Soy protein hydrogels with filler emulsion particles coated by hydrolyzed protein

Guijiang Liang, Wenpu Chen, Maomao Zeng, Zhiyong He, Jie Chen and Zhaojun Wang
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Abstract

The growing consumer preference for plant-based foods in recent years has spurred research efforts to enhance the structural attributes of plant proteins, addressing the limitations associated with animal-source proteins in terms of sustainability. This includes endeavors to improve the gelling and emulsifying properties of plant proteins. The selective enzymatic hydrolysis of soy protein isolate using pepsin and papain resulted in distinct alterations in the hydrolysate compositions. NSPI (native soy protein isolate) encompassed all β-conglycinin and glycinin subunits as a baseline for the comparison. SPHPe (soy proteins hydrolyzed by pepsin) exhibited low molecular weight peptides and β-conglycinin, while SPHPa (soy proteins hydrolyzed by papain) primarily featured peptides below 20 kDa. SPHPe, characterized by a higher β-conglycinin ratio, demonstrated excellent emulsifying activity and stability compared to SPHPa, which displayed weaker performance. Emulsion-filled gels with SPHPe exhibited the highest gel strength and water-holding capacity, forming denser gels primarily influenced by hydrophobic interactions. Thus, exploring active emulsion-filled gels via enzymatic digestion presents a promising avenue for developing meat substitutes and animal-free food alternatives, offering innovative applications for plant proteins across diverse food products.

Abstract Image

大豆蛋白水凝胶与水解蛋白包覆的填充乳液颗粒
近年来,消费者对植物性食品的偏好与日俱增,这促使研究人员努力提高植物蛋白的结构属性,以解决动物源蛋白在可持续性方面的局限性。这包括努力改善植物蛋白的胶凝和乳化特性。使用胃蛋白酶和木瓜蛋白酶对大豆分离蛋白进行选择性酶水解会导致水解物成分发生明显变化。NSPI(原生大豆分离蛋白)包括所有的β-共甘氨酸和甘氨亚基,作为比较的基线。SPHPe(经胃蛋白酶水解的大豆蛋白)含有低分子量肽和β-共赖氨酸,而 SPHPa(经木瓜蛋白酶水解的大豆蛋白)主要含有 20 kDa 以下的肽。与性能较弱的 SPHPa 相比,SPHPe 具有更高的β-松果菊素比率,表现出卓越的乳化活性和稳定性。使用 SPHPe 的乳液填充凝胶具有最高的凝胶强度和持水能力,主要受疏水相互作用的影响而形成更致密的凝胶。因此,通过酶解探索活性乳液填充凝胶为开发肉类替代品和无动物食品替代品提供了一条前景广阔的途径,为植物蛋白在各种食品中的创新应用提供了可能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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