A general-purpose control algorithm is proposed for permanent-magnet (PM) synchronous machine drives based on the principle of direct-flux vector control. The algorithm does not require regulator tuning, and it is tailored to different machines automatically via identification of the stator resistance and flux linkage tables. The model parameters are identified via a preliminary self-commissioning procedure that can be integrated into the standard drive firmware with no need for extra hardware or offline manipulation. The combination of the control and self-commissioning algorithms forms a “plug-in” controller, which pertains to a controller that is capable of exploiting the full drive capabilities with no prior knowledge of the PM machine in use. Experimental results are reported for two prototype concentrated-winding PM machines designed for traction applications, i.e., one with a surface-mounted PM rotor and another with an interior PM rotor.
Plug-in, Direct Flux Vector Control of PM Synchronous Machine Drives
2015-01-01
Article (Journal)
Electronic Resource
English
machine vector control , stator , surface-mounted PM rotor , permanent magnet motor , stator resistance identification , synchronous motor drive , PM synchronous machine drive , plug-in controller , self-commissioning algorithm , rotor , surface mount technology , traction , extra hardware , standard drive firmware , interior PM rotor , prototype , offline manipulation , permanent magnet synchronous machine drive , concentrated winding PM machine design , magnetic flux , flux linkage table identification , traction applications
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