The development of food protein-inorganic hybrid nanoflowers with outstanding role in stabilizing natural pigments
Penghui Shen, Mouming Zhao, Jasper Landman, Feibai Zhou

TL;DR
This study develops food protein-inorganic hybrid nanoflowers (HNFs) using enzymatic hydrolysis, enhancing their ability to stabilize and deliver natural pigments like Monascus red and curcumin in food and cosmetic applications.
Contribution
It introduces a method to produce versatile HNFs from various food proteins via enzymatic hydrolysis, expanding their application in pigment stabilization and delivery.
Findings
HNF with soy protein hydrolysate shows high loading capacity for Monascus red.
HNF effectively stabilizes lipophilic curcumin in harsh environments.
Enzymatic hydrolysis broadens protein sources for HNF fabrication.
Abstract
Protein-inorganic hybrid nanoflowers (HNFs) possess unique properties in promoting surface reaction and have attracted wide-spread attention as a newly developed nanomaterial. However, the availability of protein sources has up to now been mostly limited to enzymes, which narrows the application of HNFs especially in food industry. Here we show that for many types of food protein, enzymatic hydrolysis can improve its ability to form versatile HNFs, or even induce HNF formation where the protein source did not show its formation a priori. The treatment of enzymatic hydrolysis increases the flexibility of such proteins and induces nucleation sites of HNFs in the early formation stage by decomposing those proteins into polypeptides. In particular, the HNF prepared with soy protein hydrolysate further shows a high loading capacity of water-soluble Monascus red, reaching up to 554.1 mg per…
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Taxonomy
TopicsMicrobial Metabolism and Applications · Silk-based biomaterials and applications · Electrospun Nanofibers in Biomedical Applications
