利用偏最小二乘法回归和通过竞争性自适应再加权抽样算法选择的分子描述符预测大豆油中农药残留的模型

Yonghong Shi , Fengzhong Wang , Hong Xie , Bei Fan , Long li , Zhiqiang Kong , Yatao Huang , Zhipeng Wang , Daoyong Lei , Minmin Li
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引用次数: 0

摘要

我们建立了一个基于竞争性自适应加权采样(CARS)的偏最小二乘回归(PLSR)模型,用于预测大豆油加工过程中 54 种农药的加工因素。选择特征变量是为了提高模型的性能。使用了四种计算器来计算模型中使用的分子描述符,其中基于 ChemoPy 计算值的模型结果最佳:热榨油的 Rc = 0.94、RMSEc = 0.67、Rp = 0.91 和 RMSEp = 0.54;冷榨油的 Rc = 0.93、RMSEc = 0.73、Rp = 0.93 和 RMSEp = 0.59。建立了一个快速定量的加工因素模型,用于预测食品加工过程中农药残留的行为和分布。该模型利用田间种植的大豆数据进行了进一步验证;结果表明,预测的残留浓度与测量的残留浓度之间具有很高的相关系数(Rp > 0.93,RMSEp < 0.72),并成功预测了农药残留的分布和行为。我们的模型为评估安全风险和确定加工产品中农药的最大残留限量提供了参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Model for prediction of pesticide residues in soybean oil using partial least squares regression with molecular descriptors selected by a competitive adaptive reweighted sampling algorithm

We developed a partial least squares regression (PLSR) model based on competitive adaptive reweighted sampling (CARS) to predict the processing factors of 54 pesticides during soybean oil processing. Characteristic variables were selected to improve the performance of the model. Four calculators were used to compute the molecular descriptors used in the model, and the model based on values computed with ChemoPy produced the best results: Rc ​= ​0.94, RMSEc ​= ​0.67, Rp ​= ​0.91, and RMSEp ​= ​0.54 for hot-pressed oil and Rc ​= ​0.93, RMSEc ​= ​0.73, Rp ​= ​0.93, and RMSEp ​= ​0.59 for cold-pressed oil. A rapid and quantitative model of processing factors was established to predict the behaviour and distribution of pesticide residues during food processing. The model was further validated using data from field-grown soybeans; it demonstrated a high correlation coefficient between predicted and measured residue concentrations (Rp ​> ​0.93, RMSEp ​< ​0.72) and successfully predicted the distribution and behaviour of pesticide residues. Our model provides a reference for assessing safety risk and determining the maximum residue limits for pesticides in processed products.

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