A VBR induction machine model implementation for SimPowerSystem toolbox in Matlab-Simulink

TitleA VBR induction machine model implementation for SimPowerSystem toolbox in Matlab-Simulink
Publication TypeConference Paper
Year of Publication2008
AuthorsWang, L., J. Jatskevich, and S. C. Foroosh
Conference NamePower and Energy Society General Meeting - Conversion and Delivery of Electrical Energy in the 21st Century, 2008 IEEE
Pagination1 -6
Date Publishedjul.
Keywordsasynchronous machines, electric machine analysis computing, external network-circuit, high numerical efficiency, inductive networks, machine-network interface, mathematics computing, Matlab-Simulink toolbox SimPowerSystem, numerical analysis, numerical simulation, power electronics systems, power system simulation, power system simulations, resistive networks, rotor subsystem, three-phase stator branches, voltage-behind-reactance induction machine model
Abstract

This paper presents a voltage-behind-reactance (VBR) induction machine model for the Matlab-Simulink toolbox SimPowerSystem, which is widely used for simulations of power and power electronics systems. In the proposed VBR model, the three-phase stator branches are represented by decoupled and constant R-L branches behind voltage sources, which provide a direct interface of the model with the external network-circuit. The rotor subsystem is expressed in the qd coordinates resulting in a high numerical efficiency. The VBR model has full-order and is otherwise algebraically equivalent to the classical qd model. We present case studies of induction machine interfaced with resistive and inductive networks. The studies show that the proposed model significantly improves the machine-network interface and enhances the numerical accuracy and efficiency as compared with the built-in SimPowerSystem qd machine model for the discretized solution of electrical circuit.

URLhttp://dx.doi.org/10.1109/PES.2008.4596432
DOI10.1109/PES.2008.4596432

a place of mind, The University of British Columbia

Electrical and Computer Engineering
2332 Main Mall
Vancouver, BC Canada V6T 1Z4
Tel +1.604.822.2872
Fax +1.604.822.5949
Email:

Emergency Procedures | Accessibility | Contact UBC | © Copyright 2020 The University of British Columbia