VHFIM sensorless control of PMSM

Bobek, V.; Dobrucký, Branislav; Pavlanin, Rastislav; Ševčı́k, Peter

doi:10.1109/isie.2010.5636280

Cited by 2 publications

(1 citation statement)

References 6 publications

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“…Other offline methods include [40], [41]. A sensorless control scheme that works with offlineidentified parameters is presented in [42] that makes use of virtual high frequency injection method for position identification. A more detailed review on the measurement of synchronous inductances can be found in [43].…”

Section: B Identification With Sinusoidal Suppliesmentioning

confidence: 99%

Parameter identification and self-commissioning of AC permanent magnet machines - A review

Odhano

Bojoi

Popescu

et al. 2015

2015 IEEE Workshop on Electrical Machines Design, Control and Diagnosis (WEMDCD)

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Parameter identification of permanent magnet synchronous machines is a topic of utmost interest these days. The growing effort and investment in this field of research is largely due to the ever-expanding market share of these machines. The high-performance and efficient control of the drive depends on the accuracy with which the information about the machine connected to its terminals is available. The available identification methods are surveyed here and they are classified into offline and online strategies. Self-commissioning, in principle, is a subset of offline methods, yet it is treated separately for its importance in modern adjustable speed drives that tend to minimize the user intervention. Fully exploiting the power electronic converter and the computational power on-board a modern drive, the self-commissioning feature can be embedded in the start-up routine of the drive to estimate the parameters of the machine at hand. This paper presents a review of the parameter identification techniques and schemes investigated over the past few decades.

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Section: B Identification With Sinusoidal Suppliesmentioning

confidence: 99%

Parameter identification and self-commissioning of AC permanent magnet machines - A review

Odhano

Bojoi

Popescu

et al. 2015

2015 IEEE Workshop on Electrical Machines Design, Control and Diagnosis (WEMDCD)

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Position control of Two-Phase Induction motor using dSpace environment

Kascak

Prazenica

Dobrucký

2012

IECON 2012 - 38th Annual Conference on IEEE Industrial Electronics Society

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This paper deals with position vector control of Two Phase Induction Machine (TPIM). Indirect Rotor-Field Oriented Control -IRFOC was used as a vector control scheme. Each phase of induction motor is fed independently by single phase full-bridge inverter. A general model of control system of the two-phase induction machine including a position loop is proposed in the paper. The virtual high frequency injection method for position estimation without using sensor of the position is also proposed in the paper. A computer simulation and experimental verification of the position vector control of two-phase induction motor drive is realized and results are presented. I. [NTRODUCTION Two-phase induction motors (T PIMs) are one of widely used motors. To achieve a variable speed operation a power electronics inverter can be used. Indirect Rotor-Field Oriented Control (IRFOC) is modern technique for high perfonnance control of the PWM inverter fed TP[M. The cost reduction of the semiconductor switches and efficient use of the energy, even for low-power application, has stimulated the investigation of different two-phase motor drive schemes [1 .1 -[3]. [n these schemes the single-phase motor drive, wIthout startup and running capacitor, is treated as an asymmetric two-phase machine. This paper investigates the use of the scheme in Fig. 1 to feed independently each phase of TPIM. The field oriented strategy is based on the papers [4 ]-[7] and it will be described in the next section. The importance of the virtual high frequency injection method is in injecting of the high frequency signal in the model of the machine, not in the real motor. 8* Fig. 1 Block diagram of position vector control algorithm II. POSITION VECTOR CONTROL Model of TP[M is explained in [8]-[[ 0] and therefore the motor and control algorithm will not be described in great detail in this paper. The proposed control algorithm scheme of IRFOC is depicted in Fig. 1. Where: Wsl = W,-W is the slip frequency, Ws = db/dt is the synchronous frequency brfis the position of the rotor flux vector. Then, isd/ controls the rotor flux and i,q/ controls the electromagnetic torque. As an example, Fig. [ shows the block diagram of [RFOC which has been adapted for the two phase machine. [n this diagram Te * and !{Jr * represents the reference electromagnetic torque and amplitude of the rotor flux, respectively.The d o r t block performs the coordinate transformation from the reference frame aligned along with the rotor-flux vector to the stationary reference frame. Furthermore, is/ and ist represents the reference currents supplied to the PI stator current controllers which must be imposed on the machine windings. [t can be seen that the two current controllers provide control voltages Vsd and Vsq. These voltages are supplemented by decoupling voltages Ed and Eq respectively to produce voltage commands. The full-bridge PWM inverters can be controlled by the unipolar SPWM technique or eight quadrant space vector PWM technique [11].

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VHFIM sensorless control of PMSM

Cited by 2 publications

References 6 publications

Parameter identification and self-commissioning of AC permanent magnet machines - A review

Parameter identification and self-commissioning of AC permanent magnet machines - A review

Position control of Two-Phase Induction motor using dSpace environment

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