Investigation of Resonance Avoidance Method for Vacuum Cleaner

Electromagnetic resonance in electric motors arises when the electromagnetic force frequency coincides with any of the motor's natural frequencies, causing excessive vibration and noise. To address this issue, it is crucial to design motors such that their natural frequencies do not closely ali...

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Veröffentlicht in:IEEE open journal of industry applications 2023, Vol.4, p.328-335
Hauptverfasser: Hwang, Woong, Kim, Jimin, Han, Jihoon, Kang, Wonsoo, Park, Sunghyuk
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container_title IEEE open journal of industry applications
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creator Hwang, Woong
Kim, Jimin
Han, Jihoon
Kang, Wonsoo
Park, Sunghyuk
description Electromagnetic resonance in electric motors arises when the electromagnetic force frequency coincides with any of the motor's natural frequencies, causing excessive vibration and noise. To address this issue, it is crucial to design motors such that their natural frequencies do not closely align with the electromagnetic force frequency. However, vacuum cleaner motors operate across a broad range of speeds, generating a multitude of electromagnetic force frequencies, which makes it challenging to establish natural frequencies that can avoid all possible electromagnetic resonances. This article presents a novel approach for shifting natural frequencies by adjusting the stiffness of stator cores. By integrating an auxiliary component with various design factors into the motor, a range of natural frequencies can be achieved. An optimal natural frequency that mitigates electromagnetic resonance was identified among these modified frequencies, and the subsequent enhancement in acoustic characteristics was demonstrated.
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subjects Design factors
Electric motors
Electromagnetic force
Electromagnetic forces
Electromagnetics
Force
Iron
natural frequency
noise
Resonance
Resonant frequencies
Resonant frequency
Shape
stator core
Stator cores
Vacuum cleaners
title Investigation of Resonance Avoidance Method for Vacuum Cleaner
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