Verdyck et al., 1994 - Google Patents
An acoustic model for a permanent magnet machine: modal shapes and magnetic forcesVerdyck et al., 1994
- Document ID
- 5337377970555111191
- Author
- Verdyck D
- Belmans R
- Publication year
- Publication venue
- IEEE transactions on industry applications
External Links
Snippet
The magnetic field inside a machine is to a large extent responsible for the mechanical excitation of the stator structure, generating vibrations and thus, audible noise. The current numerical techniques allow an easy calculation of the magnetic field. Unfortunately, the step …
Similar Documents
Publication | Publication Date | Title |
---|---|---|
Verdyck et al. | An acoustic model for a permanent magnet machine: modal shapes and magnetic forces | |
Torregrossa et al. | Fast computation of electromagnetic vibrations in electrical machines via field reconstruction method and knowledge of mechanical impulse response | |
Anwar et al. | Radial force calculation and acoustic noise prediction in switched reluctance machines | |
Belmans et al. | Electro-mechanical analysis of the audible noise of an inverter-fed squirrel-cage induction motor | |
Gundogmus et al. | Acoustic noise mitigation in high pole count switched reluctance machines utilizing skewing method on stator and rotor poles | |
Weilharter et al. | Validation of a comprehensive analytic noise computation method for induction machines | |
Kim et al. | Unbalanced magnetic pull effects on rotordynamics of a high-speed induction generator supported by active magnetic bearings–analysis and experimental verification | |
Pindoriya et al. | Numerical and experimental analysis of torsional vibration and acoustic noise of PMSM coupled with DC generator | |
Braunisch et al. | Combined analytical–numerical noise calculation of electrical machines considering nonsinusoidal mode shapes | |
Martinez et al. | A 2D magnetic and 3D mechanical coupled finite element model for the study of the dynamic vibrations in the stator of induction motors | |
Knight et al. | Use of a permeance model to predict force harmonic components and damper winding effects in salient-pole synchronous machines | |
Van der Giet et al. | Acoustic simulation of a special switched reluctance drive by means of field–circuit coupling and multiphysics simulation | |
Salameh et al. | Surrogate vibration modeling approach for design optimization of electric machines | |
Song et al. | An overview of noise-vibration-harshness analysis for induction machines and permanent magnet synchronous machines | |
Dorrell et al. | A vibration-based condition monitoring system for switched reluctance machine rotor eccentricity detection | |
Yacamini et al. | Noise and vibration from induction machines fed from harmonic sources | |
Schlensok et al. | Electromagnetically excited audible noise–evaluation and optimization of electrical machines by numerical simulation | |
Rezig et al. | Effect of rotor eccentricity faults on noise generation in permanent magnet synchronous motors | |
Sobra et al. | Impact of electrical machine structural parts on its modal and vibration behavior | |
Verdyck et al. | An Acoustic Model for Magnet Machine: Modal Shapes and Magnetic Forces | |
Holopainen et al. | Electromechanical interaction in torsional vibrations of drive train systems including an electrical machine | |
Cheng et al. | Electromagnetic noise characteristics analysis and noise traceability in induction motor | |
Holopainen et al. | Unbalanced magnetic pull induced by arbitrary eccentric motion of cage rotor in transient operation. Part 2: Verification and numerical parameter estimation | |
Verdyck et al. | An approach to modelling of magnetically excited forces in electrical machines | |
Gabsi et al. | Computation and measurement of magnetically induced vibrations of a switched reluctance machine |