Digital organism technology for enhanced genomic prediction of complex crop traits

Technology
In development
Company

iMEAN's digital organism platform combines genome-scale molecular network models with genomic selection to predict complex crop traits like yield with up to 50% greater accuracy. Validated on Arabidopsis, this computational biology solution helps breeding programs accelerate variety development and optimize performance predictions for crops such as maize, soybean, and rapeseed.

Overview

iMEAN offers a digital organism technology that integrates causal molecular network modeling with genomic selection to improve prediction accuracy for complex crop traits. Traditional genomic selection methods often struggle to capture the genetics underlying complex traits such as yield. By incorporating a mathematical model—an in silico "digital crop"—that simulates plant behavior based on genome-scale metabolic networks, immune system networks, and environmental constraints, the platform delivers more precise predictions grounded in causal biological mechanisms rather than purely statistical associations.

This approach is particularly valuable for breeding programs seeking to accelerate variety selection, optimize yield prediction, and improve quantitative disease resistance. The technology has demonstrated a 50% increase in predictive accuracy for genotype performance across multiple traits, making it a compelling tool for seed companies and agricultural biotechnology firms aiming to reduce breeding cycle times and improve decision-making.

Technical specifications
  • Digital organism modeling: Reconstructs genome-scale molecular networks from genetic data and omics datasets to simulate plant physiology, development, and pathogen responses
  • Causal prediction framework: Integrates mechanistic understanding of molecular networks with genomic selection to improve accuracy for complex, polygenic traits
  • Validated traits: Seed production, vegetative growth, quantitative disease resistance, and flowering time
  • Data inputs: SNP genotypes, molecular network data, and environmental constraints
  • POC results: Achieved up to 50% improvement in predictive accuracy using 310 natural Arabidopsis thaliana lines with 1.9 million SNPs, validated under both greenhouse and field conditions
  • Broad applicability: Platform architecture supports multiple crop species, with maize, soybean, and rapeseed identified as priority targets for industrial validation
Technology readiness level

The technology is currently at TRL 6, having been validated through a proof-of-concept study on Arabidopsis thaliana in both greenhouse and field conditions. iMEAN aims to advance the technology to TRL 8–9 by reconstructing digital organisms for commercial crops and conducting experimental validation in field conditions. Two validation pathways are planned: partnering with breeding companies to test predictions on proprietary crops and traits of interest, or subcontracting phenotyping assays with specialized facilities. This positions the technology for near-term commercial deployment in agricultural breeding pipelines.


About iMEAN

iMEAN is a deeptech company specializing in computational modeling and predictive biology. The company reconstructs digital organisms—mathematical representations of molecular networks at the genome scale—to simulate complex biological systems. Using an in-house platform that combines proprietary databases, algorithms, and expert curation, iMEAN generates high-quality predictive models from DNA sequences and omics datasets. These tools help researchers and biotechnology companies extract actionable biological insights, identify metabolic targets, and optimize bioprocesses across agriculture, food, environmental, and health sectors.

By providing these in silico services, iMEAN enables customers to accelerate R&D and improve the efficiency of their biological projects. The company has supported industrial and academic partners by resolving bottlenecks and delivering models that have reached industrial scale. Notable collaborations include work in sustainable crop protection and participation in the Ferments du Futur consortium to drive innovation in fermented foods and biopreservation. With a team of scientists focused on systems biology and biostatistics, iMEAN supports the transition toward more sustainable industrial practices through data-driven prediction and analysis.

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