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      KCI등재 SCIE SCOPUS

      Low Parameter Sensitivity Deadbeat Direct Torque Control for Surface Mounted Permanent Magnet Synchronous Motors

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      https://www.riss.kr/link?id=A103478090

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      다국어 초록 (Multilingual Abstract)

      In order to decrease the parameter sensitivity of deadbeat direct torque control (DB-DTC), an improved deadbeat direct torque control method for surface mounted permanent-magnet synchronous motor (SPMSM) drives is proposed. First, the track errors of ...

      In order to decrease the parameter sensitivity of deadbeat direct torque control (DB-DTC), an improved deadbeat direct torque control method for surface mounted permanent-magnet synchronous motor (SPMSM) drives is proposed. First, the track errors of the stator flux and torque that are caused by model parameter mismatch are analyzed. Then a sliding mode observer is designed, which is able to predict the d-q axis currents of the next control period for one-step delay compensation, and to simultaneously estimate the model parameter disturbance. The estimated disturbance of this observer is used to estimate the stator resistance offline. Then the estimated resistance is required to update the designed sliding-mode observer, which can be used to estimate the inductance and permanent-magnetic flux linkage online. In addition, the flux and torque estimation of the next control period, which is unaffected by the model parameter disturbance, is achieved by using predictive d-q axis currents and estimated parameters. Hence, a low parameter sensitivity DB-DTC method is developed. Simulation and experimental results show the validity of the proposed direct control method.

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      목차 (Table of Contents)

      • Abstract
      • I. INTRODUCTION
      • II. SPMSM MODEL
      • III. DEADBEAT DIRECT TORQUE CONTROL
      • IV. PARAMETER SENSITIVITY ANALYSIS OF THE DEADBEAT DIRECT TORQUE CONTROL
      • Abstract
      • I. INTRODUCTION
      • II. SPMSM MODEL
      • III. DEADBEAT DIRECT TORQUE CONTROL
      • IV. PARAMETER SENSITIVITY ANALYSIS OF THE DEADBEAT DIRECT TORQUE CONTROL
      • V. LOW PARAMETER SENSITIVITY DEADBEAT DIRECT TORQUE CONTROL
      • VI. SIMULATION AND EXPERIMENTAL RESULTS
      • VII. CONCLUSIONS
      • REFERENCES
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      참고문헌 (Reference)

      1 C. Choi, "Wide-speed direct torque and flux control for interior PM synchronous motors operating at voltage and current limits" 49 (49): 109-117, 2013

      2 Y. Zhang, "Two-vector-based model predictive torque control without weighting factors for induction motor drives" 31 (31): 1381-1390, 2016

      3 J. S. Lee, "Time optimal and loss minimizing deadbeat-direct torque and flux control for interior permanent magnet synchronous machines" 50 (50): 1880-1890, 2014

      4 Y. R. Kim, "Speed sensorless vector control of induction motor using extended kalman filter" 30 (30): 1225-1233, 1994

      5 K. -B. Lee, "Sensorless DTC-SVM for induction motor driven by a matrix converter using a parameter estimation strategy" 55 (55): 512-521, 2008

      6 W. Xu, "Reduced parameter sensitivity stator flux linkage observer in deadbeat-direct torque and flux control for IPMSMs" 50 (50): 2636-2636, 2014

      7 Y. Wang, "Real-time parameter identification and integration on deadbeat-direct torque and flux control(DB-DTFC)without inducing additional torque ripple" 52 (52): 3104-3114, 2016

      8 K. Wang, "Online updating of rotor time constant based on combined voltage and current mode flux observer for speed-sensorless AC drives" 61 (61): 4583-4593, 2014

      9 M. Rashed, "Nonlinear adaptive state-feedback speed control of a voltage fed induction motor with varying parameters" 42 (42): 723-732, 2006

      10 Y. Wang, "Loss manipulation capabilities of deadbeat direct torque and flux control induction machine drives" 51 (51): 4554-4566, 2015

      1 C. Choi, "Wide-speed direct torque and flux control for interior PM synchronous motors operating at voltage and current limits" 49 (49): 109-117, 2013

      2 Y. Zhang, "Two-vector-based model predictive torque control without weighting factors for induction motor drives" 31 (31): 1381-1390, 2016

      3 J. S. Lee, "Time optimal and loss minimizing deadbeat-direct torque and flux control for interior permanent magnet synchronous machines" 50 (50): 1880-1890, 2014

      4 Y. R. Kim, "Speed sensorless vector control of induction motor using extended kalman filter" 30 (30): 1225-1233, 1994

      5 K. -B. Lee, "Sensorless DTC-SVM for induction motor driven by a matrix converter using a parameter estimation strategy" 55 (55): 512-521, 2008

      6 W. Xu, "Reduced parameter sensitivity stator flux linkage observer in deadbeat-direct torque and flux control for IPMSMs" 50 (50): 2636-2636, 2014

      7 Y. Wang, "Real-time parameter identification and integration on deadbeat-direct torque and flux control(DB-DTFC)without inducing additional torque ripple" 52 (52): 3104-3114, 2016

      8 K. Wang, "Online updating of rotor time constant based on combined voltage and current mode flux observer for speed-sensorless AC drives" 61 (61): 4583-4593, 2014

      9 M. Rashed, "Nonlinear adaptive state-feedback speed control of a voltage fed induction motor with varying parameters" 42 (42): 723-732, 2006

      10 Y. Wang, "Loss manipulation capabilities of deadbeat direct torque and flux control induction machine drives" 51 (51): 4554-4566, 2015

      11 K. Liu, "Influence of nonideal voltage measurement on parameter estimation in permanent-magnet synchronous machines" 59 (59): 2438-2447, 2012

      12 M. Saur, "Implementation of deadbeat-direct torque and flux control for synchronous reluctance machines to minimize loss each switching period" 215 (215): 2016-,

      13 W. Xu, "High-frequency injection-based stator flux linkage and torque estimation for DB-DTFC implementation on IPMSMs considering cross-saturation effects" 50 (50): 3805-3815, 2014

      14 W. Xie, "Finite-control-set model predictive torque control with a deadbeat solution for PMSM drives" 62 (62): 5402-5410, 2015

      15 Z. Q. Zhu, "Estimation of winding resistance and PM flux-linkage in brushless AC machines by reduced-order extended Kalman filter" 740 (740): 2007-,

      16 G. S. Buja, "Direct torque control of PWM inverter-fed AC motors – A survey" 51 (51): 744-757, 2004

      17 N. T. West, "Digital implementation of stator and rotor flux-linkage observers and a stator-current observer for deadbeat direct torque control of induction machines" 45 (45): 729-736, 2009

      18 A. Yoo, "Design of flux observer robust to interior permanentmagnet synchronous motor flux variation" 45 (45): 314-322, 2009

      19 J. S. Lee, "Deadbeat-direct torque and flux control of interior permanent magnet synchronous machines with discrete time stator current and stator flux linkage observer" 47 (47): 1749-1758, 2011

      20 X. Zhang, "Deadbeat Predictive Current Control of Permanent-Magnet Synchronous Motors with Stator Current and Disturbance Observer" 32 (32): 3818-3834, 2017

      21 G. Feng, "Current injection-based online parameter and VSI nonlinearity estimation for PMSM drives using current and voltage DC components" 2 (2): 119-128, 2016

      22 H. Le-Huy, "Analysis and implementation of a real-time predictive current controller for permanent-magnet synchronous servo drives" 41 (41): 110-117, 1994

      23 Z. Xu, "An adaptive sliding stator flux observer for a direct-torque-controlled IPM synchronous motor drive" 54 (54): 2398-2406, 2007

      24 I. Boldea, "Active flux DTFCSVM sensorless control of IPMSM" 24 (24): 314-322, 2009

      25 Guodong Feng, ""IEEE Trans" 52 (52): 2016

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