An improved 1-φ rectifier system using fuzzy logic control with 3-φ variable frequency drive

  • Authors

    • M Kiran Kumar
    • SK Almaj
    • K S. Srikanth
    2018-03-18
    https://doi.org/10.14419/ijet.v7i2.7.10875
  • AC to DC converter, Dc ripple method, Fuzzy logic controller (FLC), VFD.

  • A 3-Φ VFD steam fed from a 1-Φ AC supply. To stop more stresses in the components within the drive and within the input supply,  the drive output power should be restricted. To beat this problem, several VFD makers decided that drive to be de-rated. As often as possible, the drive’s output frequency is limited, supported the dc voltage ripple hence the DC capacitors aren’t overstressed. Through the tradional technique decrement of strain within the DC Capacitors, it doesn’t consider the stresses in other parts of the drive, particularly the diodes at the input and terminal blocks of input. During this paper, brand new fuzzy controller based technique for the protection of the drive the motor   current with FLC is projected. The motor  current is shown to possess info relating the stresses in numerous elements of the VFD together with the diodes at the input, terminal blocks of the input, and therefore the Dc capacitors. The o/p power is projected to be restricted by decreasing the o/p frequency supported the avg and ripple abundancy of the quadrature axis current rather than the dc voltage ripple. To prove this conception, a comparison is made between fuzzy logic controller based technique employing a less power VFD fed from a 1-Φ ac, and the conventional dc voltage ripple based frequency technique.

                                                                                                                                                                     

     

  • References

    1. [1] Mahesh Swamy And Chaitanya Guddanti, â€An Improved Single Phase Active Front End Rectifier System For Use With Three Phase VFD’s â€IEEE Applied Power Electronics Conference And Exposition (APEC).

      [2] Mahesh Swamy And Joshua Collins And Anupama Balakrishnan, â€An Optimal Solution For Operating Three Phase Variable Frequency Drive From A Single-Phase AC Sourceâ€, IEEE 2014 Conference.

      [3] Mahesh Swamy And Joshua Collins And Anupama Balakrishnan “System For Operating A Three Phase Variable Frequency Drive From A Single Phase AC Sourceâ€, U. S. Patent Applied February 11, 2104.

      [4] E.C. Dos Santos, C.B. Jacobina, E. R. C. Da Silva And N.Rocha,†Single Phase To Three Phase Power Converters: State Of Artâ€, IEEE Trans. Power Electron, Vol.27, No.5, Pp: 2437-2452 May 2012.

      [5] Y. Jang And M.M. Jovanic †A Bridgeless PFC Boost Rectifier With Optimized Magnetic Utilizationâ€, IEEE Trans. Power Electron, Vol.24, No.1, Pp: 85-93 Jan 2009.

      [6] T. B. Bashaw And T. A. Lipo, “B4 Topology Options For Operating Threephase Induction Machines On Single Phase Grids,†In Proc. IEEE Appl.Power Electron. Conf. Expo., Mar. 2005, Pp. 1894–1902.

      [7] P. N. Enjeti, A. Rahman, And R. Jakkali, “Economic Single-Phaseto Three-Phase Converter Topologies For Fixed And Variable Frequency Output,†IEEE Trans. Power Electron., Vol. 8, No. 3, Pp. 329–335,Jul. 1993.

      [8] M. Swamy And S. Schifko, “An Improved Active Front End Non-Regenerative Rectifier System Employing A Five-Limb Inductor,†In Proc. IEEE IEMDC, May 2013, Pp. 1241–1248.

      [9] Yaskawa AC Drive P1000—Industrial Fan And Pump Drive, Manual Spplement, Yaskawa America, Inc., Waukegan, IL, USA, Sep. 2012, Suppl. TOEP YEASUP 03B.

      [10] AI. Maswood And F. Liu, “A Novel Unity Power Factor Input Stage For AC Drive Applications,†IEEE Trans. Power Electron, Vol. 20, No. 4, Pp. 839–846, Jul. 2005.

      [11] T. Sasaki, N. Yuzuhara, And A. Imai, “Pump-Protecting Device, Pump-Protecting Method, And Pumping Apparatusâ€, U.S. Patent 6,244,825, B1; Date Of Patent: 12 June 2001.

      [12] “Iq Pump 1000 AC Drive, Quick Start Guide†Publication TOEPYAIP1W01B,Yaskawa America, Www.Yaskawa.Com.

      [13] V. Kinnares And C. Charumit, “Modulating Functions Of Space Vector PWM For Three-Leg VSI-Fed Unbalanced Two-Phase Induction Motors,†IEEE Trans. Power Electron., Vol. 24, No. 4, Pp. 1135–1139, Apr. 2009.

      [14] B. Zahedi And S. Vaez-Zadeh, “Efficiency Optimization Control Of Singlephase Induction Motor Drives,†Ieee Trans. Power Electron., Vol. 24,No. 4, Pp. 1062–1070, Apr. 2009.

      [15] Vundavilli, P.R., Parappagoudar, M.B., Kodali, S.P. And Benguluri, S., 2012. Fuzzy Logic-Based Expert System For Prediction Of Depth Of Cut In Abrasive Water Jet Machining Process. Knowledge-Based Systems, 27, Pp. 456-464.

      [16] Sadasivarao, B. And Madhav, B.T.P., 2014. Analysis Of Hybrid Slot Antenna Based On Substrate Permittivity. Arpn Journal Of Engineering And Applied Sciences, 9(6), Pp. 885-890.

      [17] Lakshmikanth, P., Takeshore, K. And Madhav, B.T.P., 2015. Printed Log-Periodic Dipole Antenna With Notched Filter At 2.45 Ghz Frequency For Wireless Communication Applications. Journal Of Engineering And Applied Sciences, 10(3), Pp. 40-44.

      [18] Madhav, B.T.P., Krishnam Naidu Yedla, G.S., Kumar, K.V.V., Rahul, R. And Srikanth, V., 2014. Fractal Aperture Ebg Ground Structured Dual Band Planar Slot Antenna. International Journal Of Applied Engineering Research, 9(5), Pp. 515-524.

      [19] Madhav, B.T.P., Kotamraju, S.K., Manikanta, P., Narendra, K., Kishore, M.R. And Kiran, G., 2014. Tapered Step Cpw-Fed Antenna For Wideband Applications. Arpn Journal Of Engineering And Applied Sciences, 9(10), Pp. 1967-1973.

      [20] Madhav, B.T.P., Mohan Reddy, S.S., Sanjay, B. And Ujwala, D., 2013. Trident Shaped Ultra Wideband Antenna Analysis Based On Substrate Permittivity. International Journal Of Applied Engineering Research, 8(12), Pp. 1355-1361.

      [21] MADHAV, B.T.P., SANIKOMMU, M., PRANOOP, M.S., BOSE, K.S.N.M.C. And KUMAR, B.S., 2015. Cpw Fed Antenna For Wideband Applications Based On Tapered Step Ground And Ebg Structure. Indian Journal Of Science And Technology, 8, Pp. 119-127.

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    Kiran Kumar, M., Almaj, S., & S. Srikanth, K. (2018). An improved 1-φ rectifier system using fuzzy logic control with 3-φ variable frequency drive. International Journal of Engineering & Technology, 7(2.7), 520-525. https://doi.org/10.14419/ijet.v7i2.7.10875