NIRS-Based Prediction for Protein, Oil, and Fatty Acids in Soybean (Glycine max (L.) Merrill) Seeds

IF 2.6 3区 农林科学 Q2 FOOD SCIENCE & TECHNOLOGY
Yakubu A. B., Shaibu A. S., Mohammed S. G., Ibrahim H., Mohammed I. B.
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Abstract

To identify a fast and non-destructive way to determine nutritional traits in soybean, a study was conducted using near-infrared spectroscopy (NIRS) to quantify the oil, protein, and fatty acid contents in soybean seeds. Three hundred soybean accessions obtained from the International Institute of Tropical Agriculture and six varieties were evaluated at two locations in 2021. Fifty random samples of the soybean accessions were scanned over a wavelength of 400–2500 nm at every 0.5 nm interval at the instrumentation laboratory of the Centre for Dryland Agriculture. The spectral data was analyzed using multivariate data analysis software (Unscrambler v9.7). Partial least square analysis was performed on the spectral data and derivative data to determine the best calibration model based on standard error of calibration and R2. Goodness of fit was evaluated based on standard error of prediction and the residual percent deviation. Calibration models developed using absorbance gave an R2 ranging from 0.991 to 1.000 while that of reflectance ranges from 0.993 to 0.997. Standard error of calibration (SEC) values was between 0.160 and 2.093 for the absorbance groups and 0.166 and 1.376 for the reflectance group. Residual percent deviation (RPD) values greater than 5.0 were obtained using both absorbance and reflectance data for oil and protein, and this signifies that the models were good for quality control and analysis. The result showed an excellent correlation (> 97%) between the predicted and references for all the nutritional traits studied which makes the models good predictors. The developed model was used to predict the oil, protein, and fatty acids of the 306 soybean genotypes, and the observed values were within the reported range for soybean seeds. Thus, NIRS can be used to quantify the nutritional contents of seeds, and it is fast, accurate, and non-destructive.

Abstract Image

基于近红外光谱的大豆(Glycine max (L.) Merrill)种子蛋白质、油脂和脂肪酸预测
为了找到一种快速、非破坏性的方法来确定大豆的营养性状,研究人员使用近红外光谱(NIRS)来量化大豆种子中的油、蛋白质和脂肪酸含量。在 2021 年的两个地点,对从国际热带农业研究所获得的 300 个大豆品种和 6 个品种进行了评估。在旱地农业中心的仪器实验室中,随机抽取了 50 份大豆样本,在波长为 400-2500 nm 的范围内以每 0.5 nm 的间隔进行扫描。光谱数据使用多元数据分析软件(Unscrambler v9.7)进行分析。对光谱数据和导数数据进行偏最小二乘法分析,根据校准标准误差和 R2 确定最佳校准模型。拟合优度根据预测标准误差和残差百分比偏差进行评估。使用吸光度建立的校准模型的 R2 为 0.991 至 1.000,而反射率的 R2 为 0.993 至 0.997。吸光度组的校准标准误差 (SEC) 值介于 0.160 和 2.093 之间,反射率组的校准标准误差 (SEC) 值介于 0.166 和 1.376 之间。油脂和蛋白质的吸光度和反射率数据的残差百分比偏差 (RPD) 值均大于 5.0,这表明模型在质量控制和分析方面表现良好。结果表明,在所研究的所有营养性状中,预测值与参考值之间的相关性极高(97%),这使模型成为良好的预测工具。所开发的模型用于预测 306 种大豆基因型的油、蛋白质和脂肪酸,观察到的值在报告的大豆种子范围内。因此,近红外光谱可用于量化种子的营养成分,而且快速、准确、无损。
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来源期刊
Food Analytical Methods
Food Analytical Methods 农林科学-食品科技
CiteScore
6.00
自引率
3.40%
发文量
244
审稿时长
3.1 months
期刊介绍: Food Analytical Methods publishes original articles, review articles, and notes on novel and/or state-of-the-art analytical methods or issues to be solved, as well as significant improvements or interesting applications to existing methods. These include analytical technology and methodology for food microbial contaminants, food chemistry and toxicology, food quality, food authenticity and food traceability. The journal covers fundamental and specific aspects of the development, optimization, and practical implementation in routine laboratories, and validation of food analytical methods for the monitoring of food safety and quality.
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