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A novel SSPWM controlling inverter running nonlinear device

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Abstract

In the paper, Step sinus pulse width modulation (SSPWM) three phase inverter is tested on a nonlinear device which can produce harmonics. There are 12 switches on active and passive cases. On the inverter, operations of switches are provided by arranged SSPWM which can be calculated with similarity rules of triangles. A mathematical model of inverter is obtained with operating characteristics of the switches determined. SSPWM technique is used to control non-linear devices as thyristor and rectifiers which are widely used in electronic systems. So, single phase alternating voltage is converted to direct voltage with rectifier circuit to provide input voltage of inverter. After that, Six switches of common three phase inverter model are connected to six thyristors controlling inputs and outputs of three phase loads so that performance of SSPWM can be investigated on high level harmonic of loads. The inverter load of resistive (R) and inductive (L) are performed at the MATLAB Simulink so that SSPWM technique could be showed the reducing effect of the harmonic on loads. So, SSPWM and SPWM controlling inverter are performed on frequencies. Then, performances of common SPWM and SSPWM running nonlinear loads are compared with results.

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References

  1. Jung J, Nam KA (1999) Dynamic decoupling control scheme for high-speed operation of induction motors. IEEE Trans Ind Electron 46(1):100–110

    Article  Google Scholar 

  2. Su GJ (2006) Pulse-width-modulation schemes for an integrated traction and compressor drive system. In: 21st applied power electronics conference and exposition (APEC’06). vol 2, 19–23, pp 640–645

  3. Mohd A, Ortjohann E, Morton D, Omari O (2010) Review of control techniques for inverters parallel operation. Electr Power Syst Res 80(12):1477–1487

  4. Can E (2016) Novel high multilevel inverters investigated on simulation. Electr Eng. doi:10.1007/s00202-016-0396-z

  5. Kouki H, Fredj MB, Rehaoulia H (2016) Harmonic analysis of SVPWM control strategy on VSI-fed double-star induction machine performances. Electr Eng 98(2):133–143

  6. Ali JSM, Kannan R (2015) A new symmetric cascaded multilevel inverter topology using single and double source unit. J Power Electr 15(4):951–963

    Article  Google Scholar 

  7. Feng B, Lin H (2015) Finite control set model predictive control of AC/DC matrix converter for grid-connected battery energy storage application. J Power Electr 15(4):1006–1017

    Article  Google Scholar 

  8. Elmas C, Deperlioglu O, Sayan HH (2009) Adaptive fuzzy logic controller for DC converters. Expert Syst Appl 36:1540–1548

    Article  Google Scholar 

  9. Runghimmawan T (2006) Design and implementation multilevel inverter for 3 phase induction motor speed control with RBM chopper technique embedded on FPGA. Power Syst Technol. PowerCon 200

  10. Alexa D (1998) Single-phase inverter with ZVS capacitors connected on the DC side and the load in parallel with the resonance inductance. Electr Eng 81(2):109–116

  11. Ramani K, Sathik MAJ, Sivakumar S (2015) A new symmetric multilevel inverter topology using single and double source sub-multilevel inverters. J Power Electron 15(1):96–105

  12. Can E, Sayan HH (2016) PID and fuzzy controlling three phase asynchronous machine by low level DC source three phase inverter. Tehnički vjesnik 23(3):753–760. doi:10.17559/TV-20150106105608

  13. Mäki-Ontto P, Luomi J, Kinnunen H (2006) Reduction of capacitive and induced shaft voltages in an induction motor drive using dual-bridge inverter approach. Electr Eng 88(6): 465–472

  14. Li B, Xu D, Xu D (2014) Circulating current harmonics suppression for modular multilevel converters based on repetitive control. J Power Electr 14(6):1100–1108

  15. Gwon J-S, Kim C-S, Kang D-W, Park JW, Kim S (2014) Voltage source equipment for the grid fault testing and analysis of total harmonic distortion according to PWM methods. J Power Electron 14(6):1081–1092

  16. Silva WA, Junior ABS, Torrico BC, Honório DA, Neto TRF, dos Reis LLN, Barreto Luiz HSC (2015) Generalized predictive control robust for position control of induction motor using field-oriented control. Electr Eng 97(3):195–204

    Article  Google Scholar 

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Correspondence to Erol Can.

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Can, E., Sayan, H.H. A novel SSPWM controlling inverter running nonlinear device. Electr Eng 100, 39–46 (2018). https://doi.org/10.1007/s00202-016-0480-4

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  • DOI: https://doi.org/10.1007/s00202-016-0480-4

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