Integrating molecular genomics, phenomics, and AI to develop innovative strategies for superior crop varieties and sustainable agriculture.
Explore Our WorkCrops We Work With
Small Grains
Maize
Sunflower
Olives
Table Grapes
Berries
The Rocinante Lab develops and applies quantitative genomics to accelerate crop improvement. We integrate genomics, phenomics, statistics, and field experimentation to deliver robust models and decision tools that increase genetic gain, improve resilience, and support breeding programs across diverse environments.
We envision breeding pipelines where data-driven prediction and optimized mating translate biological understanding into measurable, sustainable progress—enabling the rapid development of high-performing crop varieties while safeguarding genetic diversity for long-term improvement.
Models and experimental designs that maximize predictive accuracy for complex traits.
Identifying loci, haplotypes, and genomic regions that explain trait variation.
Improving selection, mate allocation, and resource allocation under real program constraints.
Quantitative methods to model performance across environments and target adaptation.
Reproducible tools that make advanced methods usable in practical breeding workflows.
International courses and workshops advancing genomic selection knowledge worldwide.
Optimize mating plans using genomic information to maximize genetic gain, within-family variance, and genetic diversity. Supports polyploids, multi-trait optimization, additive and dominance effects, directional dominance, and testers.
Calculate BLUP of genotype-by-environment metrics including ecovalence, environmental variance, Finlay and Wilkinson regression, and Lin and Binns superiority measure.
R package for optimization tasks in training set selection using metaheuristics like simulated annealing and genetic algorithms to find the best subset within the whole training set.
Combine partial covariance matrices using a Wishart-EM algorithm for independent trials, multi-view relationship data from genomic experiments, and Gaussian graphs.
Implements the mate selection approach for efficient breeding by genomic mating, as published in Frontiers in Genetics.
Current Members
Technician
Technician
Technician
Alumni
Be The Match
CIRAD, Montpellier
Graduate-level courses on statistical methods in plant breeding, genomic selection theory, and practical applications in R.
Hands-on training in genomic prediction methods, GBLUP, and training population optimization using our software tools.
Mentoring graduate students in quantitative genetics, bioinformatics, and computational breeding.
Teaching Resources
We are grateful to receive support from leading research funding organizations.
Interested in collaboration or joining the lab?