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Structured Multimodal Deep Learning improves Genomic Prediction in Future Environments
Aike Potze1, Fred van Eeuwijk2, Ioannis N Athanasiadis1
1Artificial Intelligence Group, Wageningen University and Research, 6708 PB Wageningen, The Netherlands.
Genetics
|August 11, 2026
Summary
Structured Interaction Neural Network (SINN) improves genomic prediction by combining statistical genetics and deep learning. This approach enhances yield prediction accuracy in maize by modeling genetic and environmental interactions more effectively.
Area of Science:
- Genetics
- Plant Breeding
- Machine Learning
- Bioinformatics
Background:
- Predicting crop phenotypes from genetic and environmental data is crucial for plant breeding.
- Deep neural networks (DNNs) show promise for modeling complex biological processes but often underperform linear models.
- Existing DNNs struggle with issues like greedy learning and over-reliance on single data types, limiting their effectiveness in genotype-by-environment interaction prediction.
Purpose of the Study:
- To develop a novel deep learning framework, the Structured Interaction Neural Network (SINN), for accurate phenotype prediction.
- To address the limitations of current deep learning methods in capturing genotype-by-environment interactions.
- To improve genomic prediction accuracy for crop yield in new environments and genotypes.
Main Methods:
- Developed SINN, integrating statistical decomposition of genetic, environmental, and interaction effects with DNNs.
- Dissected phenotype prediction into isolated component modeling tasks to identify generalization limitations.
- Evaluated SINN on two large-scale maize multi-environment trial datasets (Genomes to Fields and MaizeGEP).
Main Results:
- SINN demonstrated superior yield prediction accuracy compared to traditional BLUP-based methods and previous DNNs on both datasets.
- On the Genomes to Fields dataset, SINN achieved higher accuracy (0.63 vs. 0.43) and lower RMSE (2.40 vs. 2.46 Mg/ha) than benchmarks.
- On the MaizeGEP dataset, SINN also outperformed benchmarks with higher accuracy (0.79 vs. 0.49).
Conclusions:
- SINN effectively combines statistical genetics principles with deep learning for enhanced genomic prediction.
- The model's modular approach improves the understanding of prediction limitations, particularly generalization to new environments.
- SINN offers an accurate, modular, and scalable solution for genomic prediction in diverse agricultural settings.
Keywords:
GxExMPlantaegenomic predictiongenomic selectiongenotype-by-environment interactionmultimodal deep learningplant breeding
