Genome organization
and evolution
Tracing structural change, polyploidy, and chromosome evolution to understand how grass genomes became what they are today.
Grass genomics / Athens, Georgia
We decode how grass genomes evolve, adapt, and shape the crops that sustain changing environments.
Our question
What can the diversity written into grass genomes tell us about where plants have been and where agriculture can go next?
Research / 01
We move from chromosome-scale history to field-scale performance, combining genetics, genomics, and comparative biology.
Tracing structural change, polyploidy, and chromosome evolution to understand how grass genomes became what they are today.
Connecting variation across populations with resilience, environmental response, and traits important to crops and ecosystems.
Transferring insight among diverse grasses to reveal conserved biology and species-specific innovation.
Crop systems / 02
Three crop systems let us examine domestication, adaptation, and genome evolution across distinct biological and agricultural contexts.
Domestication, diversity, and the genomic foundations of an adaptable cereal crop.
Population structure, local adaptation, and variation in a perennial bioenergy grass.
Explore SNP dataGenome variation across a globally important cereal and its geographic diversity.
Explore SNP dataAcross scales / 03
Our work links sequence variation, population diversity, controlled experiments, and field performance into one integrated view of plant biology.
Lab leadership / 04
Distinguished Research Professor
Dr. Devos leads a research program at the intersection of grass genetics, comparative genomics, trait analysis, and genome evolution. Her work connects Plant Biology, Crop and Soil Sciences, and the Institute of Plant Breeding, Genetics and Genomics at the University of Georgia.
Contact / 05
Devos Lab
Miller Plant Sciences
University of Georgia
Athens, GA 30602