Journal of the Science of Food and Agriculture · 2023 · 24 citations · 35 references
PharmacyBiochemistryFood ScienceBiocompatibilityBiomaterialsDrug DeliveryDrug EncapsulationNanoparticle DesignProtein-based NanomaterialsProteins In FoodsSolubility EnhancementSolubility OptimizationBiocompatibility Of Encapsulation MaterialsEncapsulating MaterialsEncapsulationNutraceutical EncapsulationProtein EncapsulationProtein FormulationProtein-polyphenol InteractionsSolubility
BACKGROUND: The use of rutin in the food industry is limited by its poor solubility. Encapsulation can be used as an effective way to improve polyphenol solubility. Proteins with high safety, biocompatibility and multiple binding sites are known as the most promising encapsulating carriers. Therefore, the improvement of rutin solubility by pH-driven encapsulation of rutin in soy protein isolate (SPI) nanoparticles, as well as the form of rutin after encapsulation and rutin-protein binding index were investigated. RESULTS: , which was a 51.57-fold increase compared to the original rutin. At this situation, rutin transformed from crystalline to amorphous form. During the formation of nanoparticles, SPI was in a dynamic change of unfolding and refolding. Rutin deprotonated in alkaline conditions increasing its solubility and bound to protein to form nanoparticles during the process of returning to neutral. Hydrophobic interactions and hydrogen bonding promoted the formation of the nanoparticles and there were at least 1-2 binding sites between rutin and each SPI molecule. CONCLUSION: The results suggested that encapsulation of rutin in protein nanoparticles can effectively increase the solubility of rutin. This study may provide important information for the effective utilization of polyphenol functional foods. © 2023 Society of Chemical Industry.
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Slobodan V. Jovanović, Steen Steenken, Mihajlo Tošić et al. · Journal of the American Chemical Society · 1994 · 1.2K citations