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基于渗透汽化的膜工艺用于生产非酒精饮料。

Pervaporation-based membrane processes for the production of non-alcoholic beverages.

作者信息

Castro-Muñoz Roberto

机构信息

University of Chemistry and Technology Prague, Technická 5, 166 28 Prague 6, Czech Republic.

出版信息

J Food Sci Technol. 2019 May;56(5):2333-2344. doi: 10.1007/s13197-019-03751-4. Epub 2019 Apr 10.

Abstract

Nowadays, the interest in manufacturing non-alcoholic or low alcoholic content beverages from alcoholic beverages is a current challenge for food technologists; this is due to the fact that huge consumption of alcoholic beverages may produce health problems in the costumers. In principle, the post-fermentation ethanol removal from alcoholic beverages is carried out by means of evaporation or distillation. Such current dealcoholization methodologies are efficiently removing the ethanol, however, some organoleptic compounds can also be lost during the process. This makes the dealcoholization process highly sensitive in order to preserve the quality properties of the beverages. Thereby, membrane-based technologies, which use perm-selective barriers for the separation, have been highly promoted for such purpose. Pervaporation (PV) technology is indeed one of these technologies aimed for ethanol removal. Herein, the goal of this review is to provide a compelling overview of the most relevant findings for the production of non-alcoholic beverages (such as beer and wine) by means of PV. Particular attention is paid to experimental results which provide compelling feedback about the accurate ethanol removal and minimal changes on physicochemical properties of the beverages. Moreover, some theoretical basis of such technology, as well as key criteria for a more efficient dealcoholization, are also given.

摘要

如今,利用酒精饮料生产非酒精或低酒精含量饮料是食品技术专家当前面临的一项挑战;这是因为大量饮用酒精饮料可能会给消费者带来健康问题。原则上,通过蒸发或蒸馏来去除酒精饮料发酵后的乙醇。目前的这些脱醇方法能够有效地去除乙醇,然而,在此过程中一些感官化合物也可能会损失。这使得脱醇过程对保持饮料的品质特性极为敏感。因此,利用渗透选择性屏障进行分离的膜基技术已被大力推广用于此目的。渗透汽化(PV)技术确实是这些旨在去除乙醇的技术之一。在此,本综述的目的是对通过渗透汽化生产非酒精饮料(如啤酒和葡萄酒)的最相关研究结果进行全面概述。特别关注那些能为准确去除乙醇以及饮料理化性质变化最小提供有力反馈的实验结果。此外,还给出了该技术的一些理论基础以及更高效脱醇的关键标准。

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