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Adulteration Detection of Multi-Species Vegetable Oils in Camellia Oil Using SICRIT-HRMS and Machine Learning Methods
Mei Wang1, Ting Liu1, Han Liao1
1Ganzhou General Inspection and Testing Institute, China National Quality and Inspection Center for Se-Rich and Camellia Oleifera Products (Jiangxi), Ganzhou 341000, China.
This study developed a rapid method using soft ionization by chemical reaction in transfer-high-resolution mass spectrometry (SICRIT-HRMS) and machine learning to detect and quantify vegetable oil adulterations in camellia oil (CAO). The combined approach accurately identified and measured multiple oil contaminants, ensuring edible oil authenticity.
Area of Science:
- Analytical Chemistry
- Food Science
- Spectrometry
- Machine Learning
Background:
- Camellia oil (CAO) adulteration with cheaper vegetable oils is a significant concern for food authenticity.
- Accurate and rapid detection methods are crucial for ensuring the quality and safety of edible oils.
- Existing methods may lack the sensitivity or throughput required for comprehensive adulteration analysis.
Purpose of the Study:
- To establish a rapid and precise method for identifying and quantifying multi-species vegetable oil adulterations in camellia oil (CAO).
- To evaluate the effectiveness of soft ionization by chemical reaction in transfer-high-resolution mass spectrometry (SICRIT-HRMS) coupled with machine learning algorithms.
- To provide a reference for developing non-targeted, high-throughput detection methods for edible oil authenticity.
Main Methods:
- Utilized SICRIT-HRMS to characterize the volatile profiles of pure and adulterated CAO samples.
- Employed various machine learning algorithms (CNN, RF, GBT, SVM, LR) for qualitative detection and quantitative prediction.
- Applied dimensionality reduction techniques (PCA, UMAP) alongside feature selection methods.
Main Results:
- SICRIT-HRMS effectively characterized volatile profiles, with the low m/z region (100-300) being important for classification.
- Machine learning models achieved high accuracies (98.70-100.00%) for qualitative detection and robust performance in multiclass classification (RF: 96.25-99.45%).
- The PCA-CNN model demonstrated optimal quantitative prediction of adulteration levels, showing high coefficients of determination and low error rates for olive oil (OLO) and sunflower oil (SUO).
Conclusions:
- The combination of SICRIT-HRMS and machine learning provides a rapid and accurate solution for identifying and quantifying multi-species vegetable oil adulterations in CAO.
- This approach offers a reliable tool for ensuring edible oil authenticity and combating fraudulent practices.
- The developed method serves as a valuable reference for future high-throughput, non-targeted edible oil analysis.
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