改性大肠杆菌的自适应运动控制

A. Tabak
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引用次数: 1

摘要

微型机器人系统在生物医学领域的应用越来越受到关注。无系绳微型机器人普遍采用的运动方式是模仿单细胞生物游泳。此外,这些生物最近被认为是集成到一个微型机器人系统,以实现生物相容性。由于这种生物混合系统的尺寸和滑行行为,其运动控制提出了相当大的挑战。本文研究了体外条件下开放运动链与细菌耦合系统的自适应运动控制方案。所述控制是通过单个永磁体在两者之间的磁耦合实现的。该研究的主要重点是适应性成分的影响及其改变单个大肠杆菌微细胞游泳方向的能力。仿真结果表明,通过这种方法实现运动控制在理论上是可行的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Adaptive Motion Control of Modified E. Coli
Micro robotic systems are of growing interest for biomedical applications. The widely preferred means of locomotion for untethered microrobots is swimming via mimicry of single-celled organisms. Furthermore, such organisms are recently considered to be integrated into a micro-robotic system to achieve biocompatibility. The motion control of such bio-hybrid systems poses a considerable challenge due to their size and taxis-behavior. Here, an adaptive motion control scheme is investigated with a simulated coupled system of open kinematic chain and bacterium under in vitro conditions. The said control is achieved through magnetic coupling between the two via a single permanent magnet. The main focus of the study is the effect of the adaptive component and its ability to change the swimming direction of a single E. Coli minicell. Simulation results show that it is theoretically possible to achieve motion control via such an approach.
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