
Biography
As Group Leader of Evolutionary Genomics, my current research interests focus on characterising functional non-coding sequences and the evolutionary constraints acting on these elements across many species with a strong focus on mammalian genomes. Another significant part of my research involves the identification and characterisation of functional long non-coding RNAs in humans. I use comparative genomics approaches to quantify the action of selection acting on non-coding elements, with a strong focus on the patterns of sequence variation among populations.
Previous to the Earlham Institute, I joined the MRC FGU (Oxford), being involved in multiple genome projects (Coelacanth, painted turtle, cichlids) and studying the evolution of long non-coding RNAs in multiple eukaryotes. Before this, I started a postdoctoral position at McMaster University (Hamilton, Ontario) studying F1 hybrid sterility and the evolutionary patterns of rapidly diverging coding sequences. There, I transitioned from wet lab biology to computational biology expanding my interests in comparative genomics and the evolution of repeated sequences. I completed my PhD in population genetics and speciation in Drosophila from the University of Paris VI.
Projects
Publications
Related reading.

Cellular Genomics: understanding why being different is normal

Bananas are on the brink but close cousins could save their skins

Cultural differences: how analysing mixed communities of microorganisms could help us understand AMR

Memories of sequencing the human genome to mark seven decades of DNA

Hidden jewels in our blood could hold secrets of healthy ageing

Differences make a difference: from one cell to a world of individuality

Artificial realities: copying wild microbial communities in the lab

New insights into resistance to antimicrobials could stop bacteria in their tracks

Engineered plants produce sex perfume to trick pests and replace pesticides

Human body a breeding ground for antimicrobial resistance genes

Key tilapia genome offers boost to global food security

Exotic wheat DNA could help breed ‘climate-proof’ crops

Sequencing project to unleash the huge potential of euglenoids

Circadian clock insights could be key to increased wheat yields

European consortium launched to reverse biodiversity loss through genomics research
