消除杂散磁场,使磁性纳米机器人自治

G. Patil, Pranay Mandal, Jyotiprakash Behera, Ajay Ajith, Ambarish Ghosh
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引用次数: 0

摘要

磁性纳米机器人由于其良好的驱动方式、生物相容性和介质无关性而具有重要的技术意义。它们可以在外部磁场的作用下向特定的方向推进。在特定条件下,纳米机器人的方向与能量输入保持独立,这意味着单个实体的行为彼此独立。后者需要精确的磁场设计,正如我们在这里所展示的,这在实验上是非平凡的。具体来说,纳米机器人运动平面上的感应磁场或杂散磁场会完全阻碍其自主运动。我们讨论了两种消除这些不必要磁场的方法,并特别强调了一种基于分析纳米机器人轨迹的方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cancelling stray magnetic fields to render magnetic nanobots autonomous
Magnetic nanobots are of great technological importance due to their benign actuation method, bio-compatibility and medium-independent behaviour. They can be driven to propel in a particular direction using external magnetic fields. They can also be self-propelled under certain conditions where orientations of the nanobots remain independent of the energy input, implying individual entities behave independently of each other. The latter requires a precise magnetic field design, which, as we show here, is non-trivial experimentally. Specifically, the induced or stray magnetic fields in the plane of the nanobot motion can hinder autonomous motion altogether. We address the technique used to eliminate these unnecessary magnetic fields in two ways and especially highlight a method based on analyzing the trajectories of the nanobots.
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