A Novel Magnetic Actuator Capable of Free Movement on a Magnetic Substance

This paper proposes a magnetic actuator capable of movement on a magnetic substance by means of the inertia force produced by the vibration of a mass-spring model. The magnetic actuator is operated by the difference in frictional force during one period of vibration. The experimental results reveal...

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Veröffentlicht in:IEEE transactions on magnetics 2015-11, Vol.51 (11), p.1-4
Hauptverfasser: Yaguchi, Hiroyuki, Sakuma, Shun
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Sakuma, Shun
description This paper proposes a magnetic actuator capable of movement on a magnetic substance by means of the inertia force produced by the vibration of a mass-spring model. The magnetic actuator is operated by the difference in frictional force during one period of vibration. The experimental results reveal that this magnetic actuator is able to pull a load mass of 110 g. Furthermore, this actuator is able to propel a load mass of approximately 8.5 times the weight of the actuator itself. The maximum efficiency of the actuator was 12.9% for an actuator pulling its own weight. The results also demonstrate that the magnetic actuator can move stably in slide-on-ceiling and wall-climbing plane motions. This magnetic actuator is able to move freely without a control unit on an iron rail of any shape.
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subjects Actuators
Control equipment
electromagnetic force
Electromagnets
Force
Inertia
inertia force
Iron
magnetic actuator
Magnetic cores
Magnetic materials
magnetic substance
Magnetism
Magnetomechanical effects
Planes
Rails
Springs
Vibration
wall climbing
title A Novel Magnetic Actuator Capable of Free Movement on a Magnetic Substance
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