Li Mengjie, Guo Quanyou, Lin Yichen, Bao Hairong, Miao Song
College of Food Science & Technology, Shanghai Ocean University, Shanghai 201306, China.
East China Sea Fisheries Research Institute, Chinese Academy of Fishery Sciences, Shanghai 200090, China.
Foods. 2023 Feb 20;12(4):896. doi: 10.3390/foods12040896.
Being a natural active substance with a wide variety of sources, easy access, significant curative effect, and high safety, active peptides have gradually become one of the new research directions in food, medicine, agriculture, and other fields in recent years. The technology associated with active peptides is constantly evolving. There are obvious difficulties in the preservation, delivery, and slow release of exposed peptides. Microencapsulation technology can effectively solve these difficulties and improve the utilization rate of active peptides. In this paper, the commonly used materials for embedding active peptides (natural polymer materials, modified polymer materials, and synthetic polymer materials) and embedding technologies are reviewed, with emphasis on four new technologies (microfluidics, microjets, layer-by-layer self-assembly, and yeast cells). Compared with natural materials, modified materials and synthetic polymer materials show higher embedding rates and mechanical strength. The new technology improves the preparation efficiency and embedding rate of microencapsulated peptides and makes the microencapsulated particle size tend to be controllable. In addition, the current application of peptide microcapsules in different fields was also introduced. Selecting active peptides with different functions, using appropriate materials and efficient preparation technology to achieve targeted delivery and slow release of active peptides in the application system, will become the focus of future research.
活性肽作为一种天然活性物质,来源广泛、获取容易、疗效显著且安全性高,近年来已逐渐成为食品、医药、农业等领域新的研究方向之一。与活性肽相关的技术不断发展。裸露的肽在保存、递送和缓释方面存在明显困难。微胶囊技术能够有效解决这些难题,并提高活性肽的利用率。本文综述了用于包埋活性肽的常用材料(天然高分子材料、改性高分子材料和合成高分子材料)及包埋技术,重点介绍了四种新技术(微流控技术、微射流技术、层层自组装技术和酵母细胞)。与天然材料相比,改性材料和合成高分子材料具有更高的包埋率和机械强度。这些新技术提高了微胶囊化肽的制备效率和包埋率,使微胶囊粒径趋于可控。此外,还介绍了肽微胶囊目前在不同领域的应用。选择具有不同功能的活性肽,采用合适的材料和高效的制备技术,实现活性肽在应用体系中的靶向递送和缓释,将成为未来研究的重点。