School of Food and Biological Engineering, Jiangsu University, Zhenjiang, Jiangsu Province, China.
Chengdu Institute of Biology, Chinese Academy of Sciences, Chengdu, China.
Crit Rev Food Sci Nutr. 2024 Nov;64(32):11826-11849. doi: 10.1080/10408398.2023.2245031. Epub 2023 Aug 17.
The demand for clean-label starch, perceived as environmentally friendly in terms of production and less hazardous to health, has driven the advancement of food physical processing technologies aimed at modifying starch. One of the key objectives of these modifications has been to reduce the glycaemic potency and increase resistant starch content of starch, as these properties have the potential to positively impact metabolic health. This review provides a comprehensive overview of recent updates in typical physical processing techniques, including annealing, heat-moisture, microwave and ultrasonication, and a brief discussion of several promising recent-developed methods. The focus is on evaluating the molecular, supramolecular and microstructural changes resulting from these modifications and identifying targeted structures that can foster enzyme-digestion resistance in native starch and its forms relevant to food applications. After a comprehensive search and assessment, the current physical modifications have not consistently improved starch enzymatic resistance. The opportunities for enhancing the effectiveness of modifications lie in (1) identifying modification conditions that avoid the intensive disruption of the granular and supramolecular structure of starch and (2) exploring novel strategies that incorporate multi-type modifications.
对清洁标签淀粉的需求,因其在生产过程中被认为具有环保性,且对健康的危害较小,推动了旨在改变淀粉的食品物理加工技术的发展。这些改性的一个主要目标是降低淀粉的血糖生成能力和增加抗性淀粉含量,因为这些特性有可能对代谢健康产生积极影响。本综述全面概述了典型物理加工技术的最新进展,包括退火、湿热、微波和超声处理,并简要讨论了几种有前途的近期开发方法。重点是评估这些改性导致的分子、超分子和微观结构变化,并确定可促进天然淀粉及其在食品应用中相关形式的酶抗性的靶向结构。经过全面的搜索和评估,目前的物理改性并没有一致地提高淀粉的酶抗性。增强改性效果的机会在于:(1)确定改性条件,避免淀粉颗粒和超分子结构的剧烈破坏;(2)探索结合多种类型改性的新策略。