at the molecular level, offering fundamental insight into how humans and pathogens adapt to challenges.

Understanding how genes and genomes are shaped over many generations by the environment in which organisms live in. We also aim to examine how these changes accumulate and might facilitate the genetic divergence between populations and eventually possibly the origin of species. Lastly we aim to leverage the power of genomics to understand the evolution of insecticide resistance in agricultural pests and to find solution to their management.

We study the biodiversity, biogeography, evolutionary origins, and ecological roles of plant-associated microorganisms. We use a combination of traditional culture-based microbiology, functional assays, and next-generation 'omics tools to study microbial symbiont communities in diverse lineages of land plants at scales ranging from local to global. We are interested in characterizing the biotic and abiotic factors shaping the assembly of plant-associated fungal communities, how community structure and diversity impacts ecosystem function, and the evolutionary dynamics of fungal symbiont evolution in the context of closely related pathogens and saprotrophs.