Field weakening control of a PM vehicle drive

This paper develops a new field weakening method for an integrated permanent magnet synchronous machine vehicle drive. This method adopts both the DC-link and the rotor speed as a feedback signals to generate the demagnetising current reference. This eliminates the effect of the rotor speed on the F...

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Main Authors: Yaman Zbede, Judith Apsley
Format: Article
Language:English
Published: Wiley 2019-04-01
Series:The Journal of Engineering
Subjects:
Online Access:https://digital-library.theiet.org/content/journals/10.1049/joe.2018.5347
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spelling doaj-243aa830b0254b88b11691ccad2072722021-04-02T06:49:07ZengWileyThe Journal of Engineering2051-33052019-04-0110.1049/joe.2018.5347JOE.2018.5347Field weakening control of a PM vehicle driveYaman Zbede0Judith Apsley1Manchester UniversityManchester UniversityThis paper develops a new field weakening method for an integrated permanent magnet synchronous machine vehicle drive. This method adopts both the DC-link and the rotor speed as a feedback signals to generate the demagnetising current reference. This eliminates the effect of the rotor speed on the FW controller dynamics and ensures stable operation across the whole range of speeds. Mathematical analysis of the system is used to design the controller gains to achieve the desired dynamic response. A maximum torque per ampere (MTPA) strategy is included in the control design, with a linearised function to reduce the computational demand. Experimental results show stable and satisfactory operation at different speeds and load conditions. They also illustrate smooth transition between the MTPA operation and the FW operation when the rotor speed crosses base speed.https://digital-library.theiet.org/content/journals/10.1049/joe.2018.5347synchronous machinesfeedbacktorque controlmachine controlsynchronous motorsrotorssynchronous motor driveselectric current controlmathematical analysisdynamic responsepermanent magnet motorspermanent magnet machinesbase speedFW operationMTPA operationload conditionsdifferent speedscontrol designampere strategydesired dynamic responsecontroller gainsstable operationFW controller dynamicsdemagnetising current referencefeedback signalsrotor speedDC-linkintegrated permanent magnet synchronous machine vehicle drivefield weakening methodPM vehicle drivefield weakening control
collection DOAJ
language English
format Article
sources DOAJ
author Yaman Zbede
Judith Apsley
spellingShingle Yaman Zbede
Judith Apsley
Field weakening control of a PM vehicle drive
The Journal of Engineering
synchronous machines
feedback
torque control
machine control
synchronous motors
rotors
synchronous motor drives
electric current control
mathematical analysis
dynamic response
permanent magnet motors
permanent magnet machines
base speed
FW operation
MTPA operation
load conditions
different speeds
control design
ampere strategy
desired dynamic response
controller gains
stable operation
FW controller dynamics
demagnetising current reference
feedback signals
rotor speed
DC-link
integrated permanent magnet synchronous machine vehicle drive
field weakening method
PM vehicle drive
field weakening control
author_facet Yaman Zbede
Judith Apsley
author_sort Yaman Zbede
title Field weakening control of a PM vehicle drive
title_short Field weakening control of a PM vehicle drive
title_full Field weakening control of a PM vehicle drive
title_fullStr Field weakening control of a PM vehicle drive
title_full_unstemmed Field weakening control of a PM vehicle drive
title_sort field weakening control of a pm vehicle drive
publisher Wiley
series The Journal of Engineering
issn 2051-3305
publishDate 2019-04-01
description This paper develops a new field weakening method for an integrated permanent magnet synchronous machine vehicle drive. This method adopts both the DC-link and the rotor speed as a feedback signals to generate the demagnetising current reference. This eliminates the effect of the rotor speed on the FW controller dynamics and ensures stable operation across the whole range of speeds. Mathematical analysis of the system is used to design the controller gains to achieve the desired dynamic response. A maximum torque per ampere (MTPA) strategy is included in the control design, with a linearised function to reduce the computational demand. Experimental results show stable and satisfactory operation at different speeds and load conditions. They also illustrate smooth transition between the MTPA operation and the FW operation when the rotor speed crosses base speed.
topic synchronous machines
feedback
torque control
machine control
synchronous motors
rotors
synchronous motor drives
electric current control
mathematical analysis
dynamic response
permanent magnet motors
permanent magnet machines
base speed
FW operation
MTPA operation
load conditions
different speeds
control design
ampere strategy
desired dynamic response
controller gains
stable operation
FW controller dynamics
demagnetising current reference
feedback signals
rotor speed
DC-link
integrated permanent magnet synchronous machine vehicle drive
field weakening method
PM vehicle drive
field weakening control
url https://digital-library.theiet.org/content/journals/10.1049/joe.2018.5347
work_keys_str_mv AT yamanzbede fieldweakeningcontrolofapmvehicledrive
AT judithapsley fieldweakeningcontrolofapmvehicledrive
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