Feature engineering of environmental covariates improves plant genomic-enabled prediction

O. Montesinos-López, L. Crespo-Herrera, Carolina Saint Pierre, Bernabe Cano-Páez, Gloria Isabel Huerta-Prado, B. A. Mosqueda-González, Sofia Ramos-Pulido, Guillermo Gerard, Khalid Alnowibet, Roberto Fritsche-Neto, A. Montesinos-López, J. Crossa
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Abstract

Because Genomic selection (GS) is a predictive methodology, it needs to guarantee high-prediction accuracies for practical implementations. However, since many factors affect the prediction performance of this methodology, its practical implementation still needs to be improved in many breeding programs. For this reason, many strategies have been explored to improve the prediction performance of this methodology.When environmental covariates are incorporated as inputs in the genomic prediction models, this information only sometimes helps increase prediction performance. For this reason, this investigation explores the use of feature engineering on the environmental covariates to enhance the prediction performance of genomic prediction models.We found that across data sets, feature engineering helps reduce prediction error regarding only the inclusion of the environmental covariates without feature engineering by 761.625% across predictors. These results are very promising regarding the potential of feature engineering to enhance prediction accuracy. However, since a significant gain in prediction accuracy was observed in only some data sets, further research is required to guarantee a robust feature engineering strategy to incorporate the environmental covariates.
环境协变量特征工程改善了植物基因组预测功能
基因组选择(GS)是一种预测方法,因此在实际应用中需要保证较高的预测精度。然而,由于影响该方法预测性能的因素很多,因此在许多育种项目中,该方法的实际应用仍有待改进。因此,人们探索了许多策略来提高该方法的预测性能。当环境协变量作为输入被纳入基因组预测模型时,这些信息有时只能帮助提高预测性能。因此,本研究探索了在环境协变量上使用特征工程来提高基因组预测模型的预测性能。我们发现,在不同的数据集中,与只包含环境协变量而不包含特征工程相比,特征工程有助于将预测误差减少 761.625%。就特征工程提高预测准确性的潜力而言,这些结果是非常有前景的。然而,由于仅在部分数据集上观察到预测准确率的显著提高,因此还需要进一步研究,以确保采用稳健的特征工程策略来纳入环境协变量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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