Ryapolov Petr, Vasilyeva Anastasia, Kalyuzhnaya Dariya, Churaev Alexander, Sokolov Evgeniy, Shel'deshova Elena
Department of Nanotechnology, Microelectronics, General and Applied Physics, Faculty of Natural Sciences, Southwest State University, 50 Let Oktyabrya Street, 94, 305040 Kursk, Russia.
Nanomaterials (Basel). 2024 Jan 19;14(2):222. doi: 10.3390/nano14020222.
Magnetic fluids were historically the first active nano-dispersion material. Despite over half a century of research, interest in these nano-objects continues to grow every year. This is due to the impressive development of nanotechnology, the synthesis of nanoscale structures, and surface-active systems. The unique combination of fluidity and magnetic response allows magnetic fluids to be used in engineering devices and biomedical applications. In this review, experimental results and fundamental theoretical approaches are systematized to predict the micro- and macroscopic behavior of magnetic fluid systems under different external influences. The article serves as working material for both experienced scientists in the field of magnetic fluids and novice specialists who are just beginning to investigate this topic.
磁流体在历史上是第一种活性纳米分散材料。尽管经过了半个多世纪的研究,但对这些纳米物体的兴趣每年仍在持续增长。这得益于纳米技术的显著发展、纳米级结构的合成以及表面活性系统。流动性和磁响应的独特结合使得磁流体能够应用于工程设备和生物医学领域。在这篇综述中,实验结果和基本理论方法被系统化,以预测磁流体系统在不同外部影响下的微观和宏观行为。本文既可供磁流体领域的资深科学家使用,也可供刚刚开始研究该主题的新手专家参考。