Microwave-assisted extraction and matrix solid-phase dispersion as green analytical chemistry sample preparation techniques for the valorisation of mango processing waste

Mateus L. Segatto , Karine Zanotti , Vânia G. Zuin
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引用次数: 5

Abstract

Food supply chain waste is consisted not only by the visible part generated in commercial and consumer steps, but also by the residues generated during harvesting and processing of food-related plants. A great part of these materials is unavoidable, meaning that they cannot be prevented trough waste reduction policies currently being pushed to achieve better food distribution and end hunger across the globe. Valorising this waste stream may help increasing stability in the food sector, having not only a financial gain, but also an environmental and social positive impact. Mango Processing Waste (MPW) is one of the examples of how such residues are poorly explored, as its large volumes contain several valuable substances, such as bioactive compounds, that can be used in the food industry as ingredients and as nutraceuticals, pesticides in agriculture, biocides and other uses. The flavonol hyperoside and the xanthone mangiferin are the main secondary metabolites found in MPW, being reported to have biological activities that range from antioxidant to pesticidal and pharmacological potential uses. In a broader context considering the use of MPW in a biorefinery and circular economy concepts, sustainable processes are required to meet future sustainability parameters. Therefore, Microwave-Assisted Extraction (MAE) and Matrix Solid-Phase Dispersion (MPSD), two sample preparation techniques, were discussed and studied as proposed green and sustainable methodologies for the extraction of mangiferin and hyperoside from MPW. Doehlert and Box-Behnken experimental designs were used to help assessing the influences of the variables of each technique, allowing to employ a Response Surface Methodology (RSM) to visualize the best conditions and calculate optimum parameters. Fast extraction was achieved using MAE, which obtained maximum response of 261.39 mg kg−1 of mangiferin and 244.44 mg kg−1 of hyperoside. Higher yields were obtained using MSPD methodology, with an extraction yield of 352.90 mg kg−1 and 398.52 mg kg−1 of mangiferin and hyperoside, respectively. The conditions that allowed maximum simultaneous extraction concentrations were calculated using the desirability function. MAE and MSPD methodologies were compared, with an overall conclusion that both were adequate for the determination of the two analytes and can be further studied to be used in higher scales.

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微波辅助萃取和基质固相分散作为绿色分析化学样品制备技术用于芒果加工废料的鉴定
食品供应链废弃物不仅包括商业和消费环节产生的可见部分,还包括与食品有关的植物在收获和加工过程中产生的残留物。这些材料中的很大一部分是不可避免的,这意味着它们无法通过目前正在推动的减少废物政策来防止,以实现更好的粮食分配和消除全球饥饿。对这种废物流进行估价可能有助于提高粮食部门的稳定性,这不仅会带来经济收益,还会对环境和社会产生积极影响。芒果加工废弃物(MPW)是此类残留物未得到充分开发的例子之一,因为其大量含有几种有价值的物质,如生物活性化合物,可用于食品工业作为成分和营养药品,农业农药,杀菌剂和其他用途。黄酮醇金丝桃苷和山酮芒果苷是MPW中发现的主要次生代谢物,据报道具有从抗氧化到杀虫和药理潜在用途的生物活性。在更广泛的背景下,考虑到在生物炼制和循环经济概念中使用MPW,需要可持续的过程来满足未来的可持续性参数。因此,对微波辅助萃取(MAE)和基质固相分散(MPSD)两种样品制备技术进行了探讨和研究,提出了一种绿色、可持续的方法来提取芒果苷和金丝桃苷。采用Doehlert和Box-Behnken实验设计来帮助评估每种技术变量的影响,允许采用响应面法(RSM)可视化最佳条件并计算最佳参数。采用MAE快速提取,最大响应量分别为261.39 mg kg - 1和244.44 mg kg - 1。MSPD法提取率较高,芒果苷和金丝桃苷的提取率分别为352.90 mg kg - 1和398.52 mg kg - 1。使用期望函数计算允许最大同时提取浓度的条件。对MAE和MSPD方法进行了比较,总的结论是两者都足以用于两种分析物的测定,并且可以进一步研究以用于更高的规模。
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Current research in chemical biology
Current research in chemical biology Biochemistry, Genetics and Molecular Biology (General)
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