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LQ control of sinusoidal current PWM rectifiers

LQ control of sinusoidal current PWM rectifiers

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A new design method based on linear quadratic control theory is developed for the design of PWM rectifiers with sinusoidal input current. PWM rectifiers are promising because they can supply DC power while keeping a sinusoidal current with unity in the fundamental power factor. There are two types, a voltage-fed rectifier and a current-fed rectifier. The former is required to simultaneously control both the fundamental power factor and direct voltage, while the latter does so for both the fundamental power factor and direct current. State feedback control is essentially suited for multi-input and multi-output systems such as these. Here a discrete-time optimal regulator is applied to their control because it provides a microprocessor-based robust feedback system without steady-state errors in response to a step reference and/or disturbance change. The regulator is implemented using a digital signal processor. Experimental results demonstrate the validity.

References

    1. 1)
      • S. Nonaka , X. Jin . PWM control method and steady-state characteristics of novel currentoutput type GTO converter. IEE of Japan Trans. , 2 , 90 - 97
    2. 2)
      • Fukuda, S., Iwaji, Y.: `Modeling and control of current source PWM rectifiers', Conf. Rec. of IEE of Japan Ind. Appl. National Conv., 1992, p. 384–389.
    3. 3)
      • Iwaji, Y., Fukuda, S.: `A control method of PWM voltage source rectifier', Conf. Rec. of IEE of Japan Ind. Appl. National Conv., 1991, p. 412–417.
    4. 4)
      • Tozuka, H., Ogasawara, S., Akagi, H., Nabac, A.: `Voltage source converter-inverter systemwith instantaneous power feedback', Conf. Rec. of IEE of Japan Ind. Appl. National Conv., 1989, p. 473–474.
    5. 5)
      • Fukuda, S., Takada, N.: `PWM current source rectifier with sinusoidal line current', Conf. Rec. of IEEE IAS Annual Meet., 1987, p. 679–684.
    6. 6)
      • Sugimoto, H., Morimoto, S., Yano, M.: `A high performance control of a voltage-type PWMconverter', Conf. Rec. of IEEE PESC'88, 1988, p. 360-368.
    7. 7)
      • Sakai, K.: `All digital control method of voltage source converter', IEE of Japan Static Power Converter Conf. SPC-90-33, 1991, p. 5–14.
    8. 8)
      • T. Anbe . Power electronics and system control.
    9. 9)
      • Fukuda, S., Iwaji, Y., Aoyama, T.: `Modelling and control of sinusoidal PWM rectifiers', Conf. Rec. of EPE'93, 1993, 4, p. 115–120.
    10. 10)
      • M. Hombu , S. Ueda , A. Ueda , Y. Matsuda . A new current source GTO inverter withsinusoidal output voltage and current. IEEE Trans. Ind. Appl. , 5 , 1192 - 1198
    11. 11)
      • S. Fukuda , Y. Iwaji , H. Hasegawa . PWM technique for inverter with sinusoidal outputcurrent. IEEE Trans. on Power Electron. , 1 , 54 - 61
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