Led by Julio Isidro y Sánchez, Associate Professor & Group Leader
Integrating quantitative genomics, phenomics, and AI to build prediction models and decision tools that accelerate crop improvement across diverse environments.
Crops 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 prediction 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.
What we do
Models and experimental designs that maximize predictive accuracy for complex quantitative traits.
Identifying loci, haplotypes, and genomic regions that explain trait variation across populations.
Improving selection, mate allocation, and resource allocation under real breeding program constraints.
Quantitative methods to model performance across environments and target optimal adaptation.
Reproducible R tools that make advanced statistical methods usable in practical breeding workflows.
International courses and workshops advancing genomic selection knowledge worldwide.
R packages for genomic selection, mating optimization, and training set design.
Javier Fernández González · Seif Maetwally · Julio Isidro Sánchez
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.
Simon Rio · Humberto Fanelli · Julio Isidro Sánchez
Calculate BLUP of genotype-by-environment metrics: ecovalence, environmental variance, Finlay–Wilkinson regression, and Lin & Binns superiority measure.
Deniz Akdemir · Julio Isidro y Sánchez
Optimization of training set selection via metaheuristics (simulated annealing, genetic algorithms) to find the best subset that maximizes predictive ability in high-dimensional problems.
Deniz Akdemir · Mohamed Somo · Julio Isidro Sánchez
Combines partial covariance matrices using a Wishart-EM algorithm for independent trials, multi-view relationship data from genomic experiments, and Gaussian graphs.
Deniz Akdemir · Julio Isidro Sánchez · Hanna Haikka · Itaraju Baracuhy Brum
Implements the mate selection approach for efficient breeding by genomic mating, as published in Frontiers in Genetics (2016).
Group Leader · Associate Professor
Associate Professor at Universidad Politécnica de Madrid (UPM) and Group Leader at CBGP. His research focuses on quantitative genetics, genomic selection, and the development of computational tools for crop improvement. He has led projects funded by the EU Horizon 2020, and AEI and with industry partners across Europe, North America and Asia.
Current Members
Juan Manuel Gallego Rabadan
Master Student
Inés Vegas Lorenzo
Technician
Naomi López Angulo
Technician
Angela Cardozo
Technician
Alumni
Deniz Akdemir
Be The Match
Simon Rio
CIRAD, Montpellier
Advancing genomic selection knowledge through formal courses, international workshops, and open resources.
Quantitative Genetics and Plant Breeding
Graduate-level course on statistical methods in plant breeding, genomic selection theory, and practical applications in R. UPM, recurring.
Genomic Selection Training Workshops
Hands-on training in genomic prediction methods, GBLUP, and training population optimization using our open-source tools. Delivered internationally.
PhD & MSc Student Supervision
Mentoring graduate students in quantitative genetics, bioinformatics, and computational breeding at UPM and international partner institutions.
Teaching Resources
Green bar = active project
Breed-E-Omics: Genomic Approach for Sustainable Spelt Agriculture
InnoVar: Next Generation Variety Testing for Improved Cropping
HealthyOats: Innovation in Oat Product Development
WheatSustain: Knowledge-driven Genomic Predictions for Sustainable Disease Resistance
Effect of Soil Water Content on Seedling Emergence in Small-grain Cereals
Developing Multi-use Barley to Improve the Organic Irish Market
CONSUS: Crop Optimization through Sensing, Understanding & Visualization
Oats for the Future: Host Resistance and RNAi to Minimize Mycotoxin Contamination
CTAG: Canadian Triticum Applied Genomics
Combining Genomic Approaches to Study Host-Pathogen Relationships in Wheat and Septoria
Genomic-Assisted Breeding for Sustainable Agriculture: A Reference Approach
Machine Learning Approaches Applied to Genomic-Assisted Breeding
Genomic-Assisted Breeding Applied to Sunflower Improvement (Syngenta)
WheatRes: Identification of New Sources of Horizontal Resistance to Septoria and Rust
Breeding Tools to Harness Yield Productivity by Applying Genomic Selection
Oat PanGenome Consortium
Svevo Platinum Genome Consortium
TRENDING_Wheat: Improving Accuracy and Efficiency of Selection for Complex Traits
We are grateful for support from leading research funding organizations.
Interested in scientific collaboration, industry partnerships, or joining the lab as a PhD student or postdoc? We welcome enquiries.
For prospective graduate students: please review our open projects and include a brief research statement with your enquiry.
The Rocinante Lab