Bazzaz Sara, Abbasi Amin, Ghotbabad Atiyeh Ghafouri, Pourjafar Hadi, Hosseini Hedayat
Student Research Committee, Department of Food Science and Technology, National Nutrition and Food Technology Research Institute, Faculty of Nutrition Science and Food Technology, Shahid Beheshti University of Medical Sciences, Tehran, Iran.
Department of Food Science and Technology, National Nutrition and Food Technology Research Institute, Faculty of Nutrition Science and Food Technology, Shahid Beheshti University of Medical Sciences, Tehran, Iran.
Probiotics Antimicrob Proteins. 2025 Jun;17(3):1132-1170. doi: 10.1007/s12602-024-10364-7. Epub 2024 Oct 5.
Bioactive substances can enhance host health by modulating biological reactions, but their absorption and utilization by the body are crucial for positive effects. Encapsulation of probiotics is rapidly advancing in food science, with new approaches such as 3D printing, spray-drying, microfluidics, and cryomilling. Co-encapsulation with bioactives presents a cost-effective and successful approach to delivering probiotic components to specific colon areas, improving viability and bioactivity. However, the exact method by which bioactive chemicals enhance probiotic survivability remains uncertain. Co-crystallization as an emerging encapsulation method improves the physical characteristics of active components. It transforms the structure of sucrose into uneven agglomerated crystals, creating a porous network to protect active ingredients. Likewise, electrohydrodynamic techniques are used to generate fibers with diverse properties, protecting bioactive compounds from harsh circumstances at ambient temperature. Electrohydrodynamic procedures are highly adaptable, uncomplicated, and easily expandable, resulting in enhanced product quality and functionality across various food domains. Furthermore, food byproducts offer nutritional benefits and technical potential, aligning with circular economy principles to minimize environmental impact and promote economic growth. Hence, industrialized nations can capitalize on the growing demand for functional foods by incorporating these developments into their traditional cuisine and partnering with businesses to enhance manufacturing and production processes.
生物活性物质可通过调节生物反应来增强宿主健康,但其被人体吸收和利用对于产生积极效果至关重要。在食品科学领域,益生菌的包封技术正在迅速发展,出现了诸如3D打印、喷雾干燥、微流控和低温研磨等新方法。与生物活性物质共同包封是一种经济高效且成功的方法,可将益生菌成分输送到特定的结肠区域,提高其活力和生物活性。然而,生物活性化学物质增强益生菌存活率的确切方式仍不确定。共结晶作为一种新兴的包封方法,改善了活性成分的物理特性。它将蔗糖结构转变为不均匀的团聚晶体,形成一个多孔网络来保护活性成分。同样,电流体动力学技术用于生成具有不同特性的纤维,在常温下保护生物活性化合物免受恶劣环境影响。电流体动力学工艺具有高度的适应性、简单性且易于扩展,可提高各类食品领域产品的质量和功能。此外,食品副产品具有营养价值和技术潜力,符合循环经济原则,可最大限度地减少环境影响并促进经济增长。因此,工业化国家可通过将这些进展融入其传统烹饪方法并与企业合作以改进制造和生产流程,来利用对功能性食品不断增长的需求。