Center for Advanced Functional Nanorobots, Department of Inorganic Chemistry, University of Chemistry and Technology Prague, 166 28 Prague 6, Czech Republic.
Nanoscale. 2018 Sep 13;10(35):16398-16415. doi: 10.1039/c8nr05196h.
Recent progress in autonomous self-propelled multifunctional Janus nano/micromotors, which are able to convert chemical or light energy into mechanical motion, is presented. This technology of moving micro- and nanodevices is at the forefront of materials research and is a promising and growing technology with the possibility of using these motors in both biomedical and environmental applications. The development of novel multifunctional Janus motors together with their motion mechanisms is discussed. Different preparation and synthesis routes are compared. The effects of the size, interfacial structures and porosity on the directional motion and the speed of Janus micromotors are discussed. For light-derived Janus micromotors, newly developed techniques that are able to observe directly the interfaces' charge distribution on a nanometer scale are presented in order to clarify the underlying electrophoresis motion mechanism. This review aims to encourage further research in the field of micromotors using new and facile methodologies for obtaining novel Janus motors with enhanced motion and activity.
本文介绍了自主式多功能 Janus 纳/微米马达的最新进展,这些马达能够将化学或光能转化为机械运动。这种移动微纳器件的技术处于材料研究的前沿,是一种很有前途且不断发展的技术,有望将这些马达应用于生物医学和环境应用中。本文讨论了新型多功能 Janus 马达及其运动机制的发展。比较了不同的制备和合成路线。讨论了尺寸、界面结构和孔隙率对 Janus 微马达定向运动和速度的影响。对于光衍生的 Janus 微马达,本文提出了新的开发技术,能够直接观察到纳米尺度上界面的电荷分布,以阐明电泳运动机制。本综述旨在鼓励使用新的简便方法进一步研究微马达领域,以获得具有增强运动和活性的新型 Janus 马达。