Research

The Burdon lab investigates the mechanisms that govern embryonic stem cell identity and the molecular pathways that drive their differentiation. Our work examines how defined culture conditions influence these regulatory networks, and we employ targeted gene manipulation and knockout strategies to dissect the mechanisms underlying stem cell behaviour. A central focus of the group is to elucidate how signalling pathways interact and cross-talk to coordinate cell fate decisions.

Burdon lab research themes

We aim to define the core regulatory networks that regulate differentiation across mammals by comparing embryonic cells from multiple species. To support this comparative framework, the Roslin Institute has initiated a programme to derive new embryonic cell lines from rats and a range of farm animals. Building on this effort, our work focuses on isolating and maintaining livestock stem cells—currently including porcine, bovine and sheep lines—and directing them toward defined cell types relevant to key biological traits in agricultural species. By guiding these cells along specific developmental trajectories, we can model processes fundamental to livestock growth, health, and disease, enabling detailed analysis of how cellular states evolve over time. 

Research Themes

Within our research framework, the Burdon lab is organised around four interconnected research themes:


1.     Control of stem cell differentiation – exploring how embryonic stem cells from mouse, bovine, pig, and sheep can be directed toward specific cell fates.
2.     Host–pathogen interactions – investigating how different breeds of big (wild and domestic) vary in their immune responses to viral infections, including African Swine Fever.
3.     Germ cell development and breeding systems – developing in-vitro gamete production systems and studying reproductive biology in cattle and pigs to enhance breeding efficiency and genetic selection.
4.     Comparative biology – leveraging the physiological and anatomical similarities between different animal species to create powerful in-vitro platforms for studying mechanisms of animal biology and disease.
 

Together, this integrated approach strengthens both agricultural innovation and translational biomedical research.

Research Highlights

Domestic pig iPSC derived Ectoderm, Mesoderm and Endoderm.
Domestic pig induced pluripotent stem cell (iPSC) derived Ectoderm, Mesoderm and Endoderm cell lineages.
Bovine embryonic stem cells forming gastruloids
Bovine embryonic stem cells carrying a Fucci cell‑cycle reporter as they form gastruloids—an in‑vitro model of early developmental growth and organisation. The reporter marks each cell‑cycle stage with a different colour, allowing us to visualise dynamic cell‑cycle changes during early development and differentiation.