The Plant GenomeGenomicsPeer-reviewed journal article
Introducing CHiDO a No Code Genomic Prediction Software implementation for the Characterization & Integration of Driven Omics
Francisco González, Julián García‐AbadilloiD, Diego JarquíniD
Abstract
Climate change represents a significant challenge to global food security by altering environmental conditions critical to crop growth. Plant breeders can play a key role in mitigating these challenges by developing more resilient crop varieties; however, these efforts require significant investments in resources and time. In response, it is imperative to use current technologies that assimilate large biological and environmental datasets into predictive models to accelerate the research, development, and release of new improved varieties. Leveraging large and diverse data sets can improve the characterization of phenotypic responses due to environmental stimuli and genomic pulses. A better characterization of these signals holds the potential to enhance our ability to predict trait performance under changes in weather and/or soil conditions with high precision. This paper introduces CHiDO, an easy-to-use, no-code platform designed to integrate diverse omics datasets and effectively model their interactions. With its flexibility to integrate and process data sets, CHiDOs intuitive interface allows users to explore historical data, formulate hypotheses, and optimize data collection strategies for future scenarios. The platforms mission emphasizes global accessibility, democratizing statistical solutions for situations where professional ability in data processing and data analysis is not available. Core ideasO_LIThe authors developed CHiDO, a platform for breeders to build predictive models integrating multi-omics data. C_LIO_LICHiDO is a no-code tool that leverages the reaction norm model proposed by Jarquin et al. (2014). C_LIO_LIThe platform aims to increase access to predictive analytics lowering relevant technical and financial barriers. C_LI
- organism: plant (other)
- assay: GWAS summary statistics
- assay: bulk RNA-seq
- research focus: benchmarking
- research focus: database / resource
- research focus: software / tool
- approach: statistical model
- Citations
- 18
- FWCI
- 2.44
- Field percentile
- top 9%
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- High-dimensional multi-omics measured in controlled conditions are useful for maize platform and field trait predictions
A Baber, Huguenin-Bizot Bertrand, … Renaud Rincent·bioRxiv·May 30, 2024
- Reaction Norm Modeling of High-Dimensional Genomic and Environmental Data Improves Prediction Accuracy in Winter Wheat
Shailesh Raj Acharya, Julián García‐Abadillo, … Nonoy B. Bandillo·The Plant GenomePeer-reviewed·Oct 27, 2026
- Imitating the 'breeder's eye': predicting grain yield from measurements of non-yield traits
Hongyu Jin, Michael C. Tross, … James C. Schnable·The Plant Phenome JournalPeer-reviewed·Apr 29, 2024
- Plant Breeding in the face of climate change
C. Messina, M. Cooper·bioRxiv·Oct 7, 2022
- Reciprocal BLUP: A Predictability-Guided Multi-Omics Framework for Plant Phenotype Prediction
Hayato Yoshioka, Gota Morota, Hiroyoshi Iwata·PlantsPeer-reviewed·Dec 20, 2025
- iGS: A Zero-Code Dual-Engine Graphical Software for Polygenic Trait Prediction
Jiahao Zhang, Fei Chen·bioRxiv·Mar 3, 2026