Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux Control

A technique for driving a star-connected PMSM without a position or speed sensor, which is known in the literature as Direct Flux Control (DFC), is described here. This technique is based on voltage measurements at the machine star point and can work even at very low speeds including standstill. The...

Full description

Bibliographic Details
Main Authors: Klaus Schuhmacher, Emanuele Grasso, Matthias Nienhaus
Format: Article
Language:English
Published: Wiley 2019-05-01
Series:The Journal of Engineering
Subjects:
Online Access:https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8055
id doaj-146c835825444f858b1a4284f837c94d
record_format Article
spelling doaj-146c835825444f858b1a4284f837c94d2021-04-02T08:23:43ZengWileyThe Journal of Engineering2051-33052019-05-0110.1049/joe.2018.8055JOE.2018.8055Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux ControlKlaus Schuhmacher0Emanuele Grasso1Matthias Nienhaus2Saarland University, Laboratory of Actuation TechnologySaarland University, Laboratory of Actuation TechnologySaarland University, Laboratory of Actuation TechnologyA technique for driving a star-connected PMSM without a position or speed sensor, which is known in the literature as Direct Flux Control (DFC), is described here. This technique is based on voltage measurements at the machine star point and can work even at very low speeds including standstill. The underlying principle of this technique is outlined and an improved position estimation algorithm allowing the exact reconstruction of the direction of maximum inductance is presented. The DFC technique is implemented on a microcontroller board and experimental validation is conducted on a PMSM both for quasi-static characterisation and for open-loop driving.https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8055position controlpermanent magnet motorssensorless machine controlmachine controlsynchronous motor drivesrotorsmicrocontrollersdirect flux controlvoltage measurementsmachine star pointlow speedsimproved position estimation algorithmDFC techniqueopen-loop drivingimproved rotor position determinationsensorless star-connected PMSM
collection DOAJ
language English
format Article
sources DOAJ
author Klaus Schuhmacher
Emanuele Grasso
Matthias Nienhaus
spellingShingle Klaus Schuhmacher
Emanuele Grasso
Matthias Nienhaus
Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux Control
The Journal of Engineering
position control
permanent magnet motors
sensorless machine control
machine control
synchronous motor drives
rotors
microcontrollers
direct flux control
voltage measurements
machine star point
low speeds
improved position estimation algorithm
DFC technique
open-loop driving
improved rotor position determination
sensorless star-connected PMSM
author_facet Klaus Schuhmacher
Emanuele Grasso
Matthias Nienhaus
author_sort Klaus Schuhmacher
title Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux Control
title_short Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux Control
title_full Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux Control
title_fullStr Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux Control
title_full_unstemmed Improved rotor position determination for a sensorless star-connected PMSM drive using Direct Flux Control
title_sort improved rotor position determination for a sensorless star-connected pmsm drive using direct flux control
publisher Wiley
series The Journal of Engineering
issn 2051-3305
publishDate 2019-05-01
description A technique for driving a star-connected PMSM without a position or speed sensor, which is known in the literature as Direct Flux Control (DFC), is described here. This technique is based on voltage measurements at the machine star point and can work even at very low speeds including standstill. The underlying principle of this technique is outlined and an improved position estimation algorithm allowing the exact reconstruction of the direction of maximum inductance is presented. The DFC technique is implemented on a microcontroller board and experimental validation is conducted on a PMSM both for quasi-static characterisation and for open-loop driving.
topic position control
permanent magnet motors
sensorless machine control
machine control
synchronous motor drives
rotors
microcontrollers
direct flux control
voltage measurements
machine star point
low speeds
improved position estimation algorithm
DFC technique
open-loop driving
improved rotor position determination
sensorless star-connected PMSM
url https://digital-library.theiet.org/content/journals/10.1049/joe.2018.8055
work_keys_str_mv AT klausschuhmacher improvedrotorpositiondeterminationforasensorlessstarconnectedpmsmdriveusingdirectfluxcontrol
AT emanuelegrasso improvedrotorpositiondeterminationforasensorlessstarconnectedpmsmdriveusingdirectfluxcontrol
AT matthiasnienhaus improvedrotorpositiondeterminationforasensorlessstarconnectedpmsmdriveusingdirectfluxcontrol
_version_ 1724170426278477824