Yates Hans S A, Carter James F, Joseph Achamma, Chaussende Melody, Fletcher Mary T, Santiago Viviene, Hungerford Natasha L
Queensland Alliance for Agriculture and Food Innovation (QAAFI) The University of Queensland, Health and Food Sciences Precinct Coopers Plains Queensland Australia.
Queensland Health Forensic and Scientific Services (QHFSS) Health and Food Sciences Precinct Coopers Plains Queensland Australia.
Food Sci Nutr. 2025 Sep 26;13(10):e70855. doi: 10.1002/fsn3.70855. eCollection 2025 Oct.
This paper provides a decadal review of literature describing the analysis of simple saccharides and oligosaccharides in food by ion chromatography pulsed amperometric detection (IC/PAD) and ion chromatography mass spectrometry (IC/MS) as emerging techniques. The concentrations of these saccharides in food have important health implications and affect technical attributes of food quality. Saccharides have been analyzed over many decades using a diverse range of physical, chemical, and chromatographic techniques, each with their own advantages and disadvantages. In the past decade, ion chromatography (IC) has appeared as a contender with substantial benefits over established techniques. It is conducted without sample derivatization, unlike other techniques of comparable accuracy. Limits of detection (LOD) are also comparable, typically 20 μg/L when coupled with a pulsed amperometric detector or 1 mg/kg food using ion chromatography single quadrupole mass spectrometry. This compares to LODs of 2 g/kg food by high performance/liquid chromatography refractive index detector and 2 mg/kg food for gas chromatography/mass spectrometry. The main strength of ion chromatography is the specificity/differentiation of simple saccharides, that has resulted in the discoveries of several unreported saccharides in foods. Examples include isomaltose in flour, erlose in stingless bee honey and arabinose, ribose, rhamnose, xylose, mannose, trehalose, maltose and raffinose in paprika. Evolving future advantages of ion chromatography in saccharide analysis include the increasing utilization of mass spectrometry, more work towards a standardized analytical methodology, and the need to investigate new, novel and admixed food types so that instrumentation continues to demonstrate relevance at the cutting edge of food research.
本文对近十年来将离子色谱脉冲安培检测(IC/PAD)和离子色谱质谱联用(IC/MS)作为新兴技术用于食品中简单糖类和低聚糖分析的文献进行了综述。这些糖类在食品中的浓度对健康具有重要影响,并会影响食品质量的技术属性。几十年来,人们使用了多种物理、化学和色谱技术对糖类进行分析,每种技术都有其自身的优缺点。在过去十年中,离子色谱(IC)作为一种与现有技术相比具有显著优势的技术崭露头角。与其他精度相当的技术不同,它无需对样品进行衍生化处理。检测限(LOD)也相当,与脉冲安培检测器联用时通常为20μg/L,使用离子色谱单四极杆质谱时为1mg/kg食品。相比之下,高效液相色谱示差折光检测器的检测限为2g/kg食品,气相色谱/质谱的检测限为2mg/kg食品。离子色谱的主要优势在于对简单糖类的特异性/区分能力,这使得在食品中发现了几种未报道的糖类。例如面粉中的异麦芽糖、无刺蜂蜂蜜中的松二糖以及辣椒中的阿拉伯糖、核糖、鼠李糖、木糖、甘露糖、海藻糖、麦芽糖和棉子糖。离子色谱在糖类分析方面未来不断发展的优势包括质谱的使用越来越多、朝着标准化分析方法开展更多工作,以及需要研究新的、新颖的和混合的食品类型,以便该仪器在食品研究前沿继续显示其相关性。