Chesnitskiy Anton V, Gayduk Alexey E, Seleznev Vladimir A, Prinz Victor Ya
Rzhanov Institute of Semiconductor Physics, Russian Academy of Sciences, Siberian Branch, 630090 Novosibirsk, Russia.
Materials (Basel). 2022 Nov 4;15(21):7781. doi: 10.3390/ma15217781.
In recent years, there has been explosive growth in the number of investigations devoted to the development and study of biomimetic micro- and nanorobots. The present review is dedicated to novel bioinspired magnetic micro- and nanodevices that can be remotely controlled by an external magnetic field. This approach to actuate micro- and nanorobots is non-invasive and absolutely harmless for living organisms in vivo and cell microsurgery, and is very promising for medicine in the near future. Particular attention has been paid to the latest advances in the rapidly developing field of designing polymer-based flexible and rigid magnetic composites and fabricating structures inspired by living micro-objects and organisms. The physical principles underlying the functioning of hybrid bio-inspired magnetic miniature robots, sensors, and actuators are considered in this review, and key practical applications and challenges are analyzed as well.
近年来,致力于仿生微纳机器人开发与研究的调查数量呈爆发式增长。本综述致力于介绍新型受生物启发的磁性微纳器件,这些器件可通过外部磁场进行远程控制。这种驱动微纳机器人的方法是非侵入性的,对体内活体生物和细胞显微手术绝对无害,并且在不久的将来对医学非常有前景。特别关注了在快速发展的基于聚合物的柔性和刚性磁性复合材料设计领域以及受活体微物体和生物体启发制造结构方面的最新进展。本综述考虑了混合生物启发的磁性微型机器人、传感器和致动器运行的物理原理,并分析了关键的实际应用和挑战。