DocumentCode
157185
Title
A voltage-behind-reactance model of a dual-voltage six-phase induction machine
Author
Gradev, Stanko ; Findeisen, Daniel ; Toennesen, Tore-Lied ; Herzog, Hans-Georg
Author_Institution
BMW Group, Tech. Univ. of Munich, Munich, Germany
fYear
2014
fDate
2-5 Sept. 2014
Firstpage
672
Lastpage
678
Abstract
The paper describes a voltage-behind reactance model of a six-phase induction machine with two different voltage levels realized in the machine, with magnetic saturation and cross-saturation of the main inductance, magnetic and electric coupling between the 6 phases and a possible mechanical displacement between the two 3-phase stator systems. The stator and rotor stray inductances and resistances are modeled as constant values. The cross-coupling between the d and q axes of the main inductances is included. The described modeling method can be easily extended to multiple nx3-phase induction machines with multiple voltage levels, arbitrary displacement between the stator windings and a common saturation of the iron core in the rotor. It is assumed that the turn effective ratio of both systems is constant throughout the saturation curve of the main inductance.
Keywords
asynchronous machines; rotors; stators; 3-phase stator systems; arbitrary displacement; constant values; cross-saturation; dual-voltage six-phase induction machine; electric coupling; iron core; magnetic coupling; magnetic saturation; main inductance; mechanical displacement; multiple nx3-phase induction machines; multiple voltage levels; rotor stray inductances; saturation curve; stator stray inductances; stator windings; stray resistances; turn effective ratio; voltage-behind-reactance model; Equations; Inductance; Induction machines; Integrated circuit modeling; Mathematical model; Rotors; Stators; saturation modeling; six-phase induction machine; voltage-behind-reactance modeling;
fLanguage
English
Publisher
ieee
Conference_Titel
Electrical Machines (ICEM), 2014 International Conference on
Conference_Location
Berlin
Type
conf
DOI
10.1109/ICELMACH.2014.6960253
Filename
6960253
Link To Document