Bearingless Segment Motor With Five Stator Elements-Design and Optimization

Bearingless motors and active magnetic bearings work completely contactless and wearless. With these properties, hermetically sealed and lubricant-free rotating systems for various applications can be designed. It is possible to stabilize three degrees of freedom by reluctance forces when a permanen...

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Veröffentlicht in:IEEE transactions on industry applications 2009-07, Vol.45 (4), p.1301-1308
Hauptverfasser: Gruber, W., Amrhein, W., Haslmayr, M.
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container_title IEEE transactions on industry applications
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creator Gruber, W.
Amrhein, W.
Haslmayr, M.
description Bearingless motors and active magnetic bearings work completely contactless and wearless. With these properties, hermetically sealed and lubricant-free rotating systems for various applications can be designed. It is possible to stabilize three degrees of freedom by reluctance forces when a permanent-magnet excited rotor disc is used. Hence, only the remaining three degrees of freedom are actively controlled. A subtype of this constructional design called bearingless slice motor is the bearingless segment motor. This paper comprises the design process of a bearingless segment motor with five equal stator elements and concentrated windings. Finite-element simulations are applied to maximize the bearing forces and the motor torque per ampere and minimize the reluctance forces. However, the mathematical model of the system is nonlinear, therefore, an appropriate nonlinear control scheme has to be applied to put the system into operation. The introduction of a prototype, together with first measurements, completes the paper.
doi_str_mv 10.1109/TIA.2009.2023560
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subjects Bearingless drive
bearingless segment motor
Finite element methods
force and torque optimization
Hermetic seals
Lubricants
Magnetic levitation
nonlinear control scheme
Permanent magnet motors
Process design
Reluctance motors
Rotors
Stator windings
Torque
title Bearingless Segment Motor With Five Stator Elements-Design and Optimization
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