Suitable Method for Improving Friction Performance of Magnetic Wheels with Metal Yokes

A magnetic-wheeled robot is a type of robot that inspects large steel structures instead of humans, and it can run on a three-dimensional path by using wheels with built-in permanent magnets. For the robots to work safely, their magnetic wheels require both magnetic attractive forces and friction forces. Planetary-geared magnetic wheels, which we have developed, make direct contact with their yokes on the running surface to ensure their magnetic attractive force. However, this design decreases their frictional performance more than common magnetic wheels covered with soft materials. Therefore, the yokes require methods that can improve their frictional performance without decreasing their attractive force. To consider the best method for the use of magnetic wheels, this study has run experiments with five types of yokes, which have different processing. As a result, the yokes with corroded surfaces could have maintained the attractive force more than 90% of the time and increased their traction forces by about 36% in static conditions and about 30% in dynamic conditions compared to yokes with no machining. The main reasons for these experimental results are that the rust layer has stable irregularities on the surface and includes ferromagnetic materials.

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Publication Details

Journal
Robotics
Published
2024-10-11
DOI
https://doi.org/10.3390/robotics13100151
Primary Topic
Magnetic Bearings and Levitation Dynamics
Type
article
Field-Weighted Citation Impact
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article

Suitable Method for Improving Friction Performance of Magnetic Wheels with Metal Yokes

Takehiro SHIBA, Kosuke Ono, Masaru Tanida, Yogo TAKADA
Robotics
Magnetic Bearings and Levitation Dynamics
article

Suitable Method for Improving Friction Performance of Magnetic Wheels with Metal Yokes

Takehiro SHIBA, Kosuke Ono, Masaru Tanida, Yogo TAKADA
article en

Abstract

A magnetic-wheeled robot is a type of robot that inspects large steel structures instead of humans, and it can run on a three-dimensional path by using wheels with built-in permanent magnets. For the robots to work safely, their magnetic wheels require both magnetic attractive forces and friction forces. Planetary-geared magnetic wheels, which we have developed, make direct contact with their yokes on the running surface to ensure their magnetic attractive force. However, this design decreases their frictional performance more than common magnetic wheels covered with soft materials. Therefore, the yokes require methods that can improve their frictional performance without decreasing their attractive force. To consider the best method for the use of magnetic wheels, this study has run experiments with five types of yokes, which have different processing. As a result, the yokes with corroded surfaces could have maintained the attractive force more than 90% of the time and increased their traction forces by about 36% in static conditions and about 30% in dynamic conditions compared to yokes with no machining. The main reasons for these experimental results are that the rust layer has stable irregularities on the surface and includes ferromagnetic materials.

RoboticsVol. 13(10)
Osaka Metropolitan University (JP), Tokyo Metropolitan University (JP)
Affordable and clean energy
Openalex Percentile: Top 80%
Magnetic Bearings and Levitation Dynamics
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Suitable Method for Improving Friction Performance of Magnetic Wheels with Metal Yokes — Takehiro SHIBA, Kosuke Ono, et al. · Robotics (2024) | TGRS Research Map | TGRS