Propulsion of a Magnetic Material-Applied Microrobot in a Tube Based on a Wireless Power Transfer System

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Microrobots can be utilized in various applications, but their ability to move and perform tasks in various environments is especially important. In this paper, we introduce a 3-mm microrobot that can move in a liquid-filled tube, such as a vein, against gravity using an external wireless power transfer-based microrobot propulsion system. The force required to move against gravity was determined by calculating the effects of buoyance and gravity on the microrobot. Based on this information, the current required for the transmitting coil to induce sufficient propulsion was derived using the relation between the incident magnetic field and the magnetic force on a magnetic material. The propulsion system was experimentally tested, and the microrobot successfully moved upward against gravity. In addition, the level of human exposure to the applied electromagnetic field was determined to be within recommended guidelines using the electromagnetic simulation software Sim4Life. Microrobots can be utilized in various applications, but their ability to move and perform tasks in various environments is especially important. In this paper, we introduce a 3-mm microrobot that can move in a liquid-filled tube, such as a vein, against gravity using an external wireless power transfer-based microrobot propulsion system. The force required to move against gravity was determined by calculating the effects of buoyance and gravity on the microrobot. Based on this information, the current required for the transmitting coil to induce sufficient propulsion was derived using the relation between the incident magnetic field and the magnetic force on a magnetic material. The propulsion system was experimentally tested, and the microrobot successfully moved upward against gravity. In addition, the level of human exposure to the applied electromagnetic field was determined to be within recommended guidelines using the electromagnetic simulation software Sim4Life.
Publisher
KOREAN INST ELECTROMAGNETIC ENGINEERING & SCIENCE
Issue Date
2022-03
Language
English
Article Type
Article
Citation

JOURNAL OF ELECTROMAGNETIC ENGINEERING AND SCIENCE, v.22, no.2, pp.171 - 177

ISSN
2671-7255
DOI
10.26866/jees.2022.2.r.74
URI
http://hdl.handle.net/10203/295859
Appears in Collection
GT-Journal Papers(저널논문)
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