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超高温瞬时灭菌乳中的老化、沉淀和乳析:综述

Age Gelation, Sedimentation, and Creaming in UHT Milk: A Review.

作者信息

Anema Skelte G

机构信息

Fonterra Research and Development Centre, Private Bag 11029, Dairy Farm Road, Palmerston North, 4442, New Zealand.

Riddet Inst., Massey Univ., Private Bag 11222, Palmerston North, 4442, New Zealand.

出版信息

Compr Rev Food Sci Food Saf. 2019 Jan;18(1):140-166. doi: 10.1111/1541-4337.12407. Epub 2018 Dec 21.

DOI:10.1111/1541-4337.12407
PMID:33337027
Abstract

Demand for ultra-high-temperature (UHT) milk and milk protein-based beverages is growing. UHT milk is microbiologically stable. However, on storage, a number of chemical and physical changes occur and these can reduce the quality of the milk. These changes can be sufficiently undesirable so as to limit acceptance or shelf life of the milk. The most severe changes in UHT milk during storage are age gelation, with an irreversible three-dimensional protein network forming throughout, excessive sedimentation with a compact layer of protein-enriched material forming rapidly at the bottom of the pack, and creaming with excessive fat accumulating at the top. For age gelation, it is known that at least two mechanisms can lead to gelation during storage. One mechanism involves proteolytic degradation of the proteins through heat-stable indigenous or exogenous enzymes, destabilizing milk and ultimately forming a gel. The other mechanism is referred to as a physico-chemical mechanism. Several factors are known to affect the physico-chemical age gelation, such as milk/protein concentration, heat load during processing (direct compared with indirect UHT processes), and milk composition. Similar factors to age gelation are known to affect sedimentation. There are relatively few studies on the creaming of UHT milk during storage, suggesting that this defect is less common or less detrimental compared with gelation and sedimentation. This review focuses on the current state of knowledge of age gelation, sedimentation, and creaming of UHT milks during storage, providing a critical evaluation of the available literature and, based on this, mechanisms for age gelation and sedimentation are proposed.

摘要

对超高温(UHT)牛奶和基于乳蛋白的饮料的需求正在增长。UHT牛奶在微生物学上是稳定的。然而,在储存过程中会发生一些化学和物理变化,这些变化会降低牛奶的质量。这些变化可能非常不利,从而限制牛奶的接受度或保质期。UHT牛奶在储存过程中最严重的变化是老化凝胶化,即形成贯穿始终的不可逆三维蛋白质网络;过度沉淀,即包装底部迅速形成一层富含蛋白质的致密物质;以及乳脂肪上浮,即顶部积累过多脂肪。对于老化凝胶化,已知至少有两种机制可导致储存期间的凝胶化。一种机制涉及通过热稳定的内源或外源酶对蛋白质进行蛋白水解降解,使牛奶不稳定并最终形成凝胶。另一种机制称为物理化学机制。已知有几个因素会影响物理化学老化凝胶化,如牛奶/蛋白质浓度、加工过程中的热负荷(直接UHT工艺与间接UHT工艺相比)以及牛奶成分。已知影响老化凝胶化的类似因素也会影响沉淀。关于UHT牛奶储存期间乳脂肪上浮的研究相对较少,这表明与凝胶化和沉淀相比,这种缺陷不太常见或危害较小。本综述重点关注UHT牛奶储存期间老化凝胶化、沉淀和乳脂肪上浮的现有知识状态,对现有文献进行批判性评估,并在此基础上提出老化凝胶化和沉淀的机制。

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