A Potential Method for Identifying Milk Adulteration and Pb(II) Contamination Scenarios Using Principal Component Analysis from Smartphone Photographs

Alicia Catelyn Chandra, Cheralyn Clarecia Lianto, Felicia Liem Sulimro, Gabriella Anna Santoso, Michelle Aiko Wang, Lie Miah, Norbertus Krisnu Prabowo
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Abstract

Heavy metal contaminants and adulteration in cow milk products are major issues affecting milk safety and quality, posing health risks to consumers of all ages. These contaminants are sometimes difficult to detect with the naked eye and can potentially pass sensory tests, particularly in white cow milk. This research explores the detection of lead(II) poisoning in milk post-production and the adulteration of different milk samples using an alternative approach through chemometric techniques based on RGB and Grey Area image analysis. A controlled photography environment was used. We analyzed over 105 samples of control, adulterated, and lead(II)-added milk in this study using image processing software. Each photograph was analyzed to provide triplicate Regions of Interest (ROI), resulting in a total of 315 statistical datasets. We found that Principal Component Analysis (PCA) effectively clustered control white milk and Pb(II)-contaminated milk. Clusters of different adulterants were recognized simply by feeding RGB and Grey Area data into PCA. However, some clusters, such as mixed chocolate milk and white milk with lead(II) contamination, were not well distinguished. In this early-stage method, a comparison study with infrared spectra will be required in future research. This alternative method shows potential promise for deployment in limited settings for real-world food quality surveillance, regulation, and biochemistry experiments.
利用智能手机照片的主成分分析识别牛奶掺假和铅(II)污染情况的潜在方法
牛奶产品中的重金属污染物和掺假是影响牛奶安全和质量的主要问题,对所有年龄段的消费者都构成健康风险。这些污染物有时很难用肉眼检测出来,而且有可能通过感官检测,特别是在白牛奶中。本研究通过基于 RGB 和灰域图像分析的化学计量技术,采用另一种方法探索牛奶后期生产中铅(II)中毒的检测以及不同牛奶样本的掺假情况。我们使用了受控摄影环境。在这项研究中,我们使用图像处理软件分析了超过 105 个对照、掺假和添加铅(II)的牛奶样本。每张照片都经过分析,以提供一式三份的感兴趣区 (ROI),从而得到总共 315 个统计数据集。我们发现,主成分分析法(PCA)能有效地对对照组白奶和受铅(II)污染的牛奶进行聚类。只需将 RGB 和灰域数据输入 PCA,就能识别出不同掺假物质的聚类。不过,有些聚类,如混合巧克力牛奶和含铅(II)污染的白奶,并不能很好地区分。在这种早期阶段的方法中,未来的研究还需要与红外光谱进行比较研究。这种替代方法显示了在实际食品质量监测、监管和生化实验的有限环境中应用的潜在前景。
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