M. A. Lewis, S. Trabelsi, R. S. Bennett, K. D. Chamberlin
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Such microwave measurements were taken for over 300 in-shell peanuts at 22 °C. The peanuts were divided into seven categories based on custom fillings to simulate diseased and damaged peanuts. One category, serving as the control, consisted of intact peanuts, while the other categories consisted of peanuts filled with coffee, cornstarch, and/or a single kernel. The measured resonant-cavity parameters and the calculated dielectric properties provided a means to characterize each in-shell peanut. Statistical analysis was performed to assess differentiation between the seven categories using those parameters. Kruskal–Wallis One-Way ANOVA on Ranks, Tukey test, and Dunn’s Method were used to determine which categories were statistically significantly different from each other for each parameter at the 95% confidence interval. 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引用次数: 0
摘要
花生收获后要经过例行程序,以评估质量,确定等级,并确定农民的收入额。水分含量和肉含量是评估花生等级的参数。这些参数是对质量通常为 1 千克的散装样本进行评估,得出的数值是散装样本中花生的平均值。这种方法具有破坏性,而且无法对单个带壳花生进行评估。因此,通过测量每粒花生在插入与矢量网络分析仪(VNA)相连的谐振腔后引起的谐振频率偏移和腔体传输特性的变化,对单粒带壳花生的特性进行了研究。这种微波测量是在 22 °C 下对 300 多颗带壳花生进行的。这些花生根据定制的填充物被分为七类,以模拟患病和受损的花生。其中一类作为对照,由完整的花生组成,而其他类别则由填充了咖啡、玉米淀粉和/或单一果仁的花生组成。通过测量谐振腔参数和计算介电特性,可以确定每种壳内花生的特征。使用这些参数进行了统计分析,以评估七个类别之间的差异。使用 Kruskal-Wallis 单向方差分析、Tukey 检验和 Dunn 方法来确定在 95% 的置信区间内,哪些类别的每个参数在统计上有显著差异。最后,研究人员利用人工智能建立模型,对花生进行准确分类。
Utilization of a Resonant Cavity for Characterization of Single In-Shell Peanuts
Peanuts are taken through routine postharvest procedures to assess quality, establish the grade, and determine the amount of revenue that the farmer will be allotted. Moisture content and meat content are examples of parameters determined to assess the grade of the peanuts. Such parameters are assessed for bulk samples usually with mass > 1 kg, and the resulting values are averages of peanuts within the bulk sample. Such processes are destructive and lack provision for assessment of single, in-shell peanuts. Thus, the characterization of single, in-shell peanuts was investigated by measuring the shift in resonant frequency and the change in cavity transmission characteristics caused by each peanut once inserted into a resonant cavity connected to a vector network analyzer (VNA). Such microwave measurements were taken for over 300 in-shell peanuts at 22 °C. The peanuts were divided into seven categories based on custom fillings to simulate diseased and damaged peanuts. One category, serving as the control, consisted of intact peanuts, while the other categories consisted of peanuts filled with coffee, cornstarch, and/or a single kernel. The measured resonant-cavity parameters and the calculated dielectric properties provided a means to characterize each in-shell peanut. Statistical analysis was performed to assess differentiation between the seven categories using those parameters. Kruskal–Wallis One-Way ANOVA on Ranks, Tukey test, and Dunn’s Method were used to determine which categories were statistically significantly different from each other for each parameter at the 95% confidence interval. Lastly, artificial intelligence was used to investigate the creation of models to accurately classify the peanuts.
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.