GIPA: A High-Throughput Computational Toolkit for Genomic Identity and Parentage Analysis in Modern Crop Breeding

Modern crop breeding requires efficient tools for genetic identity and parentage verification to manage large-scale programs. To address this, we present GIPA (Genomic Identity and Parentage Analysis), a high-performance toolkit designed for these tasks. GIPA integrates key innovations: a sliding-window algorithm enhances accuracy by correcting genotyping errors, an intelligent system classifies samples by heterozygosity to streamline parentage analysis, and an integrated engine generates intuitive chromosome-level heatmaps. We demonstrate its utility in a soybean backcrossing scenario, where it identified a donor line with 98.02% genomic identity to the recipient, providing a strategy to significantly shorten the breeding program. In maize, its parentage module accurately identified the known parents of commercial hybrids with match scores exceeding 97%, validating its use for variety authentication and quality control. By transforming complex SNP data into clear, quantitative, and visual insights, GIPA provides a robust solution that accelerates data-driven decision-making in plant breeding.

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Journal
Agronomy
Published
2025-10-21
DOI
https://doi.org/10.3390/agronomy15102441
Primary Topic
Gene expression and cancer classification
Type
article
Field-Weighted Citation Impact
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article

GIPA: A High-Throughput Computational Toolkit for Genomic Identity and Parentage Analysis in Modern Crop Breeding

Yifan Yu, Yuxuan Ye, Yue Wan, Xiaoya Ma et al.
Agronomy
Gene expression and cancer classification
article

GIPA: A High-Throughput Computational Toolkit for Genomic Identity and Parentage Analysis in Modern Crop Breeding

Yifan Yu, Yuxuan Ye, Yue Wan, Xiaoya Ma, Zhicheng Shen
article en

Abstract

Modern crop breeding requires efficient tools for genetic identity and parentage verification to manage large-scale programs. To address this, we present GIPA (Genomic Identity and Parentage Analysis), a high-performance toolkit designed for these tasks. GIPA integrates key innovations: a sliding-window algorithm enhances accuracy by correcting genotyping errors, an intelligent system classifies samples by heterozygosity to streamline parentage analysis, and an integrated engine generates intuitive chromosome-level heatmaps. We demonstrate its utility in a soybean backcrossing scenario, where it identified a donor line with 98.02% genomic identity to the recipient, providing a strategy to significantly shorten the breeding program. In maize, its parentage module accurately identified the known parents of commercial hybrids with match scores exceeding 97%, validating its use for variety authentication and quality control. By transforming complex SNP data into clear, quantitative, and visual insights, GIPA provides a robust solution that accelerates data-driven decision-making in plant breeding.

AgronomyVol. 15(10)
State Key Laboratory of Rice Biology, Zhejiang University (CN)
Openalex Percentile: Top 73%
Gene expression and cancer classification
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GIPA: A High-Throughput Computational Toolkit for Genomic Identity and Parentage Analysis in Modern Crop Breeding — Yifan Yu, Yuxuan Ye, et al. · Agronomy (2025) | TGRS Research Map | TGRS