Effect of Flaying Capacitors on Improving the 4 Level Three-Cell Inverter
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Effect of Flaying Capacitors on Improving the 4 Level Three-Cell Inverter

Authors: Kelaiaia Mounia Samira, Labar Hocine, Bounaya Kamel, Kelaiaia Samia

Abstract:

With the rapid advanced of technology, the industrial processes become increasingly demanding, from the point of view, power quality and controllability. The advent of multi levels inverters responds partially to these requirements. But actually, the new generation of multi-cells inverters permits to reach more performances, since, it offers more voltage levels. The disadvantage in the increase of voltage levels by the number of cells in cascades is on account of series igbts synchronisation loss, from where, a limitation of cells in cascade to 4. Regarding to these constraints, a new topology is proposed in this paper, which increases the voltage levels of the three-cell inverter from 4 to 8; with the same number of igbts, and using less stored energy in the flaying capacitors. The details of operation and modelling of this new inverter structure are also presented, then tested thanks to a three phase induction motor. KeywordsFlaying capacitors, Multi-cells inverter, pwm, switchers, modelling.

Keywords: Flaying capacitors, Multi-cells inverter, pwm, switchers, modelling.

Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1076470

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[1] Pérez-tom├ís, x. Jord├á, p. Godignon, j. L. G├ílvez, m. Vellveh├¡ and j. Mill├ín igbt gate driver ic with full-bridge output stage using a modified standard cmos process microelectronics journal, volume 35, issue 8, august 2004, pages 659-666.
[2] Said barkati, lotfi baghli, el madjid berkouk and mohamed-seghir boucherit harmonic elimination in diode-clamped multilevel inverter using evolutionary algorithms electric power systems research volume 78, issue 10, october 2008, pages 1736-1746.
[3] J. Rodriguez, j.-s. Lai, and f. Z. Peng, "multilevel inverters: a survey of topologies, controls, and applications," ieee trans. Ind. Electron., vol. 49, no. 4, pp. 724-738, aug. 2002.
[4] X. Xu, y. Zou, k. Ding, and f. Liu, "cascade multilevel inverter with phase-shift spwm and its application in statcom," in proc. Ieee iecon, 2004, vol. 2, pp. 1139-1143.
[5] J. N. Chiasson, l. M. Tolbert, k. J. Mckenzie, and z. Du, "elimination of harmonics in a multilevel converter using the theory of symmetric polynomials and resultants," ieee trans. Control syst. Technol., vol. 13, no. 2, pp. 216-223, mar. 2005.
[6] defay, f.; llor, a.m.; fadel, m.a direct predictive control of shunt active power filters using multicell converter, 2007 european conference on power electronics and applications volume , issue , 2-5 sept. 2007 pp:1 - 9.
[7] J. M. Carrasco, l. G. Franquelo, j. T. Bialasiewicz, e. Galvan, r. C. Portilloguisado, m. A. M. Prats, j. I. Leon, and n.moreno-alfonso, "power-electronic systems for the grid integration of renewable energysources: a survey," ieee trans. Ind. Electron., vol. 53, no. 4, pp. 1002- 1016, jun. 2006.
[8] H. Ertl, j. W. Kolar, and f. C. Zach, "a novel multicell dc-ac converter for applications in renewable energy systems," ieee trans. Ind. Electron.,vol. 49, no. 5, pp. 1048-1057, oct. 2002.
[9] R. Beig, u. R. Y. Kumar, and v. T. Ranganathan, "a novel fifteen level inverter for photovoltaic power supply system," in conf. Rec. 39th ieee ias annu. Meeting, 2004, pp. 1165-1171.
[10] Anis w. R analysis of a three-level bridge inverter for photovoltaics, solar cells 1988, vol. 25, no3, pp. 255-263 (10 ref.).
[11] L. M. Tolbert, f. Z. Peng, and t. G. Habetler, "multilevel converters for large electric drives," ieee trans. Ind. Appl., vol. 35, no. 1, pp. 36-44, jan./feb. 1999.
[12] Jiang you-hua, cao yi-long and gong you-min, a novel topology of hybrid multilevel inverter with minimum number of separated dc sources ieee transactions on industrial electronics, vol. 49, no. 4, august 2002 pp 832 838.
[13] Miaosen shen; joseph alan; jin wang; peng fang z.; adams donald j. Comparison of traditional inverters and z-source inverter for fuel cell vehicles ieee transactions on power electronics 2007, vol. 22, no4, pp. 1453-1463.
[14] Demas, l.; meynard, t.a.; foch, h.; gateau, g. Comparative study of multilevel opologies: npc, multicell inverter and smc with igbt iecon 02, ieee 2002 28th volume 1, issue, 5-8 nov. 2002 vol.1 pp: 828 - 833.
[15] Hosseini, s.h.; almaleki, m a new online optimal controller for 2-cell multicell inverter. Tencon 2004. 2004 ieee conference volume d, issue, 21-24 nov. 2004 pp): 85 - 88 vol. 4.
[16] A.k. Al-othman and tamer h. Abdelhamid, elimination of harmonics in multilevel inverters with non-equal dc sources using pso energy conversion and management volume 50, issue 3, March 2009, pages 756-764.
[17] Richardeau, f.; baudesson, ph.; meynard, t failures-tolerance and remedial strategies of a pwm multicellinverter. Power electronics specialists conference, 2000. Pesc 00. 2000 ieee 31st annual volume 2, issue, 2000 page(s):649 - 654 vol.2.
[18] F. Richardeau, p. Baudesson, t. Meynard and c. Turpin fail-safe capability of a high voltage igbt inverter source eur. Phys. J. Ap 15, 189-198 (2001).
[19] Lienhardt, a.-m.; gateau, g.; meynard, t.a.stacked multicell converter: digital sliding mode observation of flying capacitor voltages ieee- 32nd annual conference on industrial electronics, iecon 2006 volume , issue , 6-10 nov. 2006 page(s):2115 - 2120.
[20] Mcgrat, b.p.; meynard, t.a.; gateau, g.; holmes, d.g.optimal modulation of flying capacitor and stacked multicell converters using a state machine decoder power electronics specialists conference, 2005. Pesc apos;05. Ieee 36th volume, issue , 16-16 june 2005 page(s):1671 - 1677.
[21] K. L. Shi, t. F. Chan, y. K. Wong, s. L. Ho modelling and simulation of the three-phase induction motor using simulink international journal of electrical engineering education; volume 36 issue 2, april 1999, pp 163- 172.
[22] Ragu balanathan, nalin c. Pahalawaththa and udaya d. Annakkage modelling induction motor loads for voltage stability analysis international journal of electrical power & energy systems volume 24, issue 6, august 2002, pages 469-480.