Pezeshk Samaneh, Abdollahi Mehdi
Department of Marine Biology-Marine Biotechnology, Faculty of Marine Sciences, Tarbiat Modares University, P.O. Box 46414-356, Noor, Iran.
Department of Life Sciences-Food and Nutrition Science, Chalmers University of Technology, SE 412 96 Gothenburg, Sweden.
Ultrason Sonochem. 2025 Aug 8;120:107503. doi: 10.1016/j.ultsonch.2025.107503.
Fish proteins are known for their high nutritional value and excellent functional qualities, which is why they could be susceptible to wide application in the food and health industries. However, their structural complexities and functional constraints during processing may limit their usefulness. In recent years, ultrasound technology has received significant interest as an effective method for modifying fish protein's structure through the cavitation effect to improve their functionality. This review highlights current advances in ultrasound-assisted fish protein extraction, with an emphasis on structural modification and functional characteristics augmentation. The paper thoroughly assesses existing scientific knowledge and discusses potential research directions. Overall, ultrasound technology has the potential to be a successful assistant technique for improving fish protein extraction efficiency, along with benefits such as faster processing and lower resource use. Ultrasound can significantly improve the functionality and technological applicability of fish proteins by reducing aggregation, modifying secondary and tertiary structures in aqueous systems, and enhancing molecular flexibility and interfacial activity. However, it should be highlighted that achieving these great synergistic effects necessitates optimizing processing settings based on the specific ultrasound equipment employed, the fish species under study, and the type of protein. Future studies should focus on using ultrasound to carefully tune the structure of fish proteins for engineering and tailoring their functionality to boost their compatibility for complicated food processing techniques such as high moisture extrusion, 3D printing and for the development of hybrid foods in combination with emerging protein sources.
鱼蛋白以其高营养价值和出色的功能特性而闻名,这就是它们在食品和健康行业中易于广泛应用的原因。然而,它们在加工过程中的结构复杂性和功能限制可能会限制其用途。近年来,超声技术作为一种通过空化效应改变鱼蛋白结构以提高其功能的有效方法而备受关注。这篇综述重点介绍了超声辅助鱼蛋白提取的当前进展,着重于结构修饰和功能特性增强。本文全面评估了现有科学知识,并讨论了潜在的研究方向。总体而言,超声技术有可能成为提高鱼蛋白提取效率的成功辅助技术,同时还具有加工速度更快、资源利用更低等优点。超声可以通过减少聚集、改变水体系中的二级和三级结构以及增强分子柔韧性和界面活性,显著提高鱼蛋白的功能和技术适用性。然而,应该强调的是,要实现这些巨大的协同效应,需要根据所使用的特定超声设备、所研究的鱼的种类以及蛋白质的类型来优化加工设置。未来的研究应专注于利用超声来精细调整鱼蛋白的结构,以设计和定制其功能,从而提高它们与复杂食品加工技术(如高水分挤压、3D打印)的兼容性,并与新兴蛋白质来源结合开发混合食品。