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β-环糊精包埋与冷冻干燥对黑孢块菌(松露)香气保留和稳定效果的比较评价。

Comparative evaluation of encapsulation using β-cyclodextrin versus freeze-drying for better retention and stabilizing of black Périgord truffle (Tuber melanosporum) aroma.

机构信息

School of Molecular and Life Sciences, Curtin University, Bentley, Australia.

Biotechnology and Drug Development Research Laboratory, Curtin Health Innovation Research Institute, Curtin Medical School, Curtin University, Bentley, Australia.

出版信息

J Food Sci. 2022 Aug;87(8):3482-3495. doi: 10.1111/1750-3841.16241. Epub 2022 Jul 5.

Abstract

This study aimed to develop a novel technique to retain and stabilize compounds contributing to truffle aroma by encapsulation using β-cyclodextrin. Two experiments were conducted. In the first experiment, the key volatile profile and microbial population of products resulting from three different encapsulation methods, namely direct mixing method (M1), direct mixing followed by ethanol addition method (M2), and paste method (M3), were compared with untreated truffles (positive control) over a 90-day period. The M2-derived product was the least optimal for retaining key volatile compounds despite showing the lowest microbial population. There was no significant difference in the volatile profile of products derived from M1 and M3 on day 0. However, it was observed that the M3-derived product could retain its volatile profile better than the M1-derived product by day 90. M3 was compared with freeze-drying in the second experiment. Freeze-dried truffles showed an overall higher relative percentage of volatiles than the M3-derived product on day 0. However, by day 90, some volatile changes occurred in the freeze-dried truffles but not in the M3-derived product. The findings indicate that while freeze-drying could adequately conserve truffle volatiles, the encapsulation of volatile compounds in β-cyclodextrin could improve the volatile stability of truffle products and allow for longer storage times. Microbes were found in all encapsulated truffle products and freeze-dried truffles on days 0 and 90, suggesting the need to explore the possibility of incorporating a decontamination step in the process prior to either encapsulation or freeze-drying. PRACTICAL APPLICATION: A technique to capture and stabilize compounds responsible for truffle aroma by encapsulation using β-cyclodextrin was developed and compared with freeze-drying in this study. The overall finding suggests that while freeze-drying of truffle could sufficiently preserve volatiles, encapsulating truffle volatiles with β-cyclodextrin may improve its stability, extending its shelf life, which can be applied in the development of a natural truffle ingredient that can be applied in food product development.

摘要

本研究旨在开发一种新的技术,通过使用β-环糊精包封来保留和稳定与松露香气有关的化合物。进行了两项实验。在第一项实验中,将三种不同包封方法(直接混合法(M1)、直接混合后添加乙醇法(M2)和糊剂法(M3)得到的产品与未经处理的松露(阳性对照)在 90 天内的关键挥发性成分和微生物种群进行了比较。尽管 M2 衍生产品的微生物种群最低,但对于保留关键挥发性化合物来说效果最差。在第 0 天,M1 和 M3 衍生产品的挥发性成分没有明显差异。然而,观察到 M3 衍生产品在第 90 天可以更好地保留其挥发性成分。在第二项实验中,将 M3 与冷冻干燥进行了比较。在第 0 天,与 M3 衍生产品相比,冷冻干燥的松露整体显示出更高的挥发性相对百分比。然而,到第 90 天,冷冻干燥的松露中的一些挥发性成分发生了变化,但 M3 衍生产品没有。研究结果表明,虽然冷冻干燥可以充分保存松露的挥发性成分,但将挥发性化合物包封在β-环糊精中可以提高松露产品的挥发性稳定性,并允许更长的储存时间。在第 0 天和第 90 天,所有包封的松露产品和冷冻干燥的松露中都发现了微生物,这表明在包封或冷冻干燥之前,需要探索在该过程中加入消毒步骤的可能性。实际应用:本研究开发了一种通过β-环糊精包封来捕获和稳定与松露香气有关的化合物的技术,并与冷冻干燥进行了比较。总体研究结果表明,虽然松露的冷冻干燥可以充分保存挥发性成分,但用β-环糊精包封松露的挥发性成分可能会提高其稳定性,延长其保质期,这可应用于开发可应用于食品产品开发的天然松露成分。

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