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不同种皮颜色花生糖含量近红外模型的构建
引用本文:陈 淼,侯名语,崔顺立,李 振,穆国俊,刘盈茹,李秀坤,刘立峰. 不同种皮颜色花生糖含量近红外模型的构建[J]. 光谱学与光谱分析, 2022, 42(9): 2896-2902. DOI: 10.3964/j.issn.1000-0593(2022)09-2896-07
作者姓名:陈 淼  侯名语  崔顺立  李 振  穆国俊  刘盈茹  李秀坤  刘立峰
作者单位:华北作物改良与调控国家重点实验室,华北作物种质资源研究与利用教育部重点实验室,
河北省作物种质资源实验室,河北农业大学农学院,河北 保定 071001
基金项目:国家自然科学基金项目(320720971004224), 河北省现代农业产业技术体系建设专项“河北省油料创新团队”(HBCT2018090202)资助
摘    要:花生籽仁中的糖含量是影响食味品质的重要指标,建立快速测定糖含量的方法可有效提高食用型花生的检测效率。样品外观颜色是影响近红外分析的重要因素之一,按样品外观颜色分类定标(校正)更有利于提高模型的预测性能。研究选择不同糖含量的花生种质332个,采用色差仪将花生种质按种皮颜色分成黑紫色、红色和粉色三大类。采用3,5-二硝基水杨酸法、蒽酮乙酸乙酯法、蔗糖酶法分别测定籽粒中的总糖、可溶性糖及蔗糖含量。总糖含量分别在6.42%~39.53%(黑紫色籽粒)、 9.66%~39.71%(红色籽粒)和8.52%~38.84%(粉色籽粒)之间;可溶性糖含量分别在2.4%~14.32%(黑紫色籽粒)、 2.94%~13.75%(红色籽粒)和2.19%~14.53%(粉色籽粒)之间;蔗糖含量分别在0.92%~7.53%(黑紫色籽粒)、 1.05%~7.23%(红色籽粒)和0.95%~7.99%(粉色籽粒)之间,变异系数均在33%以上。采用瑞典波通DA7250型近红外分析仪(950~1 650 nm)采集籽粒的近红外光谱值,选用基于全波段的偏最小二乘回归法(PLSR),通过对比单一和复合预处理方法,对比模型的相...

关 键 词:花生  近红外光谱分析  种皮颜色  蔗糖含量  可溶性糖含量  总糖含量
收稿时间:2021-08-19

Construction of Near-Infrared Model of Peanut Sugar Content in Different Seed Coat Colors
CHEN Miao,HOU Ming-yu,CUI Shun-li,LI Zhen,MU Guo-jun,LIU Ying-ru,LI Xiu-kun,LIU Li-feng. Construction of Near-Infrared Model of Peanut Sugar Content in Different Seed Coat Colors[J]. Spectroscopy and Spectral Analysis, 2022, 42(9): 2896-2902. DOI: 10.3964/j.issn.1000-0593(2022)09-2896-07
Authors:CHEN Miao  HOU Ming-yu  CUI Shun-li  LI Zhen  MU Guo-jun  LIU Ying-ru  LI Xiu-kun  LIU Li-feng
Affiliation:State Key Laboratory of North China Crop Improvement and Regulation, Key Laboratory for Crop Germplasm Resources Research and Utilization in North China, Ministry of Education, Key Laboratory for Crop Germplasm Resources in Hebei Province, Hebei Agricultural University, Baoding 071001, China
Abstract:The sugar content of peanut seeds is an important indicator that affects the quality of eating. Establishing a method for rapidly determining sugar content can effectively improve the detection efficiency of edible peanuts. The appearance color of the sample is one of the important factors that affect the near-infrared analysis. Classification and correction according to the appearance color of the sample are more conducive to improving the model’s the model’s predictive performance. Therefore in this study, 332 peanut germplasms with different sugar content were selected, and the peanut germplasms were divided into three categories: black-purple, red, and pink, according to the seed coat color using a colorimeter. The 3,5-dinitrosalicylic acid, anthrone colorimetric, and sucrose enzymatic methods were used to determine the total sugar, soluble, and sucrose content in seeds, respectively. The total sugar content was 6.42%~39.53% (blackpurple peanuts), 9.66%~39.71% (red peanuts), and 8.52~38.84 (pink peanuts). The soluble sugar content was 2.4%~14.32% (blackpurple peanuts), 2.94%~13.75% (red peanuts), 2.19%~14.53% (pink peanuts), and the sucrose content was 0.92%~7.53% (blackpurple peanuts), 1.05%~7.23% (red peanuts), 0.95%~7.99% (pink peanuts), the coefficient of variation was above 33%. The Perten DA7250 near-infrared analyzer (950~1 650 nm) was used to collect the near-infrared spectrum values of the seeds. The total 9 NIR spectroscopy calibration models about the total sugar content, soluble sugar content, and sucrose content of blackpurple, red, and pink peanut seeds were established respectively through the Partial Least Square Regression (PLSR) method based on the whole band, and the single or compound pretreatment methods, and comparing the correlation coefficient and error of the models. The correlation coefficient ofcorrection (Rc) was 0.883~0.925, and the root means standard error of calibration (RMSEC) was 0.370~1.988. In the model of total sugar content, the Rc of pink seed coat peanuts was 0.925, and the RMSEC was 1.705. In the model of soluble sugar content, the Rc of blackpurple seed coat peanuts was 0.921, and the RMSEC was 0.667. In the model of sucrose content, the Rc of blackpurple seed coat peanuts was 0.914, and the RMSEC was 0.435. External verification was carried out using 15 germplasms. The correlation coefficient of prediction (Rp) of the 9 models was 0.892~0.967, and the root means standard error of prediction (RMSEP) was 0.327~2.177. In this study, near-infrared models could predict the content of several sugars in peanut seeds simultantly and rapidly, and provide technical support for ediblepeanut breeding of high sugar content.
Keywords:Peanut  Near-infrared spectroscopy analysis  Seed coat color  Sucrose content  Soluble sugar content  Total sugar content  
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