乳状液
肌原纤维
脂肪乳
材料科学
化学工程
化学
食品科学
生物化学
内科学
医学
肠外营养
工程类
作者
Jiashi Chen,Keqing Lin,Ping Zhang,Zhigang Zhang,Song Miao,Baodong Zheng,Longtao Zhang
出处
期刊:Food bioscience
[Elsevier]
日期:2022-10-19
卷期号:50: 102104-102104
被引量:20
标识
DOI:10.1016/j.fbio.2022.102104
摘要
Emulsion microgels are micron-sized particles formed by one or more emulsion droplets surrounded by soft solids. It is inferred that their special structure affords interesting filling properties in protein gels. Different fat types affect the properties of emulsion microgels leading to different filling effects. The influence of fat types (soybean oil, lard, and coconut oil) on the myofibrillar protein emulsion microgels was studied by particle size, microstructure, and rheology. The filling properties were investigated in a protein gel model. The results show that coconut oil emulsion microgels had the smallest particle size, the thickest gel shell and the highest storage modulus. The apparent viscosity of all treatments showed shear thinning behavior and that of coconut oil treatment was significantly higher. With the increase in fat contents, the thixotropic ring area of coconut oil and lard treatment increased, while that of soybean oil treatment decreased. The filling properties in the protein gel model were analyzed by rheology, texture, microstructure and cooking loss measurement. The storage modulus of gels filled with emulsion microgels increased, and the storage modulus of gels filled with coconut oil emulsion microgels was the highest, indicating that emulsion microgels were active fillers. When the amount of addition was more than 10%, the texture properties of the filled gels improved, which was attributed to the enhanced density of the microstructure. In addition, the cooking loss was also reduced, and the gels filled with coconut oil emulsion microgels had the best performance. • Coconut oil emulsion microgels have better storage modulus than microgels from lard and soybean oil. • Myofibrillar protein emulsion microgels were active fillers in protein gel. • The filled protein gels indicated improved rheology and texture properties. • The microstructure of protein gels was improved and denser due to filled emulsion microgels.
科研通智能强力驱动
Strongly Powered by AbleSci AI