Streamlined Sample Cleanup: Small Molecule Fractionation and Extraction Via Low-Volume Polymer Monolithic Columns for In-Line Analysis.

IF 1.3 4区 化学 Q4 BIOCHEMICAL RESEARCH METHODS
Ischa Bremer, Charles Clark, Bert Wouters, Amy Harms, Thomas Hankemeier
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Abstract

Polymer monoliths are stationary-phase materials for liquid chromatography and solid-phase extraction. Their porous structure, tuneability and simple synthesis enable tailoring to specific analysis requirements in analytical chemistry. Typically, polymer monoliths are used to separate larger biomolecules. Due to their lower binding capacity, the applications of polymer monoliths for the chromatographic separation of small molecules remain limited. However, recent literature has shown that polymer monoliths have the potential for the extraction of small molecules. In this research, butyl methacrylate-co-ethylene glycol dimethacrylate polymer monoliths were synthesized using localized UV polymerization in capillaries. The performance of reversed-phase polymer monoliths in automated in-line solid-phase extraction-mass spectrometry was demonstrated by the analysis of endocannabinoids from neat standard mixes and spiked cell culture media without prior sample preparation. The synthesized monoliths exhibited a binding capacity of 1896 pmol. Furthermore, we showed the repeatability of the monolith synthesis, with a variance in permeability of 19%. The system's stability is demonstrated through the analysis of multiple batches, comparing different monoliths and reusing the same monolith repeatedly, resulting in relative standard deviations (RSDs) below 20% for all extracted compounds. This automated method with hyphenated mass spectrometry improves throughput over previous manual monolithic extractions for small molecules.

流线型样品清理:小分子分离和提取通过小体积聚合物整体柱进行在线分析。
聚合物单体是液相色谱和固相萃取的固定相材料。它们的多孔结构,可调性和简单的合成使其能够在分析化学中适应特定的分析要求。通常,聚合物单体用于分离较大的生物分子。由于其结合能力较低,聚合物单体在小分子色谱分离中的应用仍然有限。然而,最近的文献表明,聚合物单体具有提取小分子的潜力。在本研究中,甲基丙烯酸丁酯-共乙二醇二甲基丙烯酸酯聚合物单体采用局部紫外光聚合在毛细管中合成。反相聚合物单体在自动在线固相萃取-质谱分析中的性能得到了验证,该方法可以在不事先制备样品的情况下从标准混合物和加标细胞培养基中分析内源性大麻素。合成的单体体的结合力为1896 pmol。此外,我们证明了整体合成的重复性,渗透率的变化为19%。通过多批分析、比较不同的单体和重复使用同一单体,证明了该体系的稳定性,所有提取化合物的相对标准偏差(rsd)均低于20%。这种带有连字符质谱的自动化方法比以前的手工单片提取小分子提高了吞吐量。
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来源期刊
CiteScore
2.90
自引率
7.70%
发文量
94
审稿时长
5.6 months
期刊介绍: The Journal of Chromatographic Science is devoted to the dissemination of information concerning all methods of chromatographic analysis. The standard manuscript is a description of recent original research that covers any or all phases of a specific separation problem, principle, or method. Manuscripts which have a high degree of novelty and fundamental significance to the field of separation science are particularly encouraged. It is expected the authors will clearly state in the Introduction how their method compares in some markedly new and improved way to previous published related methods. Analytical performance characteristics of new methods including sensitivity, tested limits of detection or quantification, accuracy, precision, and specificity should be provided. Manuscripts which describe a straightforward extension of a known analytical method or an application to a previously analyzed and/or uncomplicated sample matrix will not normally be reviewed favorably. Manuscripts in which mass spectrometry is the dominant analytical method and chromatography is of marked secondary importance may be declined.
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