从分子结构到宏观性能揭示肉丸脆性机理

Jiayi Li, Shuchang Li, Nan Xiao, Xingguo Tian, Shanguang Guo, Weiwei Cheng, Aimin Jiang, Minmin Ai
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引用次数: 0

摘要

肉丸的制作工艺精湛,但肉丸的脆性不耐冷冻储存,这限制了肉丸运输的大规模推广。同时,肉丸的“脆性机理”尚不清楚,很难从根源上解决肉丸脆性质量损失的科学问题。这项研究揭示了猪肉丸子凝胶脆性的潜在机制。在本研究中,使用鲜肉(FsM组)、环境肉组、冷冻肉组和绞肉组对肉丸的流变特性、质地、分子力和微观结构进行了表征。结果表明,FsM组具有较好的感觉特征。FsM组的流变性能表现出更高的储能模量(G′)和损耗模量(G〃),表明其具有更好的粘弹性。织构测定结果表明,FsM基团显示出改善的脆性质量,并且脆性由疏水相互作用和二硫键支持。具有良好脆性质量的FsM组形成了“大空腔”微观结构。相关性分析揭示了肉丸的质地特性与其蛋白质分子力之间的相关性。我们的发现清楚地为肉丸脆性的潜在机制提供了新的见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Brittleness mechanism of pork meatballs revealed from molecular structure to macroscopic performance

Brittleness mechanism of pork meatballs revealed from molecular structure to macroscopic performance

Meatballs are manufactured with great craftsmanship, but the brittle quality of meatballs is not resistant to frozen storage, which limits the large-scale promotion of meatballs for transportation. Meanwhile, the ‘brittle mechanism’ of meatballs is still unclear and it is difficult to solve the scientific problem of brittle quality loss of meatballs from the root. This study revealed the mechanism underlying the brittleness of pork meatballs gel. In this study, the rheological properties, textural quality, molecular forces and microstructure of meatballs were characterized using fresh meat (FsM group), ambient meat group, frozen meat group, and ground meat group. The results showed that the FsM group presented better sensorial characteristics. The rheological properties of the FsM group exhibited higher storage modulus (G′) and loss modulus (G″), indicating better viscoelastic properties. The results of textural determination reflected that the FsM group showed improved brittleness quality and the brittleness was supported by hydrophobic interactions and disulfide bonds. The FsM group with good brittleness quality formed a ‘large cavity’ microstructure. The correlations analysis revealed a correlation between the texture properties of meatballs and their protein molecular forces. Our findings clearly provide new insights into the mechanism underlying the brittleness of meatballs.

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